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target-arm queue:

Browse Source 
* Support gdbstub (guest debug) in HVF
  * xnlx-versal: Support CANFD controller
  * bpim2u: New board model: Banana Pi BPI-M2 Ultra
  * Emulate FEAT_LSE2
  * allow DC CVA[D]P in user mode emulation
  * trap DCC access in user mode emulation
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Merge tag 'pull-target-arm-20230606' of https://git.linaro.org/people/pmaydell/qemu-arm into staging

target-arm queue:
 * Support gdbstub (guest debug) in HVF
 * xnlx-versal: Support CANFD controller
 * bpim2u: New board model: Banana Pi BPI-M2 Ultra
 * Emulate FEAT_LSE2
 * allow DC CVA[D]P in user mode emulation
 * trap DCC access in user mode emulation

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# gpg: Signature made Tue 06 Jun 2023 02:47:17 AM PDT
# gpg:                using RSA key E1A5C593CD419DE28E8315CF3C2525ED14360CDE
# gpg:                issuer "peter.maydell@linaro.org"
# gpg: Good signature from "Peter Maydell <peter.maydell@linaro.org>" [full]
# gpg:                 aka "Peter Maydell <pmaydell@gmail.com>" [full]
# gpg:                 aka "Peter Maydell <pmaydell@chiark.greenend.org.uk>" [full]
# gpg:                 aka "Peter Maydell <peter@archaic.org.uk>" [unknown]

* tag 'pull-target-arm-20230606' of https://git.linaro.org/people/pmaydell/qemu-arm: (42 commits)
  target/arm: trap DCC access in user mode emulation
  tests/tcg/aarch64: add DC CVA[D]P tests
  target/arm: allow DC CVA[D]P in user mode emulation
  target/arm: Enable FEAT_LSE2 for -cpu max
  tests/tcg/multiarch: Adjust sigbus.c
  tests/tcg/aarch64: Use stz2g in mte-7.c
  target/arm: Move mte check for store-exclusive
  target/arm: Relax ordered/atomic alignment checks for LSE2
  target/arm: Add SCTLR.nAA to TBFLAG_A64
  target/arm: Check alignment in helper_mte_check
  target/arm: Pass single_memop to gen_mte_checkN
  target/arm: Pass memop to gen_mte_check1*
  target/arm: Hoist finalize_memop out of do_fp_{ld, st}
  target/arm: Hoist finalize_memop out of do_gpr_{ld, st}
  target/arm: Load/store integer pair with one tcg operation
  target/arm: Sink gen_mte_check1 into load/store_exclusive
  target/arm: Use tcg_gen_qemu_{ld, st}_i128 in gen_sve_{ld, st}r
  target/arm: Use tcg_gen_qemu_st_i128 for STZG, STZ2G
  target/arm: Use tcg_gen_qemu_{st, ld}_i128 for do_fp_{st, ld}
  target/arm: Use tcg_gen_qemu_ld_i128 for LDXP
  ...

Signed-off-by: Richard Henderson <richard.henderson@linaro.org>
This commit is contained in:
Richard Henderson 2023-06-06 12:11:34 -07:00
commit f5e6786de4
63 changed files with 7386 additions and 733 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

2
MAINTAINERS
View File

@ -1819,7 +1819,7 @@ M: Francisco Iglesias <francisco.iglesias@amd.com>
S: Maintained
F: hw/net/can/xlnx-*
F: include/hw/net/xlnx-*
F: tests/qtest/xlnx-can-test*
F: tests/qtest/xlnx-can*-test*
EDU
M: Jiri Slaby <jslaby@suse.cz>

119
accel/hvf/hvf-accel-ops.c
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@ -52,6 +52,7 @@
#include "qemu/main-loop.h"
#include "exec/address-spaces.h"
#include "exec/exec-all.h"
#include "exec/gdbstub.h"
#include "sysemu/cpus.h"
#include "sysemu/hvf.h"
#include "sysemu/hvf_int.h"
@ -334,18 +335,26 @@ static int hvf_accel_init(MachineState *ms)
s->slots[x].slot_id = x;
}
QTAILQ_INIT(&s->hvf_sw_breakpoints);
hvf_state = s;
memory_listener_register(&hvf_memory_listener, &address_space_memory);
return hvf_arch_init();
}
static inline int hvf_gdbstub_sstep_flags(void)
{
return SSTEP_ENABLE | SSTEP_NOIRQ;
}
static void hvf_accel_class_init(ObjectClass *oc, void *data)
{
AccelClass *ac = ACCEL_CLASS(oc);
ac->name = "HVF";
ac->init_machine = hvf_accel_init;
ac->allowed = &hvf_allowed;
ac->gdbstub_supported_sstep_flags = hvf_gdbstub_sstep_flags;
}
static const TypeInfo hvf_accel_type = {
@ -395,6 +404,8 @@ static int hvf_init_vcpu(CPUState *cpu)
cpu->vcpu_dirty = 1;
assert_hvf_ok(r);
cpu->hvf->guest_debug_enabled = false;
return hvf_arch_init_vcpu(cpu);
}
@ -462,6 +473,108 @@ static void hvf_start_vcpu_thread(CPUState *cpu)
cpu, QEMU_THREAD_JOINABLE);
}
static int hvf_insert_breakpoint(CPUState *cpu, int type, hwaddr addr, hwaddr len)
{
struct hvf_sw_breakpoint *bp;
int err;
if (type == GDB_BREAKPOINT_SW) {
bp = hvf_find_sw_breakpoint(cpu, addr);
if (bp) {
bp->use_count++;
return 0;
}
bp = g_new(struct hvf_sw_breakpoint, 1);
bp->pc = addr;
bp->use_count = 1;
err = hvf_arch_insert_sw_breakpoint(cpu, bp);
if (err) {
g_free(bp);
return err;
}
QTAILQ_INSERT_HEAD(&hvf_state->hvf_sw_breakpoints, bp, entry);
} else {
err = hvf_arch_insert_hw_breakpoint(addr, len, type);
if (err) {
return err;
}
}
CPU_FOREACH(cpu) {
err = hvf_update_guest_debug(cpu);
if (err) {
return err;
}
}
return 0;
}
static int hvf_remove_breakpoint(CPUState *cpu, int type, hwaddr addr, hwaddr len)
{
struct hvf_sw_breakpoint *bp;
int err;
if (type == GDB_BREAKPOINT_SW) {
bp = hvf_find_sw_breakpoint(cpu, addr);
if (!bp) {
return -ENOENT;
}
if (bp->use_count > 1) {
bp->use_count--;
return 0;
}
err = hvf_arch_remove_sw_breakpoint(cpu, bp);
if (err) {
return err;
}
QTAILQ_REMOVE(&hvf_state->hvf_sw_breakpoints, bp, entry);
g_free(bp);
} else {
err = hvf_arch_remove_hw_breakpoint(addr, len, type);
if (err) {
return err;
}
}
CPU_FOREACH(cpu) {
err = hvf_update_guest_debug(cpu);
if (err) {
return err;
}
}
return 0;
}
static void hvf_remove_all_breakpoints(CPUState *cpu)
{
struct hvf_sw_breakpoint *bp, *next;
CPUState *tmpcpu;
QTAILQ_FOREACH_SAFE(bp, &hvf_state->hvf_sw_breakpoints, entry, next) {
if (hvf_arch_remove_sw_breakpoint(cpu, bp) != 0) {
/* Try harder to find a CPU that currently sees the breakpoint. */
CPU_FOREACH(tmpcpu)
{
if (hvf_arch_remove_sw_breakpoint(tmpcpu, bp) == 0) {
break;
}
}
}
QTAILQ_REMOVE(&hvf_state->hvf_sw_breakpoints, bp, entry);
g_free(bp);
}
hvf_arch_remove_all_hw_breakpoints();
CPU_FOREACH(cpu) {
hvf_update_guest_debug(cpu);
}
}
static void hvf_accel_ops_class_init(ObjectClass *oc, void *data)
{
AccelOpsClass *ops = ACCEL_OPS_CLASS(oc);
@ -473,6 +586,12 @@ static void hvf_accel_ops_class_init(ObjectClass *oc, void *data)
ops->synchronize_post_init = hvf_cpu_synchronize_post_init;
ops->synchronize_state = hvf_cpu_synchronize_state;
ops->synchronize_pre_loadvm = hvf_cpu_synchronize_pre_loadvm;
ops->insert_breakpoint = hvf_insert_breakpoint;
ops->remove_breakpoint = hvf_remove_breakpoint;
ops->remove_all_breakpoints = hvf_remove_all_breakpoints;
ops->update_guest_debug = hvf_update_guest_debug;
ops->supports_guest_debug = hvf_arch_supports_guest_debug;
};
static const TypeInfo hvf_accel_ops_type = {
.name = ACCEL_OPS_NAME("hvf"),

23
accel/hvf/hvf-all.c
View File

@ -44,3 +44,26 @@ void assert_hvf_ok(hv_return_t ret)
abort();
}
struct hvf_sw_breakpoint *hvf_find_sw_breakpoint(CPUState *cpu, target_ulong pc)
{
struct hvf_sw_breakpoint *bp;
QTAILQ_FOREACH(bp, &hvf_state->hvf_sw_breakpoints, entry) {
if (bp->pc == pc) {
return bp;
}
}
return NULL;
}
int hvf_sw_breakpoints_active(CPUState *cpu)
{
return !QTAILQ_EMPTY(&hvf_state->hvf_sw_breakpoints);
}
int hvf_update_guest_debug(CPUState *cpu)
{
hvf_arch_update_guest_debug(cpu);
return 0;
}

139
docs/system/arm/bananapi_m2u.rst Normal file
View File

@ -0,0 +1,139 @@
Banana Pi BPI-M2U (``bpim2u``)
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
Banana Pi BPI-M2 Ultra is a quad-core mini single board computer built with
Allwinner A40i/R40/V40 SoC. It features 2GB of RAM and 8GB eMMC. It also
has onboard WiFi and BT. On the ports side, the BPI-M2 Ultra has 2 USB A
2.0 ports, 1 USB OTG port, 1 HDMI port, 1 audio jack, a DC power port,
and last but not least, a SATA port.
Supported devices
"""""""""""""""""
The Banana Pi M2U machine supports the following devices:
* SMP (Quad Core Cortex-A7)
* Generic Interrupt Controller configuration
* SRAM mappings
* SDRAM controller
* Timer device (re-used from Allwinner A10)
* UART
* SD/MMC storage controller
* EMAC ethernet
* GMAC ethernet
* Clock Control Unit
* TWI (I2C)
Limitations
"""""""""""
Currently, Banana Pi M2U does *not* support the following features:
- Graphical output via HDMI, GPU and/or the Display Engine
- Audio output
- Hardware Watchdog
- Real Time Clock
- USB 2.0 interfaces
Also see the 'unimplemented' array in the Allwinner R40 SoC module
for a complete list of unimplemented I/O devices: ``./hw/arm/allwinner-r40.c``
Boot options
""""""""""""
The Banana Pi M2U machine can start using the standard -kernel functionality
for loading a Linux kernel or ELF executable. Additionally, the Banana Pi M2U
machine can also emulate the BootROM which is present on an actual Allwinner R40
based SoC, which loads the bootloader from a SD card, specified via the -sd
argument to qemu-system-arm.
Running mainline Linux
""""""""""""""""""""""
To build a Linux mainline kernel that can be booted by the Banana Pi M2U machine,
simply configure the kernel using the sunxi_defconfig configuration:
.. code-block:: bash
$ ARCH=arm CROSS_COMPILE=arm-linux-gnueabi- make mrproper
$ ARCH=arm CROSS_COMPILE=arm-linux-gnueabi- make sunxi_defconfig
To boot the newly build linux kernel in QEMU with the Banana Pi M2U machine, use:
.. code-block:: bash
$ qemu-system-arm -M bpim2u -nographic \
-kernel /path/to/linux/arch/arm/boot/zImage \
-append 'console=ttyS0,115200' \
-dtb /path/to/linux/arch/arm/boot/dts/sun8i-r40-bananapi-m2-ultra.dtb
Banana Pi M2U images
""""""""""""""""""""
Note that the mainline kernel does not have a root filesystem. You can choose
to build you own image with buildroot using the bananapi_m2_ultra_defconfig.
Also see https://buildroot.org for more information.
Another possibility is to run an OpenWrt image for Banana Pi M2U which
can be downloaded from:
https://downloads.openwrt.org/releases/22.03.3/targets/sunxi/cortexa7/
When using an image as an SD card, it must be resized to a power of two. This can be
done with the ``qemu-img`` command. It is recommended to only increase the image size
instead of shrinking it to a power of two, to avoid loss of data. For example,
to prepare a downloaded Armbian image, first extract it and then increase
its size to one gigabyte as follows:
.. code-block:: bash
$ qemu-img resize \
openwrt-22.03.3-sunxi-cortexa7-sinovoip_bananapi-m2-ultra-ext4-sdcard.img \
1G
Instead of providing a custom Linux kernel via the -kernel command you may also
choose to let the Banana Pi M2U machine load the bootloader from SD card, just like
a real board would do using the BootROM. Simply pass the selected image via the -sd
argument and remove the -kernel, -append, -dbt and -initrd arguments:
.. code-block:: bash
$ qemu-system-arm -M bpim2u -nic user -nographic \
-sd openwrt-22.03.3-sunxi-cortexa7-sinovoip_bananapi-m2-ultra-ext4-sdcard.img
Running U-Boot
""""""""""""""
U-Boot mainline can be build and configured using the Bananapi_M2_Ultra_defconfig
using similar commands as describe above for Linux. Note that it is recommended
for development/testing to select the following configuration setting in U-Boot:
Device Tree Control > Provider for DTB for DT Control > Embedded DTB
The BootROM of allwinner R40 loading u-boot from the 8KiB offset of sdcard.
Let's create an bootable disk image:
.. code-block:: bash
$ dd if=/dev/zero of=sd.img bs=32M count=1
$ dd if=u-boot-sunxi-with-spl.bin of=sd.img bs=1k seek=8 conv=notrunc
And then boot it.
.. code-block:: bash
$ qemu-system-arm -M bpim2u -nographic -sd sd.img
Banana Pi M2U integration tests
"""""""""""""""""""""""""""""""
The Banana Pi M2U machine has several integration tests included.
To run the whole set of tests, build QEMU from source and simply
provide the following command:
.. code-block:: bash
$ cd qemu-build-dir
$ AVOCADO_ALLOW_LARGE_STORAGE=yes tests/venv/bin/avocado \
--verbose --show=app,console run -t machine:bpim2u \
../tests/avocado/boot_linux_console.py

1
docs/system/arm/emulation.rst
View File

@ -50,6 +50,7 @@ the following architecture extensions:
- FEAT_LRCPC (Load-acquire RCpc instructions)
- FEAT_LRCPC2 (Load-acquire RCpc instructions v2)
- FEAT_LSE (Large System Extensions)
- FEAT_LSE2 (Large System Extensions v2)
- FEAT_LVA (Large Virtual Address space)
- FEAT_MTE (Memory Tagging Extension)
- FEAT_MTE2 (Memory Tagging Extension)

31
docs/system/arm/xlnx-versal-virt.rst
View File

@ -34,6 +34,7 @@ Implemented devices:
- DDR memory
- BBRAM (36 bytes of Battery-backed RAM)
- eFUSE (3072 bytes of one-time field-programmable bit array)
- 2 CANFDs
QEMU does not yet model any other devices, including the PL and the AI Engine.
@ -224,3 +225,33 @@ To use a different index value, N, from default of 1, add:
Better yet, do not use actual product data when running guest image
on this Xilinx Versal Virt board.
Using CANFDs for Versal Virt
""""""""""""""""""""""""""""
Versal CANFD controller is developed based on SocketCAN and QEMU CAN bus
implementation. Bus connection and socketCAN connection for each CAN module
can be set through command lines.
To connect both CANFD0 and CANFD1 on the same bus:
.. code-block:: bash
-object can-bus,id=canbus -machine canbus0=canbus -machine canbus1=canbus
To connect CANFD0 and CANFD1 to separate buses:
.. code-block:: bash
-object can-bus,id=canbus0 -object can-bus,id=canbus1 \
-machine canbus0=canbus0 -machine canbus1=canbus1
The SocketCAN interface can connect to a Physical or a Virtual CAN interfaces on
the host machine. Please check this document to learn about CAN interface on
Linux: docs/system/devices/can.rst
To connect CANFD0 and CANFD1 to host machine's CAN interface can0:
.. code-block:: bash
-object can-bus,id=canbus -machine canbus0=canbus -machine canbus1=canbus
-object can-host-socketcan,id=canhost0,if=can0,canbus=canbus

1
docs/system/target-arm.rst
View File

@ -83,6 +83,7 @@ undocumented; you can get a complete list by running
arm/versatile
arm/vexpress
arm/aspeed
arm/bananapi_m2u.rst
arm/sabrelite
arm/digic
arm/cubieboard

14
hw/arm/Kconfig
View File

@ -383,7 +383,7 @@ config ALLWINNER_A10
select ALLWINNER_WDT
select ALLWINNER_EMAC
select ALLWINNER_I2C
select AXP209_PMU
select AXP2XX_PMU
select SERIAL
select UNIMP
@ -403,6 +403,18 @@ config ALLWINNER_H3
select USB_EHCI_SYSBUS
select SD
config ALLWINNER_R40
bool
default y if TCG && ARM
select ALLWINNER_SRAMC
select ALLWINNER_A10_PIT
select AXP2XX_PMU
select SERIAL
select ARM_TIMER
select ARM_GIC
select UNIMP
select SD
config RASPI
bool
default y

526
hw/arm/allwinner-r40.c Normal file
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@ -0,0 +1,526 @@
/*
* Allwinner R40/A40i/T3 System on Chip emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "qemu/osdep.h"
#include "qapi/error.h"
#include "qemu/error-report.h"
#include "qemu/bswap.h"
#include "qemu/module.h"
#include "qemu/units.h"
#include "hw/qdev-core.h"
#include "hw/sysbus.h"
#include "hw/char/serial.h"
#include "hw/misc/unimp.h"
#include "hw/usb/hcd-ehci.h"
#include "hw/loader.h"
#include "sysemu/sysemu.h"
#include "hw/arm/allwinner-r40.h"
#include "hw/misc/allwinner-r40-dramc.h"
/* Memory map */
const hwaddr allwinner_r40_memmap[] = {
[AW_R40_DEV_SRAM_A1] = 0x00000000,
[AW_R40_DEV_SRAM_A2] = 0x00004000,
[AW_R40_DEV_SRAM_A3] = 0x00008000,
[AW_R40_DEV_SRAM_A4] = 0x0000b400,
[AW_R40_DEV_SRAMC] = 0x01c00000,
[AW_R40_DEV_EMAC] = 0x01c0b000,
[AW_R40_DEV_MMC0] = 0x01c0f000,
[AW_R40_DEV_MMC1] = 0x01c10000,
[AW_R40_DEV_MMC2] = 0x01c11000,
[AW_R40_DEV_MMC3] = 0x01c12000,
[AW_R40_DEV_CCU] = 0x01c20000,
[AW_R40_DEV_PIT] = 0x01c20c00,
[AW_R40_DEV_UART0] = 0x01c28000,
[AW_R40_DEV_UART1] = 0x01c28400,
[AW_R40_DEV_UART2] = 0x01c28800,
[AW_R40_DEV_UART3] = 0x01c28c00,
[AW_R40_DEV_UART4] = 0x01c29000,
[AW_R40_DEV_UART5] = 0x01c29400,
[AW_R40_DEV_UART6] = 0x01c29800,
[AW_R40_DEV_UART7] = 0x01c29c00,
[AW_R40_DEV_TWI0] = 0x01c2ac00,
[AW_R40_DEV_GMAC] = 0x01c50000,
[AW_R40_DEV_DRAMCOM] = 0x01c62000,
[AW_R40_DEV_DRAMCTL] = 0x01c63000,
[AW_R40_DEV_DRAMPHY] = 0x01c65000,
[AW_R40_DEV_GIC_DIST] = 0x01c81000,
[AW_R40_DEV_GIC_CPU] = 0x01c82000,
[AW_R40_DEV_GIC_HYP] = 0x01c84000,
[AW_R40_DEV_GIC_VCPU] = 0x01c86000,
[AW_R40_DEV_SDRAM] = 0x40000000
};
/* List of unimplemented devices */
struct AwR40Unimplemented {
const char *device_name;
hwaddr base;
hwaddr size;
};
static struct AwR40Unimplemented r40_unimplemented[] = {
{ "d-engine", 0x01000000, 4 * MiB },
{ "d-inter", 0x01400000, 128 * KiB },
{ "dma", 0x01c02000, 4 * KiB },
{ "nfdc", 0x01c03000, 4 * KiB },
{ "ts", 0x01c04000, 4 * KiB },
{ "spi0", 0x01c05000, 4 * KiB },
{ "spi1", 0x01c06000, 4 * KiB },
{ "cs0", 0x01c09000, 4 * KiB },
{ "keymem", 0x01c0a000, 4 * KiB },
{ "usb0-otg", 0x01c13000, 4 * KiB },
{ "usb0-host", 0x01c14000, 4 * KiB },
{ "crypto", 0x01c15000, 4 * KiB },
{ "spi2", 0x01c17000, 4 * KiB },
{ "sata", 0x01c18000, 4 * KiB },
{ "usb1-host", 0x01c19000, 4 * KiB },
{ "sid", 0x01c1b000, 4 * KiB },
{ "usb2-host", 0x01c1c000, 4 * KiB },
{ "cs1", 0x01c1d000, 4 * KiB },
{ "spi3", 0x01c1f000, 4 * KiB },
{ "rtc", 0x01c20400, 1 * KiB },
{ "pio", 0x01c20800, 1 * KiB },
{ "owa", 0x01c21000, 1 * KiB },
{ "ac97", 0x01c21400, 1 * KiB },
{ "cir0", 0x01c21800, 1 * KiB },
{ "cir1", 0x01c21c00, 1 * KiB },
{ "pcm0", 0x01c22000, 1 * KiB },
{ "pcm1", 0x01c22400, 1 * KiB },
{ "pcm2", 0x01c22800, 1 * KiB },
{ "audio", 0x01c22c00, 1 * KiB },
{ "keypad", 0x01c23000, 1 * KiB },
{ "pwm", 0x01c23400, 1 * KiB },
{ "keyadc", 0x01c24400, 1 * KiB },
{ "ths", 0x01c24c00, 1 * KiB },
{ "rtp", 0x01c25000, 1 * KiB },
{ "pmu", 0x01c25400, 1 * KiB },
{ "cpu-cfg", 0x01c25c00, 1 * KiB },
{ "uart0", 0x01c28000, 1 * KiB },
{ "uart1", 0x01c28400, 1 * KiB },
{ "uart2", 0x01c28800, 1 * KiB },
{ "uart3", 0x01c28c00, 1 * KiB },
{ "uart4", 0x01c29000, 1 * KiB },
{ "uart5", 0x01c29400, 1 * KiB },
{ "uart6", 0x01c29800, 1 * KiB },
{ "uart7", 0x01c29c00, 1 * KiB },
{ "ps20", 0x01c2a000, 1 * KiB },
{ "ps21", 0x01c2a400, 1 * KiB },
{ "twi1", 0x01c2b000, 1 * KiB },
{ "twi2", 0x01c2b400, 1 * KiB },
{ "twi3", 0x01c2b800, 1 * KiB },
{ "twi4", 0x01c2c000, 1 * KiB },
{ "scr", 0x01c2c400, 1 * KiB },
{ "tvd-top", 0x01c30000, 4 * KiB },
{ "tvd0", 0x01c31000, 4 * KiB },
{ "tvd1", 0x01c32000, 4 * KiB },
{ "tvd2", 0x01c33000, 4 * KiB },
{ "tvd3", 0x01c34000, 4 * KiB },
{ "gpu", 0x01c40000, 64 * KiB },
{ "hstmr", 0x01c60000, 4 * KiB },
{ "tcon-top", 0x01c70000, 4 * KiB },
{ "lcd0", 0x01c71000, 4 * KiB },
{ "lcd1", 0x01c72000, 4 * KiB },
{ "tv0", 0x01c73000, 4 * KiB },
{ "tv1", 0x01c74000, 4 * KiB },
{ "tve-top", 0x01c90000, 16 * KiB },
{ "tve0", 0x01c94000, 16 * KiB },
{ "tve1", 0x01c98000, 16 * KiB },
{ "mipi_dsi", 0x01ca0000, 4 * KiB },
{ "mipi_dphy", 0x01ca1000, 4 * KiB },
{ "ve", 0x01d00000, 1024 * KiB },
{ "mp", 0x01e80000, 128 * KiB },
{ "hdmi", 0x01ee0000, 128 * KiB },
{ "prcm", 0x01f01400, 1 * KiB },
{ "debug", 0x3f500000, 64 * KiB },
{ "cpubist", 0x3f501000, 4 * KiB },
{ "dcu", 0x3fff0000, 64 * KiB },
{ "hstmr", 0x01c60000, 4 * KiB },
{ "brom", 0xffff0000, 36 * KiB }
};
/* Per Processor Interrupts */
enum {
AW_R40_GIC_PPI_MAINT = 9,
AW_R40_GIC_PPI_HYPTIMER = 10,
AW_R40_GIC_PPI_VIRTTIMER = 11,
AW_R40_GIC_PPI_SECTIMER = 13,
AW_R40_GIC_PPI_PHYSTIMER = 14
};
/* Shared Processor Interrupts */
enum {
AW_R40_GIC_SPI_UART0 = 1,
AW_R40_GIC_SPI_UART1 = 2,
AW_R40_GIC_SPI_UART2 = 3,
AW_R40_GIC_SPI_UART3 = 4,
AW_R40_GIC_SPI_TWI0 = 7,
AW_R40_GIC_SPI_UART4 = 17,
AW_R40_GIC_SPI_UART5 = 18,
AW_R40_GIC_SPI_UART6 = 19,
AW_R40_GIC_SPI_UART7 = 20,
AW_R40_GIC_SPI_TIMER0 = 22,
AW_R40_GIC_SPI_TIMER1 = 23,
AW_R40_GIC_SPI_MMC0 = 32,
AW_R40_GIC_SPI_MMC1 = 33,
AW_R40_GIC_SPI_MMC2 = 34,
AW_R40_GIC_SPI_MMC3 = 35,
AW_R40_GIC_SPI_EMAC = 55,
AW_R40_GIC_SPI_GMAC = 85,
};
/* Allwinner R40 general constants */
enum {
AW_R40_GIC_NUM_SPI = 128
};
#define BOOT0_MAGIC "eGON.BT0"
/* The low 8-bits of the 'boot_media' field in the SPL header */
#define SUNXI_BOOTED_FROM_MMC0 0
#define SUNXI_BOOTED_FROM_NAND 1
#define SUNXI_BOOTED_FROM_MMC2 2
#define SUNXI_BOOTED_FROM_SPI 3
struct boot_file_head {
uint32_t b_instruction;
uint8_t magic[8];
uint32_t check_sum;
uint32_t length;
uint32_t pub_head_size;
uint32_t fel_script_address;
uint32_t fel_uEnv_length;
uint32_t dt_name_offset;
uint32_t dram_size;
uint32_t boot_media;
uint32_t string_pool[13];
};
bool allwinner_r40_bootrom_setup(AwR40State *s, BlockBackend *blk, int unit)
{
const int64_t rom_size = 32 * KiB;
g_autofree uint8_t *buffer = g_new0(uint8_t, rom_size);
struct boot_file_head *head = (struct boot_file_head *)buffer;
if (blk_pread(blk, 8 * KiB, rom_size, buffer, 0) < 0) {
error_setg(&error_fatal, "%s: failed to read BlockBackend data",
__func__);
return false;
}
/* we only check the magic string here. */
if (memcmp(head->magic, BOOT0_MAGIC, sizeof(head->magic))) {
return false;
}
/*
* Simulate the behavior of the bootROM, it will change the boot_media
* flag to indicate where the chip is booting from. R40 can boot from
* mmc0 or mmc2, the default value of boot_media is zero
* (SUNXI_BOOTED_FROM_MMC0), let's fix this flag when it is booting from
* the others.
*/
if (unit == 2) {
head->boot_media = cpu_to_le32(SUNXI_BOOTED_FROM_MMC2);
} else {
head->boot_media = cpu_to_le32(SUNXI_BOOTED_FROM_MMC0);
}
rom_add_blob("allwinner-r40.bootrom", buffer, rom_size,
rom_size, s->memmap[AW_R40_DEV_SRAM_A1],
NULL, NULL, NULL, NULL, false);
return true;
}
static void allwinner_r40_init(Object *obj)
{
static const char *mmc_names[AW_R40_NUM_MMCS] = {
"mmc0", "mmc1", "mmc2", "mmc3"
};
AwR40State *s = AW_R40(obj);
s->memmap = allwinner_r40_memmap;
for (int i = 0; i < AW_R40_NUM_CPUS; i++) {
object_initialize_child(obj, "cpu[*]", &s->cpus[i],
ARM_CPU_TYPE_NAME("cortex-a7"));
}
object_initialize_child(obj, "gic", &s->gic, TYPE_ARM_GIC);
object_initialize_child(obj, "timer", &s->timer, TYPE_AW_A10_PIT);
object_property_add_alias(obj, "clk0-freq", OBJECT(&s->timer),
"clk0-freq");
object_property_add_alias(obj, "clk1-freq", OBJECT(&s->timer),
"clk1-freq");
object_initialize_child(obj, "ccu", &s->ccu, TYPE_AW_R40_CCU);
for (int i = 0; i < AW_R40_NUM_MMCS; i++) {
object_initialize_child(obj, mmc_names[i], &s->mmc[i],
TYPE_AW_SDHOST_SUN50I_A64);
}
object_initialize_child(obj, "twi0", &s->i2c0, TYPE_AW_I2C_SUN6I);
object_initialize_child(obj, "emac", &s->emac, TYPE_AW_EMAC);
object_initialize_child(obj, "gmac", &s->gmac, TYPE_AW_SUN8I_EMAC);
object_property_add_alias(obj, "gmac-phy-addr",
OBJECT(&s->gmac), "phy-addr");
object_initialize_child(obj, "dramc", &s->dramc, TYPE_AW_R40_DRAMC);
object_property_add_alias(obj, "ram-addr", OBJECT(&s->dramc),
"ram-addr");
object_property_add_alias(obj, "ram-size", OBJECT(&s->dramc),
"ram-size");
object_initialize_child(obj, "sramc", &s->sramc, TYPE_AW_SRAMC_SUN8I_R40);
}
static void allwinner_r40_realize(DeviceState *dev, Error **errp)
{
const char *r40_nic_models[] = { "gmac", "emac", NULL };
AwR40State *s = AW_R40(dev);
unsigned i;
/* CPUs */
for (i = 0; i < AW_R40_NUM_CPUS; i++) {
/*
* Disable secondary CPUs. Guest EL3 firmware will start
* them via CPU reset control registers.
*/
qdev_prop_set_bit(DEVICE(&s->cpus[i]), "start-powered-off",
i > 0);
/* All exception levels required */
qdev_prop_set_bit(DEVICE(&s->cpus[i]), "has_el3", true);
qdev_prop_set_bit(DEVICE(&s->cpus[i]), "has_el2", true);
/* Mark realized */
qdev_realize(DEVICE(&s->cpus[i]), NULL, &error_fatal);
}
/* Generic Interrupt Controller */
qdev_prop_set_uint32(DEVICE(&s->gic), "num-irq", AW_R40_GIC_NUM_SPI +
GIC_INTERNAL);
qdev_prop_set_uint32(DEVICE(&s->gic), "revision", 2);
qdev_prop_set_uint32(DEVICE(&s->gic), "num-cpu", AW_R40_NUM_CPUS);
qdev_prop_set_bit(DEVICE(&s->gic), "has-security-extensions", false);
qdev_prop_set_bit(DEVICE(&s->gic), "has-virtualization-extensions", true);
sysbus_realize(SYS_BUS_DEVICE(&s->gic), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->gic), 0, s->memmap[AW_R40_DEV_GIC_DIST]);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->gic), 1, s->memmap[AW_R40_DEV_GIC_CPU]);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->gic), 2, s->memmap[AW_R40_DEV_GIC_HYP]);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->gic), 3, s->memmap[AW_R40_DEV_GIC_VCPU]);
/*
* Wire the outputs from each CPU's generic timer and the GICv2
* maintenance interrupt signal to the appropriate GIC PPI inputs,
* and the GIC's IRQ/FIQ/VIRQ/VFIQ interrupt outputs to the CPU's inputs.
*/
for (i = 0; i < AW_R40_NUM_CPUS; i++) {
DeviceState *cpudev = DEVICE(&s->cpus[i]);
int ppibase = AW_R40_GIC_NUM_SPI + i * GIC_INTERNAL + GIC_NR_SGIS;
int irq;
/*
* Mapping from the output timer irq lines from the CPU to the
* GIC PPI inputs used for this board.
*/
const int timer_irq[] = {
[GTIMER_PHYS] = AW_R40_GIC_PPI_PHYSTIMER,
[GTIMER_VIRT] = AW_R40_GIC_PPI_VIRTTIMER,
[GTIMER_HYP] = AW_R40_GIC_PPI_HYPTIMER,
[GTIMER_SEC] = AW_R40_GIC_PPI_SECTIMER,
};
/* Connect CPU timer outputs to GIC PPI inputs */
for (irq = 0; irq < ARRAY_SIZE(timer_irq); irq++) {
qdev_connect_gpio_out(cpudev, irq,
qdev_get_gpio_in(DEVICE(&s->gic),
ppibase + timer_irq[irq]));
}
/* Connect GIC outputs to CPU interrupt inputs */
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gic), i,
qdev_get_gpio_in(cpudev, ARM_CPU_IRQ));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gic), i + AW_R40_NUM_CPUS,
qdev_get_gpio_in(cpudev, ARM_CPU_FIQ));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gic), i + (2 * AW_R40_NUM_CPUS),
qdev_get_gpio_in(cpudev, ARM_CPU_VIRQ));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gic), i + (3 * AW_R40_NUM_CPUS),
qdev_get_gpio_in(cpudev, ARM_CPU_VFIQ));
/* GIC maintenance signal */
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gic), i + (4 * AW_R40_NUM_CPUS),
qdev_get_gpio_in(DEVICE(&s->gic),
ppibase + AW_R40_GIC_PPI_MAINT));
}
/* Timer */
sysbus_realize(SYS_BUS_DEVICE(&s->timer), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->timer), 0, s->memmap[AW_R40_DEV_PIT]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->timer), 0,
qdev_get_gpio_in(DEVICE(&s->gic),
AW_R40_GIC_SPI_TIMER0));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->timer), 1,
qdev_get_gpio_in(DEVICE(&s->gic),
AW_R40_GIC_SPI_TIMER1));
/* SRAM */
sysbus_realize(SYS_BUS_DEVICE(&s->sramc), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->sramc), 0, s->memmap[AW_R40_DEV_SRAMC]);
memory_region_init_ram(&s->sram_a1, OBJECT(dev), "sram A1",
16 * KiB, &error_abort);
memory_region_init_ram(&s->sram_a2, OBJECT(dev), "sram A2",
16 * KiB, &error_abort);
memory_region_init_ram(&s->sram_a3, OBJECT(dev), "sram A3",
13 * KiB, &error_abort);
memory_region_init_ram(&s->sram_a4, OBJECT(dev), "sram A4",
3 * KiB, &error_abort);
memory_region_add_subregion(get_system_memory(),
s->memmap[AW_R40_DEV_SRAM_A1], &s->sram_a1);
memory_region_add_subregion(get_system_memory(),
s->memmap[AW_R40_DEV_SRAM_A2], &s->sram_a2);
memory_region_add_subregion(get_system_memory(),
s->memmap[AW_R40_DEV_SRAM_A3], &s->sram_a3);
memory_region_add_subregion(get_system_memory(),
s->memmap[AW_R40_DEV_SRAM_A4], &s->sram_a4);
/* Clock Control Unit */
sysbus_realize(SYS_BUS_DEVICE(&s->ccu), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->ccu), 0, s->memmap[AW_R40_DEV_CCU]);
/* SD/MMC */
for (int i = 0; i < AW_R40_NUM_MMCS; i++) {
qemu_irq irq = qdev_get_gpio_in(DEVICE(&s->gic),
AW_R40_GIC_SPI_MMC0 + i);
const hwaddr addr = s->memmap[AW_R40_DEV_MMC0 + i];
object_property_set_link(OBJECT(&s->mmc[i]), "dma-memory",
OBJECT(get_system_memory()), &error_fatal);
sysbus_realize(SYS_BUS_DEVICE(&s->mmc[i]), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->mmc[i]), 0, addr);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->mmc[i]), 0, irq);
}
/* UART0. For future clocktree API: All UARTS are connected to APB2_CLK. */
for (int i = 0; i < AW_R40_NUM_UARTS; i++) {
static const int uart_irqs[AW_R40_NUM_UARTS] = {
AW_R40_GIC_SPI_UART0,
AW_R40_GIC_SPI_UART1,
AW_R40_GIC_SPI_UART2,
AW_R40_GIC_SPI_UART3,
AW_R40_GIC_SPI_UART4,
AW_R40_GIC_SPI_UART5,
AW_R40_GIC_SPI_UART6,
AW_R40_GIC_SPI_UART7,
};
const hwaddr addr = s->memmap[AW_R40_DEV_UART0 + i];
serial_mm_init(get_system_memory(), addr, 2,
qdev_get_gpio_in(DEVICE(&s->gic), uart_irqs[i]),
115200, serial_hd(i), DEVICE_NATIVE_ENDIAN);
}
/* I2C */
sysbus_realize(SYS_BUS_DEVICE(&s->i2c0), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->i2c0), 0, s->memmap[AW_R40_DEV_TWI0]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->i2c0), 0,
qdev_get_gpio_in(DEVICE(&s->gic), AW_R40_GIC_SPI_TWI0));
/* DRAMC */
sysbus_realize(SYS_BUS_DEVICE(&s->dramc), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->dramc), 0,
s->memmap[AW_R40_DEV_DRAMCOM]);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->dramc), 1,
s->memmap[AW_R40_DEV_DRAMCTL]);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->dramc), 2,
s->memmap[AW_R40_DEV_DRAMPHY]);
/* nic support gmac and emac */
for (int i = 0; i < ARRAY_SIZE(r40_nic_models) - 1; i++) {
NICInfo *nic = &nd_table[i];
if (!nic->used) {
continue;
}
if (qemu_show_nic_models(nic->model, r40_nic_models)) {
exit(0);
}
switch (qemu_find_nic_model(nic, r40_nic_models, r40_nic_models[0])) {
case 0: /* gmac */
qdev_set_nic_properties(DEVICE(&s->gmac), nic);
break;
case 1: /* emac */
qdev_set_nic_properties(DEVICE(&s->emac), nic);
break;
default:
exit(1);
break;
}
}
/* GMAC */
object_property_set_link(OBJECT(&s->gmac), "dma-memory",
OBJECT(get_system_memory()), &error_fatal);
sysbus_realize(SYS_BUS_DEVICE(&s->gmac), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->gmac), 0, s->memmap[AW_R40_DEV_GMAC]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gmac), 0,
qdev_get_gpio_in(DEVICE(&s->gic), AW_R40_GIC_SPI_GMAC));
/* EMAC */
sysbus_realize(SYS_BUS_DEVICE(&s->emac), &error_fatal);
sysbus_mmio_map(SYS_BUS_DEVICE(&s->emac), 0, s->memmap[AW_R40_DEV_EMAC]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->emac), 0,
qdev_get_gpio_in(DEVICE(&s->gic), AW_R40_GIC_SPI_EMAC));
/* Unimplemented devices */
for (i = 0; i < ARRAY_SIZE(r40_unimplemented); i++) {
create_unimplemented_device(r40_unimplemented[i].device_name,
r40_unimplemented[i].base,
r40_unimplemented[i].size);
}
}
static void allwinner_r40_class_init(ObjectClass *oc, void *data)
{
DeviceClass *dc = DEVICE_CLASS(oc);
dc->realize = allwinner_r40_realize;
/* Reason: uses serial_hd() in realize function */
dc->user_creatable = false;
}
static const TypeInfo allwinner_r40_type_info = {
.name = TYPE_AW_R40,
.parent = TYPE_DEVICE,
.instance_size = sizeof(AwR40State),
.instance_init = allwinner_r40_init,
.class_init = allwinner_r40_class_init,
};
static void allwinner_r40_register_types(void)
{
type_register_static(&allwinner_r40_type_info);
}
type_init(allwinner_r40_register_types)

145
hw/arm/bananapi_m2u.c Normal file
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/*
* Bananapi M2U emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "qemu/osdep.h"
#include "qemu/units.h"
#include "exec/address-spaces.h"
#include "qapi/error.h"
#include "qemu/error-report.h"
#include "hw/boards.h"
#include "hw/i2c/i2c.h"
#include "hw/qdev-properties.h"
#include "hw/arm/allwinner-r40.h"
static struct arm_boot_info bpim2u_binfo;
/*
* R40 can boot from mmc0 and mmc2, and bpim2u has two mmc interface, one is
* connected to sdcard and another mount an emmc media.
* Attach the mmc driver and try loading bootloader.
*/
static void mmc_attach_drive(AwR40State *s, AwSdHostState *mmc, int unit,
bool load_bootroom, bool *bootroom_loaded)
{
DriveInfo *di = drive_get(IF_SD, 0, unit);
BlockBackend *blk = di ? blk_by_legacy_dinfo(di) : NULL;
BusState *bus;
DeviceState *carddev;
bus = qdev_get_child_bus(DEVICE(mmc), "sd-bus");
if (bus == NULL) {
error_report("No SD bus found in SOC object");
exit(1);
}
carddev = qdev_new(TYPE_SD_CARD);
qdev_prop_set_drive_err(carddev, "drive", blk, &error_fatal);
qdev_realize_and_unref(carddev, bus, &error_fatal);
if (load_bootroom && blk && blk_is_available(blk)) {
/* Use Boot ROM to copy data from SD card to SRAM */
*bootroom_loaded = allwinner_r40_bootrom_setup(s, blk, unit);
}
}
static void bpim2u_init(MachineState *machine)
{
bool bootroom_loaded = false;
AwR40State *r40;
I2CBus *i2c;
/* BIOS is not supported by this board */
if (machine->firmware) {
error_report("BIOS not supported for this machine");
exit(1);
}
/* Only allow Cortex-A7 for this board */
if (strcmp(machine->cpu_type, ARM_CPU_TYPE_NAME("cortex-a7")) != 0) {
error_report("This board can only be used with cortex-a7 CPU");
exit(1);
}
r40 = AW_R40(object_new(TYPE_AW_R40));
object_property_add_child(OBJECT(machine), "soc", OBJECT(r40));
object_unref(OBJECT(r40));
/* Setup timer properties */
object_property_set_int(OBJECT(r40), "clk0-freq", 32768, &error_abort);
object_property_set_int(OBJECT(r40), "clk1-freq", 24 * 1000 * 1000,
&error_abort);
/* DRAMC */
r40->ram_size = machine->ram_size / MiB;
object_property_set_uint(OBJECT(r40), "ram-addr",
r40->memmap[AW_R40_DEV_SDRAM], &error_abort);
object_property_set_int(OBJECT(r40), "ram-size",
r40->ram_size, &error_abort);
/* GMAC PHY */
object_property_set_uint(OBJECT(r40), "gmac-phy-addr", 1, &error_abort);
/* Mark R40 object realized */
qdev_realize(DEVICE(r40), NULL, &error_abort);
/*
* Plug in SD card and try load bootrom, R40 has 4 mmc controllers but can
* only booting from mmc0 and mmc2.
*/
for (int i = 0; i < AW_R40_NUM_MMCS; i++) {
switch (i) {
case 0:
case 2:
mmc_attach_drive(r40, &r40->mmc[i], i,
!machine->kernel_filename && !bootroom_loaded,
&bootroom_loaded);
break;
default:
mmc_attach_drive(r40, &r40->mmc[i], i, false, NULL);
break;
}
}
/* Connect AXP221 */
i2c = I2C_BUS(qdev_get_child_bus(DEVICE(&r40->i2c0), "i2c"));
i2c_slave_create_simple(i2c, "axp221_pmu", 0x34);
/* SDRAM */
memory_region_add_subregion(get_system_memory(),
r40->memmap[AW_R40_DEV_SDRAM], machine->ram);
bpim2u_binfo.loader_start = r40->memmap[AW_R40_DEV_SDRAM];
bpim2u_binfo.ram_size = machine->ram_size;
bpim2u_binfo.psci_conduit = QEMU_PSCI_CONDUIT_SMC;
arm_load_kernel(ARM_CPU(first_cpu), machine, &bpim2u_binfo);
}
static void bpim2u_machine_init(MachineClass *mc)
{
mc->desc = "Bananapi M2U (Cortex-A7)";
mc->init = bpim2u_init;
mc->min_cpus = AW_R40_NUM_CPUS;
mc->max_cpus = AW_R40_NUM_CPUS;
mc->default_cpus = AW_R40_NUM_CPUS;
mc->default_cpu_type = ARM_CPU_TYPE_NAME("cortex-a7");
mc->default_ram_size = 1 * GiB;
mc->default_ram_id = "bpim2u.ram";
}
DEFINE_MACHINE("bpim2u", bpim2u_machine_init)

1
hw/arm/meson.build
View File

@ -37,6 +37,7 @@ arm_ss.add(when: 'CONFIG_OMAP', if_true: files('omap1.c', 'omap2.c'))
arm_ss.add(when: 'CONFIG_STRONGARM', if_true: files('strongarm.c'))
arm_ss.add(when: 'CONFIG_ALLWINNER_A10', if_true: files('allwinner-a10.c', 'cubieboard.c'))
arm_ss.add(when: 'CONFIG_ALLWINNER_H3', if_true: files('allwinner-h3.c', 'orangepi.c'))
arm_ss.add(when: 'CONFIG_ALLWINNER_R40', if_true: files('allwinner-r40.c', 'bananapi_m2u.c'))
arm_ss.add(when: 'CONFIG_RASPI', if_true: files('bcm2836.c', 'raspi.c'))
arm_ss.add(when: 'CONFIG_STM32F100_SOC', if_true: files('stm32f100_soc.c'))
arm_ss.add(when: 'CONFIG_STM32F205_SOC', if_true: files('stm32f205_soc.c'))

53
hw/arm/xlnx-versal-virt.c
View File

@ -40,9 +40,11 @@ struct VersalVirt {
uint32_t clk_25Mhz;
uint32_t usb;
uint32_t dwc;
uint32_t canfd[2];
} phandle;
struct arm_boot_info binfo;
CanBusState *canbus[XLNX_VERSAL_NR_CANFD];
struct {
bool secure;
} cfg;
@ -235,6 +237,38 @@ static void fdt_add_uart_nodes(VersalVirt *s)
}
}
static void fdt_add_canfd_nodes(VersalVirt *s)
{
uint64_t addrs[] = { MM_CANFD1, MM_CANFD0 };
uint32_t size[] = { MM_CANFD1_SIZE, MM_CANFD0_SIZE };
unsigned int irqs[] = { VERSAL_CANFD1_IRQ_0, VERSAL_CANFD0_IRQ_0 };
const char clocknames[] = "can_clk\0s_axi_aclk";
int i;
/* Create and connect CANFD0 and CANFD1 nodes to canbus0. */
for (i = 0; i < ARRAY_SIZE(addrs); i++) {
char *name = g_strdup_printf("/canfd@%" PRIx64, addrs[i]);
qemu_fdt_add_subnode(s->fdt, name);
qemu_fdt_setprop_cell(s->fdt, name, "rx-fifo-depth", 0x40);
qemu_fdt_setprop_cell(s->fdt, name, "tx-mailbox-count", 0x20);
qemu_fdt_setprop_cells(s->fdt, name, "clocks",
s->phandle.clk_25Mhz, s->phandle.clk_25Mhz);
qemu_fdt_setprop(s->fdt, name, "clock-names",
clocknames, sizeof(clocknames));
qemu_fdt_setprop_cells(s->fdt, name, "interrupts",
GIC_FDT_IRQ_TYPE_SPI, irqs[i],
GIC_FDT_IRQ_FLAGS_LEVEL_HI);
qemu_fdt_setprop_sized_cells(s->fdt, name, "reg",
2, addrs[i], 2, size[i]);
qemu_fdt_setprop_string(s->fdt, name, "compatible",
"xlnx,canfd-2.0");
g_free(name);
}
}
static void fdt_add_fixed_link_nodes(VersalVirt *s, char *gemname,
uint32_t phandle)
{
@ -639,12 +673,17 @@ static void versal_virt_init(MachineState *machine)
TYPE_XLNX_VERSAL);
object_property_set_link(OBJECT(&s->soc), "ddr", OBJECT(machine->ram),
&error_abort);
object_property_set_link(OBJECT(&s->soc), "canbus0", OBJECT(s->canbus[0]),
&error_abort);
object_property_set_link(OBJECT(&s->soc), "canbus1", OBJECT(s->canbus[1]),
&error_abort);
sysbus_realize(SYS_BUS_DEVICE(&s->soc), &error_fatal);
fdt_create(s);
create_virtio_regions(s);
fdt_add_gem_nodes(s);
fdt_add_uart_nodes(s);
fdt_add_canfd_nodes(s);
fdt_add_gic_nodes(s);
fdt_add_timer_nodes(s);
fdt_add_zdma_nodes(s);
@ -712,6 +751,20 @@ static void versal_virt_init(MachineState *machine)
static void versal_virt_machine_instance_init(Object *obj)
{
VersalVirt *s = XLNX_VERSAL_VIRT_MACHINE(obj);
/*
* User can set canbus0 and canbus1 properties to can-bus object and connect
* to socketcan(optional) interface via command line.
*/
object_property_add_link(obj, "canbus0", TYPE_CAN_BUS,
(Object **)&s->canbus[0],
object_property_allow_set_link,
0);
object_property_add_link(obj, "canbus1", TYPE_CAN_BUS,
(Object **)&s->canbus[1],
object_property_allow_set_link,
0);
}
static void versal_virt_machine_class_init(ObjectClass *oc, void *data)

37
hw/arm/xlnx-versal.c
View File

@ -184,6 +184,38 @@ static void versal_create_uarts(Versal *s, qemu_irq *pic)
}
}
static void versal_create_canfds(Versal *s, qemu_irq *pic)
{
int i;
uint32_t irqs[] = { VERSAL_CANFD0_IRQ_0, VERSAL_CANFD1_IRQ_0};
uint64_t addrs[] = { MM_CANFD0, MM_CANFD1 };
for (i = 0; i < ARRAY_SIZE(s->lpd.iou.canfd); i++) {
char *name = g_strdup_printf("canfd%d", i);
SysBusDevice *sbd;
MemoryRegion *mr;
object_initialize_child(OBJECT(s), name, &s->lpd.iou.canfd[i],
TYPE_XILINX_CANFD);
sbd = SYS_BUS_DEVICE(&s->lpd.iou.canfd[i]);
object_property_set_int(OBJECT(&s->lpd.iou.canfd[i]), "ext_clk_freq",
XLNX_VERSAL_CANFD_REF_CLK , &error_abort);
object_property_set_link(OBJECT(&s->lpd.iou.canfd[i]), "canfdbus",
OBJECT(s->lpd.iou.canbus[i]),
&error_abort);
sysbus_realize(sbd, &error_fatal);
mr = sysbus_mmio_get_region(sbd, 0);
memory_region_add_subregion(&s->mr_ps, addrs[i], mr);
sysbus_connect_irq(sbd, 0, pic[irqs[i]]);
g_free(name);
}
}
static void versal_create_usbs(Versal *s, qemu_irq *pic)
{
DeviceState *dev;
@ -718,6 +750,7 @@ static void versal_realize(DeviceState *dev, Error **errp)
versal_create_apu_gic(s, pic);
versal_create_rpu_cpus(s);
versal_create_uarts(s, pic);
versal_create_canfds(s, pic);
versal_create_usbs(s, pic);
versal_create_gems(s, pic);
versal_create_admas(s, pic);
@ -757,6 +790,10 @@ static void versal_init(Object *obj)
static Property versal_properties[] = {
DEFINE_PROP_LINK("ddr", Versal, cfg.mr_ddr, TYPE_MEMORY_REGION,
MemoryRegion *),
DEFINE_PROP_LINK("canbus0", Versal, lpd.iou.canbus[0],
TYPE_CAN_BUS, CanBusState *),
DEFINE_PROP_LINK("canbus1", Versal, lpd.iou.canbus[1],
TYPE_CAN_BUS, CanBusState *),
DEFINE_PROP_END_OF_LIST()
};

5
hw/misc/Kconfig
View File

@ -170,13 +170,16 @@ config VIRT_CTRL
config LASI
bool
config ALLWINNER_SRAMC
bool
config ALLWINNER_A10_CCM
bool
config ALLWINNER_A10_DRAMC
bool
config AXP209_PMU
config AXP2XX_PMU
bool
depends on I2C

209
hw/misc/allwinner-r40-ccu.c Normal file
View File

@ -0,0 +1,209 @@
/*
* Allwinner R40 Clock Control Unit emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "qemu/osdep.h"
#include "qemu/units.h"
#include "hw/sysbus.h"
#include "migration/vmstate.h"
#include "qemu/log.h"
#include "qemu/module.h"
#include "hw/misc/allwinner-r40-ccu.h"
/* CCU register offsets */
enum {
REG_PLL_CPUX_CTRL = 0x0000,
REG_PLL_AUDIO_CTRL = 0x0008,
REG_PLL_VIDEO0_CTRL = 0x0010,
REG_PLL_VE_CTRL = 0x0018,
REG_PLL_DDR0_CTRL = 0x0020,
REG_PLL_PERIPH0_CTRL = 0x0028,
REG_PLL_PERIPH1_CTRL = 0x002c,
REG_PLL_VIDEO1_CTRL = 0x0030,
REG_PLL_SATA_CTRL = 0x0034,
REG_PLL_GPU_CTRL = 0x0038,
REG_PLL_MIPI_CTRL = 0x0040,
REG_PLL_DE_CTRL = 0x0048,
REG_PLL_DDR1_CTRL = 0x004c,
REG_AHB1_APB1_CFG = 0x0054,
REG_APB2_CFG = 0x0058,
REG_MMC0_CLK = 0x0088,
REG_MMC1_CLK = 0x008c,
REG_MMC2_CLK = 0x0090,
REG_MMC3_CLK = 0x0094,
REG_USBPHY_CFG = 0x00cc,
REG_PLL_DDR_AUX = 0x00f0,
REG_DRAM_CFG = 0x00f4,
REG_PLL_DDR1_CFG = 0x00f8,
REG_DRAM_CLK_GATING = 0x0100,
REG_GMAC_CLK = 0x0164,
REG_SYS_32K_CLK = 0x0310,
REG_PLL_LOCK_CTRL = 0x0320,
};
#define REG_INDEX(offset) (offset / sizeof(uint32_t))
/* CCU register flags */
enum {
REG_PLL_ENABLE = (1 << 31),
REG_PLL_LOCK = (1 << 28),
};
static uint64_t allwinner_r40_ccu_read(void *opaque, hwaddr offset,
unsigned size)
{
const AwR40ClockCtlState *s = AW_R40_CCU(opaque);
const uint32_t idx = REG_INDEX(offset);
switch (offset) {
case 0x324 ... AW_R40_CCU_IOSIZE:
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return 0;
}
return s->regs[idx];
}
static void allwinner_r40_ccu_write(void *opaque, hwaddr offset,
uint64_t val, unsigned size)
{
AwR40ClockCtlState *s = AW_R40_CCU(opaque);
switch (offset) {
case REG_DRAM_CFG: /* DRAM Configuration(for DDR0) */
/* bit16: SDRCLK_UPD (SDRCLK configuration 0 update) */
val &= ~(1 << 16);
break;
case REG_PLL_DDR1_CTRL: /* DDR1 Control register */
/* bit30: SDRPLL_UPD */
val &= ~(1 << 30);
if (val & REG_PLL_ENABLE) {
val |= REG_PLL_LOCK;
}
break;
case REG_PLL_CPUX_CTRL:
case REG_PLL_AUDIO_CTRL:
case REG_PLL_VE_CTRL:
case REG_PLL_VIDEO0_CTRL:
case REG_PLL_DDR0_CTRL:
case REG_PLL_PERIPH0_CTRL:
case REG_PLL_PERIPH1_CTRL:
case REG_PLL_VIDEO1_CTRL:
case REG_PLL_SATA_CTRL:
case REG_PLL_GPU_CTRL:
case REG_PLL_MIPI_CTRL:
case REG_PLL_DE_CTRL:
if (val & REG_PLL_ENABLE) {
val |= REG_PLL_LOCK;
}
break;
case 0x324 ... AW_R40_CCU_IOSIZE:
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
break;
default:
qemu_log_mask(LOG_UNIMP, "%s: unimplemented write offset 0x%04x\n",
__func__, (uint32_t)offset);
break;
}
s->regs[REG_INDEX(offset)] = (uint32_t) val;
}
static const MemoryRegionOps allwinner_r40_ccu_ops = {
.read = allwinner_r40_ccu_read,
.write = allwinner_r40_ccu_write,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
static void allwinner_r40_ccu_reset(DeviceState *dev)
{
AwR40ClockCtlState *s = AW_R40_CCU(dev);
memset(s->regs, 0, sizeof(s->regs));
/* Set default values for registers */
s->regs[REG_INDEX(REG_PLL_CPUX_CTRL)] = 0x00001000;
s->regs[REG_INDEX(REG_PLL_AUDIO_CTRL)] = 0x00035514;
s->regs[REG_INDEX(REG_PLL_VIDEO0_CTRL)] = 0x03006207;
s->regs[REG_INDEX(REG_PLL_VE_CTRL)] = 0x03006207;
s->regs[REG_INDEX(REG_PLL_DDR0_CTRL)] = 0x00001000,
s->regs[REG_INDEX(REG_PLL_PERIPH0_CTRL)] = 0x00041811;
s->regs[REG_INDEX(REG_PLL_PERIPH1_CTRL)] = 0x00041811;
s->regs[REG_INDEX(REG_PLL_VIDEO1_CTRL)] = 0x03006207;
s->regs[REG_INDEX(REG_PLL_SATA_CTRL)] = 0x00001811;
s->regs[REG_INDEX(REG_PLL_GPU_CTRL)] = 0x03006207;
s->regs[REG_INDEX(REG_PLL_MIPI_CTRL)] = 0x00000515;
s->regs[REG_INDEX(REG_PLL_DE_CTRL)] = 0x03006207;
s->regs[REG_INDEX(REG_PLL_DDR1_CTRL)] = 0x00001800;
s->regs[REG_INDEX(REG_AHB1_APB1_CFG)] = 0x00001010;
s->regs[REG_INDEX(REG_APB2_CFG)] = 0x01000000;
s->regs[REG_INDEX(REG_PLL_DDR_AUX)] = 0x00000001;
s->regs[REG_INDEX(REG_PLL_DDR1_CFG)] = 0x0ccca000;
s->regs[REG_INDEX(REG_SYS_32K_CLK)] = 0x0000000f;
}
static void allwinner_r40_ccu_init(Object *obj)
{
SysBusDevice *sbd = SYS_BUS_DEVICE(obj);
AwR40ClockCtlState *s = AW_R40_CCU(obj);
/* Memory mapping */
memory_region_init_io(&s->iomem, OBJECT(s), &allwinner_r40_ccu_ops, s,
TYPE_AW_R40_CCU, AW_R40_CCU_IOSIZE);
sysbus_init_mmio(sbd, &s->iomem);
}
static const VMStateDescription allwinner_r40_ccu_vmstate = {
.name = "allwinner-r40-ccu",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT32_ARRAY(regs, AwR40ClockCtlState, AW_R40_CCU_REGS_NUM),
VMSTATE_END_OF_LIST()
}
};
static void allwinner_r40_ccu_class_init(ObjectClass *klass, void *data)
{
DeviceClass *dc = DEVICE_CLASS(klass);
dc->reset = allwinner_r40_ccu_reset;
dc->vmsd = &allwinner_r40_ccu_vmstate;
}
static const TypeInfo allwinner_r40_ccu_info = {
.name = TYPE_AW_R40_CCU,
.parent = TYPE_SYS_BUS_DEVICE,
.instance_init = allwinner_r40_ccu_init,
.instance_size = sizeof(AwR40ClockCtlState),
.class_init = allwinner_r40_ccu_class_init,
};
static void allwinner_r40_ccu_register(void)
{
type_register_static(&allwinner_r40_ccu_info);
}
type_init(allwinner_r40_ccu_register)

513
hw/misc/allwinner-r40-dramc.c Normal file
View File

@ -0,0 +1,513 @@
/*
* Allwinner R40 SDRAM Controller emulation
*
* CCopyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "qemu/osdep.h"
#include "qemu/units.h"
#include "qemu/error-report.h"
#include "hw/sysbus.h"
#include "migration/vmstate.h"
#include "qemu/log.h"
#include "qemu/module.h"
#include "exec/address-spaces.h"
#include "hw/qdev-properties.h"
#include "qapi/error.h"
#include "qemu/bitops.h"
#include "hw/misc/allwinner-r40-dramc.h"
#include "trace.h"
#define REG_INDEX(offset) (offset / sizeof(uint32_t))
/* DRAMCOM register offsets */
enum {
REG_DRAMCOM_CR = 0x0000, /* Control Register */
};
/* DRAMCOMM register flags */
enum {
REG_DRAMCOM_CR_DUAL_RANK = (1 << 0),
};
/* DRAMCTL register offsets */
enum {
REG_DRAMCTL_PIR = 0x0000, /* PHY Initialization Register */
REG_DRAMCTL_PGSR = 0x0010, /* PHY General Status Register */
REG_DRAMCTL_STATR = 0x0018, /* Status Register */
REG_DRAMCTL_PGCR = 0x0100, /* PHY general configuration registers */
};
/* DRAMCTL register flags */
enum {
REG_DRAMCTL_PGSR_INITDONE = (1 << 0),
REG_DRAMCTL_PGSR_READ_TIMEOUT = (1 << 13),
REG_DRAMCTL_PGCR_ENABLE_READ_TIMEOUT = (1 << 25),
};
enum {
REG_DRAMCTL_STATR_ACTIVE = (1 << 0),
};
#define DRAM_MAX_ROW_BITS 16
#define DRAM_MAX_COL_BITS 13 /* 8192 */
#define DRAM_MAX_BANK 3
static uint64_t dram_autodetect_cells[DRAM_MAX_ROW_BITS]
[DRAM_MAX_BANK]
[DRAM_MAX_COL_BITS];
struct VirtualDDRChip {
uint32_t ram_size;
uint8_t bank_bits;
uint8_t row_bits;
uint8_t col_bits;
};
/*
* Only power of 2 RAM sizes from 256MiB up to 2048MiB are supported,
* 2GiB memory is not supported due to dual rank feature.
*/
static const struct VirtualDDRChip dummy_ddr_chips[] = {
{
.ram_size = 256,
.bank_bits = 3,
.row_bits = 12,
.col_bits = 13,
}, {
.ram_size = 512,
.bank_bits = 3,
.row_bits = 13,
.col_bits = 13,
}, {
.ram_size = 1024,
.bank_bits = 3,
.row_bits = 14,
.col_bits = 13,
}, {
0
}
};
static const struct VirtualDDRChip *get_match_ddr(uint32_t ram_size)
{
const struct VirtualDDRChip *ddr;
for (ddr = &dummy_ddr_chips[0]; ddr->ram_size; ddr++) {
if (ddr->ram_size == ram_size) {
return ddr;
}
}
return NULL;
}
static uint64_t *address_to_autodetect_cells(AwR40DramCtlState *s,
const struct VirtualDDRChip *ddr,
uint32_t offset)
{
int row_index = 0, bank_index = 0, col_index = 0;
uint32_t row_addr, bank_addr, col_addr;
row_addr = extract32(offset, s->set_col_bits + s->set_bank_bits,
s->set_row_bits);
bank_addr = extract32(offset, s->set_col_bits, s->set_bank_bits);
col_addr = extract32(offset, 0, s->set_col_bits);
for (int i = 0; i < ddr->row_bits; i++) {
if (row_addr & BIT(i)) {
row_index = i;
}
}
for (int i = 0; i < ddr->bank_bits; i++) {
if (bank_addr & BIT(i)) {
bank_index = i;
}
}
for (int i = 0; i < ddr->col_bits; i++) {
if (col_addr & BIT(i)) {
col_index = i;
}
}
trace_allwinner_r40_dramc_offset_to_cell(offset, row_index, bank_index,
col_index);
return &dram_autodetect_cells[row_index][bank_index][col_index];
}
static void allwinner_r40_dramc_map_rows(AwR40DramCtlState *s, uint8_t row_bits,
uint8_t bank_bits, uint8_t col_bits)
{
const struct VirtualDDRChip *ddr = get_match_ddr(s->ram_size);
bool enable_detect_cells;
trace_allwinner_r40_dramc_map_rows(row_bits, bank_bits, col_bits);
if (!ddr) {
return;
}
s->set_row_bits = row_bits;
s->set_bank_bits = bank_bits;
s->set_col_bits = col_bits;
enable_detect_cells = ddr->bank_bits != bank_bits
|| ddr->row_bits != row_bits
|| ddr->col_bits != col_bits;
if (enable_detect_cells) {
trace_allwinner_r40_dramc_detect_cells_enable();
} else {
trace_allwinner_r40_dramc_detect_cells_disable();
}
memory_region_set_enabled(&s->detect_cells, enable_detect_cells);
}
static uint64_t allwinner_r40_dramcom_read(void *opaque, hwaddr offset,
unsigned size)
{
const AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const uint32_t idx = REG_INDEX(offset);
if (idx >= AW_R40_DRAMCOM_REGS_NUM) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return 0;
}
trace_allwinner_r40_dramcom_read(offset, s->dramcom[idx], size);
return s->dramcom[idx];
}
static void allwinner_r40_dramcom_write(void *opaque, hwaddr offset,
uint64_t val, unsigned size)
{
AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const uint32_t idx = REG_INDEX(offset);
trace_allwinner_r40_dramcom_write(offset, val, size);
if (idx >= AW_R40_DRAMCOM_REGS_NUM) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return;
}
switch (offset) {
case REG_DRAMCOM_CR: /* Control Register */
if (!(val & REG_DRAMCOM_CR_DUAL_RANK)) {
allwinner_r40_dramc_map_rows(s, ((val >> 4) & 0xf) + 1,
((val >> 2) & 0x1) + 2,
(((val >> 8) & 0xf) + 3));
}
break;
};
s->dramcom[idx] = (uint32_t) val;
}
static uint64_t allwinner_r40_dramctl_read(void *opaque, hwaddr offset,
unsigned size)
{
const AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const uint32_t idx = REG_INDEX(offset);
if (idx >= AW_R40_DRAMCTL_REGS_NUM) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return 0;
}
trace_allwinner_r40_dramctl_read(offset, s->dramctl[idx], size);
return s->dramctl[idx];
}
static void allwinner_r40_dramctl_write(void *opaque, hwaddr offset,
uint64_t val, unsigned size)
{
AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const uint32_t idx = REG_INDEX(offset);
trace_allwinner_r40_dramctl_write(offset, val, size);
if (idx >= AW_R40_DRAMCTL_REGS_NUM) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return;
}
switch (offset) {
case REG_DRAMCTL_PIR: /* PHY Initialization Register */
s->dramctl[REG_INDEX(REG_DRAMCTL_PGSR)] |= REG_DRAMCTL_PGSR_INITDONE;
s->dramctl[REG_INDEX(REG_DRAMCTL_STATR)] |= REG_DRAMCTL_STATR_ACTIVE;
break;
}
s->dramctl[idx] = (uint32_t) val;
}
static uint64_t allwinner_r40_dramphy_read(void *opaque, hwaddr offset,
unsigned size)
{
const AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const uint32_t idx = REG_INDEX(offset);
if (idx >= AW_R40_DRAMPHY_REGS_NUM) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return 0;
}
trace_allwinner_r40_dramphy_read(offset, s->dramphy[idx], size);
return s->dramphy[idx];
}
static void allwinner_r40_dramphy_write(void *opaque, hwaddr offset,
uint64_t val, unsigned size)
{
AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const uint32_t idx = REG_INDEX(offset);
trace_allwinner_r40_dramphy_write(offset, val, size);
if (idx >= AW_R40_DRAMPHY_REGS_NUM) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return;
}
s->dramphy[idx] = (uint32_t) val;
}
static const MemoryRegionOps allwinner_r40_dramcom_ops = {
.read = allwinner_r40_dramcom_read,
.write = allwinner_r40_dramcom_write,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
static const MemoryRegionOps allwinner_r40_dramctl_ops = {
.read = allwinner_r40_dramctl_read,
.write = allwinner_r40_dramctl_write,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
static const MemoryRegionOps allwinner_r40_dramphy_ops = {
.read = allwinner_r40_dramphy_read,
.write = allwinner_r40_dramphy_write,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
static uint64_t allwinner_r40_detect_read(void *opaque, hwaddr offset,
unsigned size)
{
AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const struct VirtualDDRChip *ddr = get_match_ddr(s->ram_size);
uint64_t data = 0;
if (ddr) {
data = *address_to_autodetect_cells(s, ddr, (uint32_t)offset);
}
trace_allwinner_r40_dramc_detect_cell_read(offset, data);
return data;
}
static void allwinner_r40_detect_write(void *opaque, hwaddr offset,
uint64_t data, unsigned size)
{
AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
const struct VirtualDDRChip *ddr = get_match_ddr(s->ram_size);
if (ddr) {
uint64_t *cell = address_to_autodetect_cells(s, ddr, (uint32_t)offset);
trace_allwinner_r40_dramc_detect_cell_write(offset, data);
*cell = data;
}
}
static const MemoryRegionOps allwinner_r40_detect_ops = {
.read = allwinner_r40_detect_read,
.write = allwinner_r40_detect_write,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
/*
* mctl_r40_detect_rank_count in u-boot will write the high 1G of DDR
* to detect wether the board support dual_rank or not. Create a virtual memory
* if the board's ram_size less or equal than 1G, and set read time out flag of
* REG_DRAMCTL_PGSR when the user touch this high dram.
*/
static uint64_t allwinner_r40_dualrank_detect_read(void *opaque, hwaddr offset,
unsigned size)
{
AwR40DramCtlState *s = AW_R40_DRAMC(opaque);
uint32_t reg;
reg = s->dramctl[REG_INDEX(REG_DRAMCTL_PGCR)];
if (reg & REG_DRAMCTL_PGCR_ENABLE_READ_TIMEOUT) { /* Enable read time out */
/*
* this driver only support one rank, mark READ_TIMEOUT when try
* read the second rank.
*/
s->dramctl[REG_INDEX(REG_DRAMCTL_PGSR)]
|= REG_DRAMCTL_PGSR_READ_TIMEOUT;
}
return 0;
}
static const MemoryRegionOps allwinner_r40_dualrank_detect_ops = {
.read = allwinner_r40_dualrank_detect_read,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
static void allwinner_r40_dramc_reset(DeviceState *dev)
{
AwR40DramCtlState *s = AW_R40_DRAMC(dev);
/* Set default values for registers */
memset(&s->dramcom, 0, sizeof(s->dramcom));
memset(&s->dramctl, 0, sizeof(s->dramctl));
memset(&s->dramphy, 0, sizeof(s->dramphy));
}
static void allwinner_r40_dramc_realize(DeviceState *dev, Error **errp)
{
AwR40DramCtlState *s = AW_R40_DRAMC(dev);
if (!get_match_ddr(s->ram_size)) {
error_report("%s: ram-size %u MiB is not supported",
__func__, s->ram_size);
exit(1);
}
/* detect_cells */
sysbus_mmio_map_overlap(SYS_BUS_DEVICE(s), 3, s->ram_addr, 10);
memory_region_set_enabled(&s->detect_cells, false);
/*
* We only support DRAM size up to 1G now, so prepare a high memory page
* after 1G for dualrank detect. index = 4
*/
memory_region_init_io(&s->dram_high, OBJECT(s),
&allwinner_r40_dualrank_detect_ops, s,
"DRAMHIGH", KiB);
sysbus_init_mmio(SYS_BUS_DEVICE(s), &s->dram_high);
sysbus_mmio_map(SYS_BUS_DEVICE(s), 4, s->ram_addr + GiB);
}
static void allwinner_r40_dramc_init(Object *obj)
{
SysBusDevice *sbd = SYS_BUS_DEVICE(obj);
AwR40DramCtlState *s = AW_R40_DRAMC(obj);
/* DRAMCOM registers, index 0 */
memory_region_init_io(&s->dramcom_iomem, OBJECT(s),
&allwinner_r40_dramcom_ops, s,
"DRAMCOM", 4 * KiB);
sysbus_init_mmio(sbd, &s->dramcom_iomem);
/* DRAMCTL registers, index 1 */
memory_region_init_io(&s->dramctl_iomem, OBJECT(s),
&allwinner_r40_dramctl_ops, s,
"DRAMCTL", 4 * KiB);
sysbus_init_mmio(sbd, &s->dramctl_iomem);
/* DRAMPHY registers. index 2 */
memory_region_init_io(&s->dramphy_iomem, OBJECT(s),
&allwinner_r40_dramphy_ops, s,
"DRAMPHY", 4 * KiB);
sysbus_init_mmio(sbd, &s->dramphy_iomem);
/* R40 support max 2G memory but we only support up to 1G now. index 3 */
memory_region_init_io(&s->detect_cells, OBJECT(s),
&allwinner_r40_detect_ops, s,
"DRAMCELLS", 1 * GiB);
sysbus_init_mmio(sbd, &s->detect_cells);
}
static Property allwinner_r40_dramc_properties[] = {
DEFINE_PROP_UINT64("ram-addr", AwR40DramCtlState, ram_addr, 0x0),
DEFINE_PROP_UINT32("ram-size", AwR40DramCtlState, ram_size, 256), /* MiB */
DEFINE_PROP_END_OF_LIST()
};
static const VMStateDescription allwinner_r40_dramc_vmstate = {
.name = "allwinner-r40-dramc",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT32_ARRAY(dramcom, AwR40DramCtlState,
AW_R40_DRAMCOM_REGS_NUM),
VMSTATE_UINT32_ARRAY(dramctl, AwR40DramCtlState,
AW_R40_DRAMCTL_REGS_NUM),
VMSTATE_UINT32_ARRAY(dramphy, AwR40DramCtlState,
AW_R40_DRAMPHY_REGS_NUM),
VMSTATE_END_OF_LIST()
}
};
static void allwinner_r40_dramc_class_init(ObjectClass *klass, void *data)
{
DeviceClass *dc = DEVICE_CLASS(klass);
dc->reset = allwinner_r40_dramc_reset;
dc->vmsd = &allwinner_r40_dramc_vmstate;
dc->realize = allwinner_r40_dramc_realize;
device_class_set_props(dc, allwinner_r40_dramc_properties);
}
static const TypeInfo allwinner_r40_dramc_info = {
.name = TYPE_AW_R40_DRAMC,
.parent = TYPE_SYS_BUS_DEVICE,
.instance_init = allwinner_r40_dramc_init,
.instance_size = sizeof(AwR40DramCtlState),
.class_init = allwinner_r40_dramc_class_init,
};
static void allwinner_r40_dramc_register(void)
{
type_register_static(&allwinner_r40_dramc_info);
}
type_init(allwinner_r40_dramc_register)

184
hw/misc/allwinner-sramc.c Normal file
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@ -0,0 +1,184 @@
/*
* Allwinner R40 SRAM controller emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "qemu/osdep.h"
#include "qemu/units.h"
#include "hw/sysbus.h"
#include "migration/vmstate.h"
#include "qemu/log.h"
#include "qemu/module.h"
#include "qapi/error.h"
#include "hw/qdev-properties.h"
#include "hw/qdev-properties-system.h"
#include "hw/misc/allwinner-sramc.h"
#include "trace.h"
/*
* register offsets
* https://linux-sunxi.org/SRAM_Controller_Register_Guide
*/
enum {
REG_SRAM_CTL1_CFG = 0x04, /* SRAM Control register 1 */
REG_SRAM_VER = 0x24, /* SRAM Version register */
REG_SRAM_R40_SOFT_ENTRY_REG0 = 0xbc,
};
/* REG_SRAMC_VERSION bit defines */
#define SRAM_VER_READ_ENABLE (1 << 15)
#define SRAM_VER_VERSION_SHIFT 16
#define SRAM_VERSION_SUN8I_R40 0x1701
static uint64_t allwinner_sramc_read(void *opaque, hwaddr offset,
unsigned size)
{
AwSRAMCState *s = AW_SRAMC(opaque);
AwSRAMCClass *sc = AW_SRAMC_GET_CLASS(s);
uint64_t val = 0;
switch (offset) {
case REG_SRAM_CTL1_CFG:
val = s->sram_ctl1;
break;
case REG_SRAM_VER:
/* bit15: lock bit, set this bit before reading this register */
if (s->sram_ver & SRAM_VER_READ_ENABLE) {
val = SRAM_VER_READ_ENABLE |
(sc->sram_version_code << SRAM_VER_VERSION_SHIFT);
}
break;
case REG_SRAM_R40_SOFT_ENTRY_REG0:
val = s->sram_soft_entry_reg0;
break;
default:
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
return 0;
}
trace_allwinner_sramc_read(offset, val);
return val;
}
static void allwinner_sramc_write(void *opaque, hwaddr offset,
uint64_t val, unsigned size)
{
AwSRAMCState *s = AW_SRAMC(opaque);
trace_allwinner_sramc_write(offset, val);
switch (offset) {
case REG_SRAM_CTL1_CFG:
s->sram_ctl1 = val;
break;
case REG_SRAM_VER:
/* Only the READ_ENABLE bit is writeable */
s->sram_ver = val & SRAM_VER_READ_ENABLE;
break;
case REG_SRAM_R40_SOFT_ENTRY_REG0:
s->sram_soft_entry_reg0 = val;
break;
default:
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset 0x%04x\n",
__func__, (uint32_t)offset);
break;
}
}
static const MemoryRegionOps allwinner_sramc_ops = {
.read = allwinner_sramc_read,
.write = allwinner_sramc_write,
.endianness = DEVICE_NATIVE_ENDIAN,
.valid = {
.min_access_size = 4,
.max_access_size = 4,
},
.impl.min_access_size = 4,
};
static const VMStateDescription allwinner_sramc_vmstate = {
.name = "allwinner-sramc",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT32(sram_ver, AwSRAMCState),
VMSTATE_UINT32(sram_soft_entry_reg0, AwSRAMCState),
VMSTATE_END_OF_LIST()
}
};
static void allwinner_sramc_reset(DeviceState *dev)
{
AwSRAMCState *s = AW_SRAMC(dev);
AwSRAMCClass *sc = AW_SRAMC_GET_CLASS(s);
switch (sc->sram_version_code) {
case SRAM_VERSION_SUN8I_R40:
s->sram_ctl1 = 0x1300;
break;
}
}
static void allwinner_sramc_class_init(ObjectClass *klass, void *data)
{
DeviceClass *dc = DEVICE_CLASS(klass);
dc->reset = allwinner_sramc_reset;
dc->vmsd = &allwinner_sramc_vmstate;
}
static void allwinner_sramc_init(Object *obj)
{
SysBusDevice *sbd = SYS_BUS_DEVICE(obj);
AwSRAMCState *s = AW_SRAMC(obj);
/* Memory mapping */
memory_region_init_io(&s->iomem, OBJECT(s), &allwinner_sramc_ops, s,
TYPE_AW_SRAMC, 1 * KiB);
sysbus_init_mmio(sbd, &s->iomem);
}
static const TypeInfo allwinner_sramc_info = {
.name = TYPE_AW_SRAMC,
.parent = TYPE_SYS_BUS_DEVICE,
.instance_init = allwinner_sramc_init,
.instance_size = sizeof(AwSRAMCState),
.class_init = allwinner_sramc_class_init,
};
static void allwinner_r40_sramc_class_init(ObjectClass *klass, void *data)
{
AwSRAMCClass *sc = AW_SRAMC_CLASS(klass);
sc->sram_version_code = SRAM_VERSION_SUN8I_R40;
}
static const TypeInfo allwinner_r40_sramc_info = {
.name = TYPE_AW_SRAMC_SUN8I_R40,
.parent = TYPE_AW_SRAMC,
.class_init = allwinner_r40_sramc_class_init,
};
static void allwinner_sramc_register(void)
{
type_register_static(&allwinner_sramc_info);
type_register_static(&allwinner_r40_sramc_info);
}
type_init(allwinner_sramc_register)

238
hw/misc/axp209.c
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@ -1,238 +0,0 @@
/*
* AXP-209 PMU Emulation
*
* Copyright (C) 2022 Strahinja Jankovic <strahinja.p.jankovic@gmail.com>
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
* DEALINGS IN THE SOFTWARE.
*
* SPDX-License-Identifier: MIT
*/
#include "qemu/osdep.h"
#include "qemu/log.h"
#include "trace.h"
#include "hw/i2c/i2c.h"
#include "migration/vmstate.h"
#define TYPE_AXP209_PMU "axp209_pmu"
#define AXP209(obj) \
OBJECT_CHECK(AXP209I2CState, (obj), TYPE_AXP209_PMU)
/* registers */
enum {
REG_POWER_STATUS = 0x0u,
REG_OPERATING_MODE,
REG_OTG_VBUS_STATUS,
REG_CHIP_VERSION,
REG_DATA_CACHE_0,
REG_DATA_CACHE_1,
REG_DATA_CACHE_2,
REG_DATA_CACHE_3,
REG_DATA_CACHE_4,
REG_DATA_CACHE_5,
REG_DATA_CACHE_6,
REG_DATA_CACHE_7,
REG_DATA_CACHE_8,
REG_DATA_CACHE_9,
REG_DATA_CACHE_A,
REG_DATA_CACHE_B,
REG_POWER_OUTPUT_CTRL = 0x12u,
REG_DC_DC2_OUT_V_CTRL = 0x23u,
REG_DC_DC2_DVS_CTRL = 0x25u,
REG_DC_DC3_OUT_V_CTRL = 0x27u,
REG_LDO2_4_OUT_V_CTRL,
REG_LDO3_OUT_V_CTRL,
REG_VBUS_CH_MGMT = 0x30u,
REG_SHUTDOWN_V_CTRL,
REG_SHUTDOWN_CTRL,
REG_CHARGE_CTRL_1,
REG_CHARGE_CTRL_2,
REG_SPARE_CHARGE_CTRL,
REG_PEK_KEY_CTRL,
REG_DC_DC_FREQ_SET,
REG_CHR_TEMP_TH_SET,
REG_CHR_HIGH_TEMP_TH_CTRL,
REG_IPSOUT_WARN_L1,
REG_IPSOUT_WARN_L2,
REG_DISCHR_TEMP_TH_SET,
REG_DISCHR_HIGH_TEMP_TH_CTRL,
REG_IRQ_BANK_1_CTRL = 0x40u,
REG_IRQ_BANK_2_CTRL,
REG_IRQ_BANK_3_CTRL,
REG_IRQ_BANK_4_CTRL,
REG_IRQ_BANK_5_CTRL,
REG_IRQ_BANK_1_STAT = 0x48u,
REG_IRQ_BANK_2_STAT,
REG_IRQ_BANK_3_STAT,
REG_IRQ_BANK_4_STAT,
REG_IRQ_BANK_5_STAT,
REG_ADC_ACIN_V_H = 0x56u,
REG_ADC_ACIN_V_L,
REG_ADC_ACIN_CURR_H,
REG_ADC_ACIN_CURR_L,
REG_ADC_VBUS_V_H,
REG_ADC_VBUS_V_L,
REG_ADC_VBUS_CURR_H,
REG_ADC_VBUS_CURR_L,
REG_ADC_INT_TEMP_H,
REG_ADC_INT_TEMP_L,
REG_ADC_TEMP_SENS_V_H = 0x62u,
REG_ADC_TEMP_SENS_V_L,
REG_ADC_BAT_V_H = 0x78u,
REG_ADC_BAT_V_L,
REG_ADC_BAT_DISCHR_CURR_H,
REG_ADC_BAT_DISCHR_CURR_L,
REG_ADC_BAT_CHR_CURR_H,
REG_ADC_BAT_CHR_CURR_L,
REG_ADC_IPSOUT_V_H,
REG_ADC_IPSOUT_V_L,
REG_DC_DC_MOD_SEL = 0x80u,
REG_ADC_EN_1,
REG_ADC_EN_2,
REG_ADC_SR_CTRL,
REG_ADC_IN_RANGE,
REG_GPIO1_ADC_IRQ_RISING_TH,
REG_GPIO1_ADC_IRQ_FALLING_TH,
REG_TIMER_CTRL = 0x8au,
REG_VBUS_CTRL_MON_SRP,
REG_OVER_TEMP_SHUTDOWN = 0x8fu,
REG_GPIO0_FEAT_SET,
REG_GPIO_OUT_HIGH_SET,
REG_GPIO1_FEAT_SET,
REG_GPIO2_FEAT_SET,
REG_GPIO_SIG_STATE_SET_MON,
REG_GPIO3_SET,
REG_COULOMB_CNTR_CTRL = 0xb8u,
REG_POWER_MEAS_RES,
NR_REGS
};
#define AXP209_CHIP_VERSION_ID (0x01)
#define AXP209_DC_DC2_OUT_V_CTRL_RESET (0x16)
#define AXP209_IRQ_BANK_1_CTRL_RESET (0xd8)
/* A simple I2C slave which returns values of ID or CNT register. */
typedef struct AXP209I2CState {
/*< private >*/
I2CSlave i2c;
/*< public >*/
uint8_t regs[NR_REGS]; /* peripheral registers */
uint8_t ptr; /* current register index */
uint8_t count; /* counter used for tx/rx */
} AXP209I2CState;
/* Reset all counters and load ID register */
static void axp209_reset_enter(Object *obj, ResetType type)
{
AXP209I2CState *s = AXP209(obj);
memset(s->regs, 0, NR_REGS);
s->ptr = 0;
s->count = 0;
s->regs[REG_CHIP_VERSION] = AXP209_CHIP_VERSION_ID;
s->regs[REG_DC_DC2_OUT_V_CTRL] = AXP209_DC_DC2_OUT_V_CTRL_RESET;
s->regs[REG_IRQ_BANK_1_CTRL] = AXP209_IRQ_BANK_1_CTRL_RESET;
}
/* Handle events from master. */
static int axp209_event(I2CSlave *i2c, enum i2c_event event)
{
AXP209I2CState *s = AXP209(i2c);
s->count = 0;
return 0;
}
/* Called when master requests read */
static uint8_t axp209_rx(I2CSlave *i2c)
{
AXP209I2CState *s = AXP209(i2c);
uint8_t ret = 0xff;
if (s->ptr < NR_REGS) {
ret = s->regs[s->ptr++];
}
trace_axp209_rx(s->ptr - 1, ret);
return ret;
}
/*
* Called when master sends write.
* Update ptr with byte 0, then perform write with second byte.
*/
static int axp209_tx(I2CSlave *i2c, uint8_t data)
{
AXP209I2CState *s = AXP209(i2c);
if (s->count == 0) {
/* Store register address */
s->ptr = data;
s->count++;
trace_axp209_select(data);
} else {
trace_axp209_tx(s->ptr, data);
if (s->ptr == REG_DC_DC2_OUT_V_CTRL) {
s->regs[s->ptr++] = data;
}
}
return 0;
}
static const VMStateDescription vmstate_axp209 = {
.name = TYPE_AXP209_PMU,
.version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT8_ARRAY(regs, AXP209I2CState, NR_REGS),
VMSTATE_UINT8(count, AXP209I2CState),
VMSTATE_UINT8(ptr, AXP209I2CState),
VMSTATE_END_OF_LIST()
}
};
static void axp209_class_init(ObjectClass *oc, void *data)
{
DeviceClass *dc = DEVICE_CLASS(oc);
I2CSlaveClass *isc = I2C_SLAVE_CLASS(oc);
ResettableClass *rc = RESETTABLE_CLASS(oc);
rc->phases.enter = axp209_reset_enter;
dc->vmsd = &vmstate_axp209;
isc->event = axp209_event;
isc->recv = axp209_rx;
isc->send = axp209_tx;
}
static const TypeInfo axp209_info = {
.name = TYPE_AXP209_PMU,
.parent = TYPE_I2C_SLAVE,
.instance_size = sizeof(AXP209I2CState),
.class_init = axp209_class_init
};
static void axp209_register_devices(void)
{
type_register_static(&axp209_info);
}
type_init(axp209_register_devices);

283
hw/misc/axp2xx.c Normal file
View File

@ -0,0 +1,283 @@
/*
* AXP-2XX PMU Emulation, supported lists:
* AXP209
* AXP221
*
* Copyright (C) 2022 Strahinja Jankovic <strahinja.p.jankovic@gmail.com>
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
* DEALINGS IN THE SOFTWARE.
*
* SPDX-License-Identifier: MIT
*/
#include "qemu/osdep.h"
#include "qemu/log.h"
#include "qom/object.h"
#include "trace.h"
#include "hw/i2c/i2c.h"
#include "migration/vmstate.h"
#define TYPE_AXP2XX "axp2xx_pmu"
#define TYPE_AXP209_PMU "axp209_pmu"
#define TYPE_AXP221_PMU "axp221_pmu"
OBJECT_DECLARE_TYPE(AXP2xxI2CState, AXP2xxClass, AXP2XX)
#define NR_REGS (0xff)
/* A simple I2C slave which returns values of ID or CNT register. */
typedef struct AXP2xxI2CState {
/*< private >*/
I2CSlave i2c;
/*< public >*/
uint8_t regs[NR_REGS]; /* peripheral registers */
uint8_t ptr; /* current register index */
uint8_t count; /* counter used for tx/rx */
} AXP2xxI2CState;
typedef struct AXP2xxClass {
/*< private >*/
I2CSlaveClass parent_class;
/*< public >*/
void (*reset_enter)(AXP2xxI2CState *s, ResetType type);
} AXP2xxClass;
#define AXP209_CHIP_VERSION_ID (0x01)
#define AXP209_DC_DC2_OUT_V_CTRL_RESET (0x16)
/* Reset all counters and load ID register */
static void axp209_reset_enter(AXP2xxI2CState *s, ResetType type)
{
memset(s->regs, 0, NR_REGS);
s->ptr = 0;
s->count = 0;
s->regs[0x03] = AXP209_CHIP_VERSION_ID;
s->regs[0x23] = AXP209_DC_DC2_OUT_V_CTRL_RESET;
s->regs[0x30] = 0x60;
s->regs[0x32] = 0x46;
s->regs[0x34] = 0x41;
s->regs[0x35] = 0x22;
s->regs[0x36] = 0x5d;
s->regs[0x37] = 0x08;
s->regs[0x38] = 0xa5;
s->regs[0x39] = 0x1f;
s->regs[0x3a] = 0x68;
s->regs[0x3b] = 0x5f;
s->regs[0x3c] = 0xfc;
s->regs[0x3d] = 0x16;
s->regs[0x40] = 0xd8;
s->regs[0x42] = 0xff;
s->regs[0x43] = 0x3b;
s->regs[0x80] = 0xe0;
s->regs[0x82] = 0x83;
s->regs[0x83] = 0x80;
s->regs[0x84] = 0x32;
s->regs[0x86] = 0xff;
s->regs[0x90] = 0x07;
s->regs[0x91] = 0xa0;
s->regs[0x92] = 0x07;
s->regs[0x93] = 0x07;
}
#define AXP221_PWR_STATUS_ACIN_PRESENT BIT(7)
#define AXP221_PWR_STATUS_ACIN_AVAIL BIT(6)
#define AXP221_PWR_STATUS_VBUS_PRESENT BIT(5)
#define AXP221_PWR_STATUS_VBUS_USED BIT(4)
#define AXP221_PWR_STATUS_BAT_CHARGING BIT(2)
#define AXP221_PWR_STATUS_ACIN_VBUS_POWERED BIT(1)
/* Reset all counters and load ID register */
static void axp221_reset_enter(AXP2xxI2CState *s, ResetType type)
{
memset(s->regs, 0, NR_REGS);
s->ptr = 0;
s->count = 0;
/* input power status register */
s->regs[0x00] = AXP221_PWR_STATUS_ACIN_PRESENT
| AXP221_PWR_STATUS_ACIN_AVAIL
| AXP221_PWR_STATUS_ACIN_VBUS_POWERED;
s->regs[0x01] = 0x00; /* no battery is connected */
/*
* CHIPID register, no documented on datasheet, but it is checked in
* u-boot spl. I had read it from AXP221s and got 0x06 value.
* So leave 06h here.
*/
s->regs[0x03] = 0x06;
s->regs[0x10] = 0xbf;
s->regs[0x13] = 0x01;
s->regs[0x30] = 0x60;
s->regs[0x31] = 0x03;
s->regs[0x32] = 0x43;
s->regs[0x33] = 0xc6;
s->regs[0x34] = 0x45;
s->regs[0x35] = 0x0e;
s->regs[0x36] = 0x5d;
s->regs[0x37] = 0x08;
s->regs[0x38] = 0xa5;
s->regs[0x39] = 0x1f;
s->regs[0x3c] = 0xfc;
s->regs[0x3d] = 0x16;
s->regs[0x80] = 0x80;
s->regs[0x82] = 0xe0;
s->regs[0x84] = 0x32;
s->regs[0x8f] = 0x01;
s->regs[0x90] = 0x07;
s->regs[0x91] = 0x1f;
s->regs[0x92] = 0x07;
s->regs[0x93] = 0x1f;
s->regs[0x40] = 0xd8;
s->regs[0x41] = 0xff;
s->regs[0x42] = 0x03;
s->regs[0x43] = 0x03;
s->regs[0xb8] = 0xc0;
s->regs[0xb9] = 0x64;
s->regs[0xe6] = 0xa0;
}
static void axp2xx_reset_enter(Object *obj, ResetType type)
{
AXP2xxI2CState *s = AXP2XX(obj);
AXP2xxClass *sc = AXP2XX_GET_CLASS(s);
sc->reset_enter(s, type);
}
/* Handle events from master. */
static int axp2xx_event(I2CSlave *i2c, enum i2c_event event)
{
AXP2xxI2CState *s = AXP2XX(i2c);
s->count = 0;
return 0;
}
/* Called when master requests read */
static uint8_t axp2xx_rx(I2CSlave *i2c)
{
AXP2xxI2CState *s = AXP2XX(i2c);
uint8_t ret = 0xff;
if (s->ptr < NR_REGS) {
ret = s->regs[s->ptr++];
}
trace_axp2xx_rx(s->ptr - 1, ret);
return ret;
}
/*
* Called when master sends write.
* Update ptr with byte 0, then perform write with second byte.
*/
static int axp2xx_tx(I2CSlave *i2c, uint8_t data)
{
AXP2xxI2CState *s = AXP2XX(i2c);
if (s->count == 0) {
/* Store register address */
s->ptr = data;
s->count++;
trace_axp2xx_select(data);
} else {
trace_axp2xx_tx(s->ptr, data);
s->regs[s->ptr++] = data;
}
return 0;
}
static const VMStateDescription vmstate_axp2xx = {
.name = TYPE_AXP2XX,
.version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT8_ARRAY(regs, AXP2xxI2CState, NR_REGS),
VMSTATE_UINT8(ptr, AXP2xxI2CState),
VMSTATE_UINT8(count, AXP2xxI2CState),
VMSTATE_END_OF_LIST()
}
};
static void axp2xx_class_init(ObjectClass *oc, void *data)
{
DeviceClass *dc = DEVICE_CLASS(oc);
I2CSlaveClass *isc = I2C_SLAVE_CLASS(oc);
ResettableClass *rc = RESETTABLE_CLASS(oc);
rc->phases.enter = axp2xx_reset_enter;
dc->vmsd = &vmstate_axp2xx;
isc->event = axp2xx_event;
isc->recv = axp2xx_rx;
isc->send = axp2xx_tx;
}
static const TypeInfo axp2xx_info = {
.name = TYPE_AXP2XX,
.parent = TYPE_I2C_SLAVE,
.instance_size = sizeof(AXP2xxI2CState),
.class_size = sizeof(AXP2xxClass),
.class_init = axp2xx_class_init,
.abstract = true,
};
static void axp209_class_init(ObjectClass *oc, void *data)
{
AXP2xxClass *sc = AXP2XX_CLASS(oc);
sc->reset_enter = axp209_reset_enter;
}
static const TypeInfo axp209_info = {
.name = TYPE_AXP209_PMU,
.parent = TYPE_AXP2XX,
.class_init = axp209_class_init
};
static void axp221_class_init(ObjectClass *oc, void *data)
{
AXP2xxClass *sc = AXP2XX_CLASS(oc);
sc->reset_enter = axp221_reset_enter;
}
static const TypeInfo axp221_info = {
.name = TYPE_AXP221_PMU,
.parent = TYPE_AXP2XX,
.class_init = axp221_class_init,
};
static void axp2xx_register_devices(void)
{
type_register_static(&axp2xx_info);
type_register_static(&axp209_info);
type_register_static(&axp221_info);
}
type_init(axp2xx_register_devices);

5
hw/misc/meson.build
View File

@ -37,6 +37,7 @@ subdir('macio')
softmmu_ss.add(when: 'CONFIG_IVSHMEM_DEVICE', if_true: files('ivshmem.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_SRAMC', if_true: files('allwinner-sramc.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_A10_CCM', if_true: files('allwinner-a10-ccm.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_A10_DRAMC', if_true: files('allwinner-a10-dramc.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_H3', if_true: files('allwinner-h3-ccu.c'))
@ -44,7 +45,9 @@ specific_ss.add(when: 'CONFIG_ALLWINNER_H3', if_true: files('allwinner-cpucfg.c'
softmmu_ss.add(when: 'CONFIG_ALLWINNER_H3', if_true: files('allwinner-h3-dramc.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_H3', if_true: files('allwinner-h3-sysctrl.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_H3', if_true: files('allwinner-sid.c'))
softmmu_ss.add(when: 'CONFIG_AXP209_PMU', if_true: files('axp209.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_R40', if_true: files('allwinner-r40-ccu.c'))
softmmu_ss.add(when: 'CONFIG_ALLWINNER_R40', if_true: files('allwinner-r40-dramc.c'))
softmmu_ss.add(when: 'CONFIG_AXP2XX_PMU', if_true: files('axp2xx.c'))
softmmu_ss.add(when: 'CONFIG_REALVIEW', if_true: files('arm_sysctl.c'))
softmmu_ss.add(when: 'CONFIG_NSERIES', if_true: files('cbus.c'))
softmmu_ss.add(when: 'CONFIG_ECCMEMCTL', if_true: files('eccmemctl.c'))

26
hw/misc/trace-events
View File

@ -15,18 +15,36 @@ allwinner_h3_dramctl_write(uint64_t offset, uint64_t data, unsigned size) "Write
allwinner_h3_dramphy_read(uint64_t offset, uint64_t data, unsigned size) "Read: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_h3_dramphy_write(uint64_t offset, uint64_t data, unsigned size) "write: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
# allwinner-r40-dramc.c
allwinner_r40_dramc_detect_cells_disable(void) "Disable detect cells"
allwinner_r40_dramc_detect_cells_enable(void) "Enable detect cells"
allwinner_r40_dramc_map_rows(uint8_t row_bits, uint8_t bank_bits, uint8_t col_bits) "DRAM layout: row_bits %d, bank_bits %d, col_bits %d"
allwinner_r40_dramc_offset_to_cell(uint64_t offset, int row, int bank, int col) "offset 0x%" PRIx64 " row %d bank %d col %d"
allwinner_r40_dramc_detect_cell_write(uint64_t offset, uint64_t data) "offset 0x%" PRIx64 " data 0x%" PRIx64 ""
allwinner_r40_dramc_detect_cell_read(uint64_t offset, uint64_t data) "offset 0x%" PRIx64 " data 0x%" PRIx64 ""
allwinner_r40_dramcom_read(uint64_t offset, uint64_t data, unsigned size) "Read: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_r40_dramcom_write(uint64_t offset, uint64_t data, unsigned size) "Write: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_r40_dramctl_read(uint64_t offset, uint64_t data, unsigned size) "Read: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_r40_dramctl_write(uint64_t offset, uint64_t data, unsigned size) "Write: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_r40_dramphy_read(uint64_t offset, uint64_t data, unsigned size) "Read: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_r40_dramphy_write(uint64_t offset, uint64_t data, unsigned size) "write: offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
# allwinner-sid.c
allwinner_sid_read(uint64_t offset, uint64_t data, unsigned size) "offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
allwinner_sid_write(uint64_t offset, uint64_t data, unsigned size) "offset 0x%" PRIx64 " data 0x%" PRIx64 " size %" PRIu32
# allwinner-sramc.c
allwinner_sramc_read(uint64_t offset, uint64_t data) "offset 0x%" PRIx64 " data 0x%" PRIx64
allwinner_sramc_write(uint64_t offset, uint64_t data) "offset 0x%" PRIx64 " data 0x%" PRIx64
# avr_power.c
avr_power_read(uint8_t value) "power_reduc read value:%u"
avr_power_write(uint8_t value) "power_reduc write value:%u"
# axp209.c
axp209_rx(uint8_t reg, uint8_t data) "Read reg 0x%" PRIx8 " : 0x%" PRIx8
axp209_select(uint8_t reg) "Accessing reg 0x%" PRIx8
axp209_tx(uint8_t reg, uint8_t data) "Write reg 0x%" PRIx8 " : 0x%" PRIx8
# axp2xx
axp2xx_rx(uint8_t reg, uint8_t data) "Read reg 0x%" PRIx8 " : 0x%" PRIx8
axp2xx_select(uint8_t reg) "Accessing reg 0x%" PRIx8
axp2xx_tx(uint8_t reg, uint8_t data) "Write reg 0x%" PRIx8 " : 0x%" PRIx8
# eccmemctl.c
ecc_mem_writel_mer(uint32_t val) "Write memory enable 0x%08x"

1
hw/net/can/meson.build
View File

@ -5,3 +5,4 @@ softmmu_ss.add(when: 'CONFIG_CAN_PCI', if_true: files('can_mioe3680_pci.c'))
softmmu_ss.add(when: 'CONFIG_CAN_CTUCANFD', if_true: files('ctucan_core.c'))
softmmu_ss.add(when: 'CONFIG_CAN_CTUCANFD_PCI', if_true: files('ctucan_pci.c'))
softmmu_ss.add(when: 'CONFIG_XLNX_ZYNQMP', if_true: files('xlnx-zynqmp-can.c'))
softmmu_ss.add(when: 'CONFIG_XLNX_VERSAL', if_true: files('xlnx-versal-canfd.c'))

7
hw/net/can/trace-events
View File

@ -7,3 +7,10 @@ xlnx_can_filter_mask_pre_write(uint8_t filter_num, uint32_t value) "Filter%d MAS
xlnx_can_tx_data(uint32_t id, uint8_t dlc, uint8_t db0, uint8_t db1, uint8_t db2, uint8_t db3, uint8_t db4, uint8_t db5, uint8_t db6, uint8_t db7) "Frame: ID: 0x%08x DLC: 0x%02x DATA: 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x"
xlnx_can_rx_data(uint32_t id, uint32_t dlc, uint8_t db0, uint8_t db1, uint8_t db2, uint8_t db3, uint8_t db4, uint8_t db5, uint8_t db6, uint8_t db7) "Frame: ID: 0x%08x DLC: 0x%02x DATA: 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x"
xlnx_can_rx_discard(uint32_t status) "Controller is not enabled for bus communication. Status Register: 0x%08x"
# xlnx-versal-canfd.c
xlnx_canfd_update_irq(char *path, uint32_t isr, uint32_t ier, uint32_t irq) "%s: ISR: 0x%08x IER: 0x%08x IRQ: 0x%08x"
xlnx_canfd_rx_fifo_filter_reject(char *path, uint32_t id, uint8_t dlc) "%s: Frame: ID: 0x%08x DLC: 0x%02x"
xlnx_canfd_rx_data(char *path, uint32_t id, uint8_t dlc, uint8_t flags) "%s: Frame: ID: 0x%08x DLC: 0x%02x CANFD Flag: 0x%02x"
xlnx_canfd_tx_data(char *path, uint32_t id, uint8_t dlc, uint8_t flgas) "%s: Frame: ID: 0x%08x DLC: 0x%02x CANFD Flag: 0x%02x"
xlnx_canfd_reset(char *path, uint32_t val) "%s: Resetting controller with value = 0x%08x"

2107
hw/net/can/xlnx-versal-canfd.c Normal file
View File

File diff suppressed because it is too large Load Diff

72
hw/sd/allwinner-sdhost.c
View File

@ -77,6 +77,7 @@ enum {
REG_SD_DATA1_CRC = 0x12C, /* CRC Data 1 from card/eMMC */
REG_SD_DATA0_CRC = 0x130, /* CRC Data 0 from card/eMMC */
REG_SD_CRC_STA = 0x134, /* CRC status from card/eMMC during write */
REG_SD_SAMP_DL = 0x144, /* Sample Delay Control (sun50i-a64) */
REG_SD_FIFO = 0x200, /* Read/Write FIFO */
};
@ -158,6 +159,7 @@ enum {
REG_SD_RES_CRC_RST = 0x0,
REG_SD_DATA_CRC_RST = 0x0,
REG_SD_CRC_STA_RST = 0x0,
REG_SD_SAMPLE_DL_RST = 0x00002000,
REG_SD_FIFO_RST = 0x0,
};
@ -459,6 +461,7 @@ static uint64_t allwinner_sdhost_read(void *opaque, hwaddr offset,
{
AwSdHostState *s = AW_SDHOST(opaque);
AwSdHostClass *sc = AW_SDHOST_GET_CLASS(s);
bool out_of_bounds = false;
uint32_t res = 0;
switch (offset) {
@ -577,13 +580,24 @@ static uint64_t allwinner_sdhost_read(void *opaque, hwaddr offset,
case REG_SD_FIFO: /* Read/Write FIFO */
res = allwinner_sdhost_fifo_read(s);
break;
case REG_SD_SAMP_DL: /* Sample Delay */
if (sc->can_calibrate) {
res = s->sample_delay;
} else {
out_of_bounds = true;
}
break;
default:
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset %"
HWADDR_PRIx"\n", __func__, offset);
out_of_bounds = true;
res = 0;
break;
}
if (out_of_bounds) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset %"
HWADDR_PRIx"\n", __func__, offset);
}
trace_allwinner_sdhost_read(offset, res, size);
return res;
}
@ -602,6 +616,7 @@ static void allwinner_sdhost_write(void *opaque, hwaddr offset,
{
AwSdHostState *s = AW_SDHOST(opaque);
AwSdHostClass *sc = AW_SDHOST_GET_CLASS(s);
bool out_of_bounds = false;
trace_allwinner_sdhost_write(offset, value, size);
@ -725,10 +740,21 @@ static void allwinner_sdhost_write(void *opaque, hwaddr offset,
case REG_SD_DATA0_CRC: /* CRC Data 0 from card/eMMC */
case REG_SD_CRC_STA: /* CRC status from card/eMMC in write operation */
break;
case REG_SD_SAMP_DL: /* Sample delay control */
if (sc->can_calibrate) {
s->sample_delay = value;
} else {
out_of_bounds = true;
}
break;
default:
out_of_bounds = true;
break;
}
if (out_of_bounds) {
qemu_log_mask(LOG_GUEST_ERROR, "%s: out-of-bounds offset %"
HWADDR_PRIx"\n", __func__, offset);
break;
}
}
@ -777,6 +803,7 @@ static const VMStateDescription vmstate_allwinner_sdhost = {
VMSTATE_UINT32(response_crc, AwSdHostState),
VMSTATE_UINT32_ARRAY(data_crc, AwSdHostState, 8),
VMSTATE_UINT32(status_crc, AwSdHostState),
VMSTATE_UINT32(sample_delay, AwSdHostState),
VMSTATE_END_OF_LIST()
}
};
@ -815,6 +842,7 @@ static void allwinner_sdhost_realize(DeviceState *dev, Error **errp)
static void allwinner_sdhost_reset(DeviceState *dev)
{
AwSdHostState *s = AW_SDHOST(dev);
AwSdHostClass *sc = AW_SDHOST_GET_CLASS(s);
s->global_ctl = REG_SD_GCTL_RST;
s->clock_ctl = REG_SD_CKCR_RST;
@ -855,6 +883,10 @@ static void allwinner_sdhost_reset(DeviceState *dev)
}
s->status_crc = REG_SD_CRC_STA_RST;
if (sc->can_calibrate) {
s->sample_delay = REG_SD_SAMPLE_DL_RST;
}
}
static void allwinner_sdhost_bus_class_init(ObjectClass *klass, void *data)
@ -879,6 +911,7 @@ static void allwinner_sdhost_sun4i_class_init(ObjectClass *klass, void *data)
AwSdHostClass *sc = AW_SDHOST_CLASS(klass);
sc->max_desc_size = 8 * KiB;
sc->is_sun4i = true;
sc->can_calibrate = false;
}
static void allwinner_sdhost_sun5i_class_init(ObjectClass *klass, void *data)
@ -886,6 +919,25 @@ static void allwinner_sdhost_sun5i_class_init(ObjectClass *klass, void *data)
AwSdHostClass *sc = AW_SDHOST_CLASS(klass);
sc->max_desc_size = 64 * KiB;
sc->is_sun4i = false;
sc->can_calibrate = false;
}
static void allwinner_sdhost_sun50i_a64_class_init(ObjectClass *klass,
void *data)
{
AwSdHostClass *sc = AW_SDHOST_CLASS(klass);
sc->max_desc_size = 64 * KiB;
sc->is_sun4i = false;
sc->can_calibrate = true;
}
static void allwinner_sdhost_sun50i_a64_emmc_class_init(ObjectClass *klass,
void *data)
{
AwSdHostClass *sc = AW_SDHOST_CLASS(klass);
sc->max_desc_size = 8 * KiB;
sc->is_sun4i = false;
sc->can_calibrate = true;
}
static const TypeInfo allwinner_sdhost_info = {
@ -910,6 +962,18 @@ static const TypeInfo allwinner_sdhost_sun5i_info = {
.class_init = allwinner_sdhost_sun5i_class_init,
};
static const TypeInfo allwinner_sdhost_sun50i_a64_info = {
.name = TYPE_AW_SDHOST_SUN50I_A64,
.parent = TYPE_AW_SDHOST,
.class_init = allwinner_sdhost_sun50i_a64_class_init,
};
static const TypeInfo allwinner_sdhost_sun50i_a64_emmc_info = {
.name = TYPE_AW_SDHOST_SUN50I_A64_EMMC,
.parent = TYPE_AW_SDHOST,
.class_init = allwinner_sdhost_sun50i_a64_emmc_class_init,
};
static const TypeInfo allwinner_sdhost_bus_info = {
.name = TYPE_AW_SDHOST_BUS,
.parent = TYPE_SD_BUS,
@ -922,6 +986,8 @@ static void allwinner_sdhost_register_types(void)
type_register_static(&allwinner_sdhost_info);
type_register_static(&allwinner_sdhost_sun4i_info);
type_register_static(&allwinner_sdhost_sun5i_info);
type_register_static(&allwinner_sdhost_sun50i_a64_info);
type_register_static(&allwinner_sdhost_sun50i_a64_emmc_info);
type_register_static(&allwinner_sdhost_bus_info);
}

143
include/hw/arm/allwinner-r40.h Normal file
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@ -0,0 +1,143 @@
/*
* Allwinner R40/A40i/T3 System on Chip emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef HW_ARM_ALLWINNER_R40_H
#define HW_ARM_ALLWINNER_R40_H
#include "qom/object.h"
#include "hw/arm/boot.h"
#include "hw/timer/allwinner-a10-pit.h"
#include "hw/intc/arm_gic.h"
#include "hw/sd/allwinner-sdhost.h"
#include "hw/misc/allwinner-r40-ccu.h"
#include "hw/misc/allwinner-r40-dramc.h"
#include "hw/misc/allwinner-sramc.h"
#include "hw/i2c/allwinner-i2c.h"
#include "hw/net/allwinner_emac.h"
#include "hw/net/allwinner-sun8i-emac.h"
#include "target/arm/cpu.h"
#include "sysemu/block-backend.h"
enum {
AW_R40_DEV_SRAM_A1,
AW_R40_DEV_SRAM_A2,
AW_R40_DEV_SRAM_A3,
AW_R40_DEV_SRAM_A4,
AW_R40_DEV_SRAMC,
AW_R40_DEV_EMAC,
AW_R40_DEV_MMC0,
AW_R40_DEV_MMC1,
AW_R40_DEV_MMC2,
AW_R40_DEV_MMC3,
AW_R40_DEV_CCU,
AW_R40_DEV_PIT,
AW_R40_DEV_UART0,
AW_R40_DEV_UART1,
AW_R40_DEV_UART2,
AW_R40_DEV_UART3,
AW_R40_DEV_UART4,
AW_R40_DEV_UART5,
AW_R40_DEV_UART6,
AW_R40_DEV_UART7,
AW_R40_DEV_TWI0,
AW_R40_DEV_GMAC,
AW_R40_DEV_GIC_DIST,
AW_R40_DEV_GIC_CPU,
AW_R40_DEV_GIC_HYP,
AW_R40_DEV_GIC_VCPU,
AW_R40_DEV_SDRAM,
AW_R40_DEV_DRAMCOM,
AW_R40_DEV_DRAMCTL,
AW_R40_DEV_DRAMPHY,
};
#define AW_R40_NUM_CPUS (4)
/**
* Allwinner R40 object model
* @{
*/
/** Object type for the Allwinner R40 SoC */
#define TYPE_AW_R40 "allwinner-r40"
/** Convert input object to Allwinner R40 state object */
OBJECT_DECLARE_SIMPLE_TYPE(AwR40State, AW_R40)
/** @} */
/**
* Allwinner R40 object
*
* This struct contains the state of all the devices
* which are currently emulated by the R40 SoC code.
*/
#define AW_R40_NUM_MMCS 4
#define AW_R40_NUM_UARTS 8
struct AwR40State {
/*< private >*/
DeviceState parent_obj;
/*< public >*/
/** Physical base address for start of RAM */
hwaddr ram_addr;
/** Total RAM size in megabytes */
uint32_t ram_size;
ARMCPU cpus[AW_R40_NUM_CPUS];
const hwaddr *memmap;
AwSRAMCState sramc;
AwA10PITState timer;
AwSdHostState mmc[AW_R40_NUM_MMCS];
AwR40ClockCtlState ccu;
AwR40DramCtlState dramc;
AWI2CState i2c0;
AwEmacState emac;
AwSun8iEmacState gmac;
GICState gic;
MemoryRegion sram_a1;
MemoryRegion sram_a2;
MemoryRegion sram_a3;
MemoryRegion sram_a4;
};
/**
* Emulate Boot ROM firmware setup functionality.
*
* A real Allwinner R40 SoC contains a Boot ROM
* which is the first code that runs right after
* the SoC is powered on. The Boot ROM is responsible
* for loading user code (e.g. a bootloader) from any
* of the supported external devices and writing the
* downloaded code to internal SRAM. After loading the SoC
* begins executing the code written to SRAM.
*
* This function emulates the Boot ROM by copying 32 KiB
* of data from the given block device and writes it to
* the start of the first internal SRAM memory.
*
* @s: Allwinner R40 state object pointer
* @blk: Block backend device object pointer
* @unit: the mmc control's unit
*/
bool allwinner_r40_bootrom_setup(AwR40State *s, BlockBackend *blk, int unit);
#endif /* HW_ARM_ALLWINNER_R40_H */

12
include/hw/arm/xlnx-versal.h
View File

@ -31,6 +31,7 @@
#include "hw/dma/xlnx_csu_dma.h"
#include "hw/misc/xlnx-versal-crl.h"
#include "hw/misc/xlnx-versal-pmc-iou-slcr.h"
#include "hw/net/xlnx-versal-canfd.h"
#define TYPE_XLNX_VERSAL "xlnx-versal"
OBJECT_DECLARE_SIMPLE_TYPE(Versal, XLNX_VERSAL)
@ -43,6 +44,8 @@ OBJECT_DECLARE_SIMPLE_TYPE(Versal, XLNX_VERSAL)
#define XLNX_VERSAL_NR_SDS 2
#define XLNX_VERSAL_NR_XRAM 4
#define XLNX_VERSAL_NR_IRQS 192
#define XLNX_VERSAL_NR_CANFD 2
#define XLNX_VERSAL_CANFD_REF_CLK (24 * 1000 * 1000)
struct Versal {
/*< private >*/
@ -73,6 +76,8 @@ struct Versal {
CadenceGEMState gem[XLNX_VERSAL_NR_GEMS];
XlnxZDMA adma[XLNX_VERSAL_NR_ADMAS];
VersalUsb2 usb;
CanBusState *canbus[XLNX_VERSAL_NR_CANFD];
XlnxVersalCANFDState canfd[XLNX_VERSAL_NR_CANFD];
} iou;
/* Real-time Processing Unit. */
@ -133,6 +138,8 @@ struct Versal {
#define VERSAL_CRL_IRQ 10
#define VERSAL_UART0_IRQ_0 18
#define VERSAL_UART1_IRQ_0 19
#define VERSAL_CANFD0_IRQ_0 20
#define VERSAL_CANFD1_IRQ_0 21
#define VERSAL_USB0_IRQ_0 22
#define VERSAL_GEM0_IRQ_0 56
#define VERSAL_GEM0_WAKE_IRQ_0 57
@ -163,6 +170,11 @@ struct Versal {
#define MM_UART1 0xff010000U
#define MM_UART1_SIZE 0x10000
#define MM_CANFD0 0xff060000U
#define MM_CANFD0_SIZE 0x10000
#define MM_CANFD1 0xff070000U
#define MM_CANFD1_SIZE 0x10000
#define MM_GEM0 0xff0c0000U
#define MM_GEM0_SIZE 0x10000
#define MM_GEM1 0xff0d0000U

65
include/hw/misc/allwinner-r40-ccu.h Normal file
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@ -0,0 +1,65 @@
/*
* Allwinner R40 Clock Control Unit emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef HW_MISC_ALLWINNER_R40_CCU_H
#define HW_MISC_ALLWINNER_R40_CCU_H
#include "qom/object.h"
#include "hw/sysbus.h"
/**
* @name Constants
* @{
*/
/** Size of register I/O address space used by CCU device */
#define AW_R40_CCU_IOSIZE (0x400)
/** Total number of known registers */
#define AW_R40_CCU_REGS_NUM (AW_R40_CCU_IOSIZE / sizeof(uint32_t))
/** @} */
/**
* @name Object model
* @{
*/
#define TYPE_AW_R40_CCU "allwinner-r40-ccu"
OBJECT_DECLARE_SIMPLE_TYPE(AwR40ClockCtlState, AW_R40_CCU)
/** @} */
/**
* Allwinner R40 CCU object instance state.
*/
struct AwR40ClockCtlState {
/*< private >*/
SysBusDevice parent_obj;
/*< public >*/
/** Maps I/O registers in physical memory */
MemoryRegion iomem;
/** Array of hardware registers */
uint32_t regs[AW_R40_CCU_REGS_NUM];
};
#endif /* HW_MISC_ALLWINNER_R40_CCU_H */

108
include/hw/misc/allwinner-r40-dramc.h Normal file
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@ -0,0 +1,108 @@
/*
* Allwinner R40 SDRAM Controller emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef HW_MISC_ALLWINNER_R40_DRAMC_H
#define HW_MISC_ALLWINNER_R40_DRAMC_H
#include "qom/object.h"
#include "hw/sysbus.h"
#include "exec/hwaddr.h"
/**
* Constants
* @{
*/
/** Highest register address used by DRAMCOM module */
#define AW_R40_DRAMCOM_REGS_MAXADDR (0x804)
/** Total number of known DRAMCOM registers */
#define AW_R40_DRAMCOM_REGS_NUM (AW_R40_DRAMCOM_REGS_MAXADDR / \
sizeof(uint32_t))
/** Highest register address used by DRAMCTL module */
#define AW_R40_DRAMCTL_REGS_MAXADDR (0x88c)
/** Total number of known DRAMCTL registers */
#define AW_R40_DRAMCTL_REGS_NUM (AW_R40_DRAMCTL_REGS_MAXADDR / \
sizeof(uint32_t))
/** Highest register address used by DRAMPHY module */
#define AW_R40_DRAMPHY_REGS_MAXADDR (0x4)
/** Total number of known DRAMPHY registers */
#define AW_R40_DRAMPHY_REGS_NUM (AW_R40_DRAMPHY_REGS_MAXADDR / \
sizeof(uint32_t))
/** @} */
/**
* Object model
* @{
*/
#define TYPE_AW_R40_DRAMC "allwinner-r40-dramc"
OBJECT_DECLARE_SIMPLE_TYPE(AwR40DramCtlState, AW_R40_DRAMC)
/** @} */
/**
* Allwinner R40 SDRAM Controller object instance state.
*/
struct AwR40DramCtlState {
/*< private >*/
SysBusDevice parent_obj;
/*< public >*/
/** Physical base address for start of RAM */
hwaddr ram_addr;
/** Total RAM size in megabytes */
uint32_t ram_size;
uint8_t set_row_bits;
uint8_t set_bank_bits;
uint8_t set_col_bits;
/**
* @name Memory Regions
* @{
*/
MemoryRegion dramcom_iomem; /**< DRAMCOM module I/O registers */
MemoryRegion dramctl_iomem; /**< DRAMCTL module I/O registers */
MemoryRegion dramphy_iomem; /**< DRAMPHY module I/O registers */
MemoryRegion dram_high; /**< The high 1G dram for dualrank detect */
MemoryRegion detect_cells; /**< DRAM memory cells for auto detect */
/** @} */
/**
* @name Hardware Registers
* @{
*/
uint32_t dramcom[AW_R40_DRAMCOM_REGS_NUM]; /**< DRAMCOM registers */
uint32_t dramctl[AW_R40_DRAMCTL_REGS_NUM]; /**< DRAMCTL registers */
uint32_t dramphy[AW_R40_DRAMPHY_REGS_NUM] ;/**< DRAMPHY registers */
/** @} */
};
#endif /* HW_MISC_ALLWINNER_R40_DRAMC_H */

69
include/hw/misc/allwinner-sramc.h Normal file
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@ -0,0 +1,69 @@
/*
* Allwinner SRAM controller emulation
*
* Copyright (C) 2023 qianfan Zhao <qianfanguijin@163.com>
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef HW_MISC_ALLWINNER_SRAMC_H
#define HW_MISC_ALLWINNER_SRAMC_H
#include "qom/object.h"
#include "hw/sysbus.h"
#include "qemu/uuid.h"
/**
* Object model
* @{
*/
#define TYPE_AW_SRAMC "allwinner-sramc"
#define TYPE_AW_SRAMC_SUN8I_R40 TYPE_AW_SRAMC "-sun8i-r40"
OBJECT_DECLARE_TYPE(AwSRAMCState, AwSRAMCClass, AW_SRAMC)
/** @} */
/**
* Allwinner SRAMC object instance state
*/
struct AwSRAMCState {
/*< private >*/
SysBusDevice parent_obj;
/*< public >*/
/** Maps I/O registers in physical memory */
MemoryRegion iomem;
/* registers */
uint32_t sram_ctl1;
uint32_t sram_ver;
uint32_t sram_soft_entry_reg0;
};
/**
* Allwinner SRAM Controller class-level struct.
*
* This struct is filled by each sunxi device specific code
* such that the generic code can use this struct to support
* all devices.
*/
struct AwSRAMCClass {
/*< private >*/
SysBusDeviceClass parent_class;
/*< public >*/
uint32_t sram_version_code;
};
#endif /* HW_MISC_ALLWINNER_SRAMC_H */

87
include/hw/net/xlnx-versal-canfd.h Normal file
View File

@ -0,0 +1,87 @@
/*
* QEMU model of the Xilinx Versal CANFD Controller.
*
* Copyright (c) 2023 Advanced Micro Devices, Inc.
*
* Written-by: Vikram Garhwal<vikram.garhwal@amd.com>
* Based on QEMU CANFD Device emulation implemented by Jin Yang, Deniz Eren and
* Pavel Pisa.
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
* THE SOFTWARE.
*/
#ifndef HW_CANFD_XILINX_H
#define HW_CANFD_XILINX_H
#include "hw/register.h"
#include "hw/ptimer.h"
#include "net/can_emu.h"
#include "hw/qdev-clock.h"
#define TYPE_XILINX_CANFD "xlnx.versal-canfd"
OBJECT_DECLARE_SIMPLE_TYPE(XlnxVersalCANFDState, XILINX_CANFD)
#define NUM_REGS_PER_MSG_SPACE 18 /* 1 ID + 1 DLC + 16 Data(DW0 - DW15) regs. */
#define MAX_NUM_RX 64
#define OFFSET_RX1_DW15 (0x4144 / 4)
#define CANFD_TIMER_MAX 0xFFFFUL
#define CANFD_DEFAULT_CLOCK (25 * 1000 * 1000)
#define XLNX_VERSAL_CANFD_R_MAX (OFFSET_RX1_DW15 + \
((MAX_NUM_RX - 1) * NUM_REGS_PER_MSG_SPACE) + 1)
typedef struct XlnxVersalCANFDState {
SysBusDevice parent_obj;
MemoryRegion iomem;
qemu_irq irq_canfd_int;
qemu_irq irq_addr_err;
RegisterInfo reg_info[XLNX_VERSAL_CANFD_R_MAX];
RegisterAccessInfo *tx_regs;
RegisterAccessInfo *rx0_regs;
RegisterAccessInfo *rx1_regs;
RegisterAccessInfo *af_regs;
RegisterAccessInfo *txe_regs;
RegisterAccessInfo *rx_mailbox_regs;
RegisterAccessInfo *af_mask_regs_mailbox;
uint32_t regs[XLNX_VERSAL_CANFD_R_MAX];
ptimer_state *canfd_timer;
CanBusClientState bus_client;
CanBusState *canfdbus;
struct {
uint8_t rx0_fifo;
uint8_t rx1_fifo;
uint8_t tx_fifo;
bool enable_rx_fifo1;
uint32_t ext_clk_freq;
} cfg;
} XlnxVersalCANFDState;
typedef struct tx_ready_reg_info {
uint32_t can_id;
uint32_t reg_num;
} tx_ready_reg_info;
#endif

9
include/hw/sd/allwinner-sdhost.h
View File

@ -38,6 +38,12 @@
/** Allwinner sun5i family and newer (A13, H2+, H3, etc) */
#define TYPE_AW_SDHOST_SUN5I TYPE_AW_SDHOST "-sun5i"
/** Allwinner sun50i-a64 */
#define TYPE_AW_SDHOST_SUN50I_A64 TYPE_AW_SDHOST "-sun50i-a64"
/** Allwinner sun50i-a64 emmc */
#define TYPE_AW_SDHOST_SUN50I_A64_EMMC TYPE_AW_SDHOST "-sun50i-a64-emmc"
/** @} */
/**
@ -110,6 +116,7 @@ struct AwSdHostState {
uint32_t startbit_detect; /**< eMMC DDR Start Bit Detection Control */
uint32_t response_crc; /**< Response CRC */
uint32_t data_crc[8]; /**< Data CRC */
uint32_t sample_delay; /**< Sample delay control */
uint32_t status_crc; /**< Status CRC */
/** @} */
@ -132,6 +139,8 @@ struct AwSdHostClass {
size_t max_desc_size;
bool is_sun4i;
/** does the IP block support autocalibration? */
bool can_calibrate;
};
#endif /* HW_SD_ALLWINNER_SDHOST_H */

37
include/sysemu/hvf.h
View File

@ -17,6 +17,7 @@
#include "qom/object.h"
#ifdef NEED_CPU_H
#include "cpu.h"
#ifdef CONFIG_HVF
uint32_t hvf_get_supported_cpuid(uint32_t func, uint32_t idx,
@ -36,4 +37,40 @@ typedef struct HVFState HVFState;
DECLARE_INSTANCE_CHECKER(HVFState, HVF_STATE,
TYPE_HVF_ACCEL)
#ifdef NEED_CPU_H
struct hvf_sw_breakpoint {
target_ulong pc;
target_ulong saved_insn;
int use_count;
QTAILQ_ENTRY(hvf_sw_breakpoint) entry;
};
struct hvf_sw_breakpoint *hvf_find_sw_breakpoint(CPUState *cpu,
target_ulong pc);
int hvf_sw_breakpoints_active(CPUState *cpu);
int hvf_arch_insert_sw_breakpoint(CPUState *cpu, struct hvf_sw_breakpoint *bp);
int hvf_arch_remove_sw_breakpoint(CPUState *cpu, struct hvf_sw_breakpoint *bp);
int hvf_arch_insert_hw_breakpoint(target_ulong addr, target_ulong len,
int type);
int hvf_arch_remove_hw_breakpoint(target_ulong addr, target_ulong len,
int type);
void hvf_arch_remove_all_hw_breakpoints(void);
/*
* hvf_update_guest_debug:
* @cs: CPUState for the CPU to update
*
* Update guest to enable or disable debugging. Per-arch specifics will be
* handled by calling down to hvf_arch_update_guest_debug.
*/
int hvf_update_guest_debug(CPUState *cpu);
void hvf_arch_update_guest_debug(CPUState *cpu);
/*
* Return whether the guest supports debugging.
*/
bool hvf_arch_supports_guest_debug(void);
#endif /* NEED_CPU_H */
#endif

2
include/sysemu/hvf_int.h
View File

@ -45,6 +45,7 @@ struct HVFState {
hvf_vcpu_caps *hvf_caps;
uint64_t vtimer_offset;
QTAILQ_HEAD(, hvf_sw_breakpoint) hvf_sw_breakpoints;
};
extern HVFState *hvf_state;
@ -53,6 +54,7 @@ struct hvf_vcpu_state {
void *exit;
bool vtimer_masked;
sigset_t unblock_ipi_mask;
bool guest_debug_enabled;
};
void assert_hvf_ok(hv_return_t ret);

2
target/arm/cpu.c
View File

@ -289,6 +289,8 @@ static void arm_cpu_reset_hold(Object *obj)
* This is not yet exposed from the Linux kernel in any way.
*/
env->cp15.sctlr_el[1] |= SCTLR_TSCXT;
/* Disable access to Debug Communication Channel (DCC). */
env->cp15.mdscr_el1 |= 1 << 12;
#else
/* Reset into the highest available EL */
if (arm_feature(env, ARM_FEATURE_EL3)) {

16
target/arm/cpu.h
View File

@ -677,8 +677,16 @@ typedef struct CPUArchState {
uint64_t zcr_el[4]; /* ZCR_EL[1-3] */
uint64_t smcr_el[4]; /* SMCR_EL[1-3] */
} vfp;
uint64_t exclusive_addr;
uint64_t exclusive_val;
/*
* Contains the 'val' for the second 64-bit register of LDXP, which comes
* from the higher address, not the high part of a complete 128-bit value.
* In some ways it might be more convenient to record the exclusive value
* as the low and high halves of a 128 bit data value, but the current
* semantics of these fields are baked into the migration format.
*/
uint64_t exclusive_high;
/* iwMMXt coprocessor state. */
@ -1240,7 +1248,7 @@ void pmu_init(ARMCPU *cpu);
#define SCTLR_D (1U << 5) /* up to v5; RAO in v6 */
#define SCTLR_CP15BEN (1U << 5) /* v7 onward */
#define SCTLR_L (1U << 6) /* up to v5; RAO in v6 and v7; RAZ in v8 */
#define SCTLR_nAA (1U << 6) /* when v8.4-LSE is implemented */
#define SCTLR_nAA (1U << 6) /* when FEAT_LSE2 is implemented */
#define SCTLR_B (1U << 7) /* up to v6; RAZ in v7 */
#define SCTLR_ITD (1U << 7) /* v8 onward */
#define SCTLR_S (1U << 8) /* up to v6; RAZ in v7 */
@ -3036,6 +3044,7 @@ FIELD(TBFLAG_A64, SVL, 24, 4)
/* Indicates that SME Streaming mode is active, and SMCR_ELx.FA64 is not. */
FIELD(TBFLAG_A64, SME_TRAP_NONSTREAMING, 28, 1)
FIELD(TBFLAG_A64, FGT_ERET, 29, 1)
FIELD(TBFLAG_A64, NAA, 30, 1)
/*
* Helpers for using the above.
@ -3843,6 +3852,11 @@ static inline bool isar_feature_aa64_st(const ARMISARegisters *id)
return FIELD_EX64(id->id_aa64mmfr2, ID_AA64MMFR2, ST) != 0;
}
static inline bool isar_feature_aa64_lse2(const ARMISARegisters *id)
{
return FIELD_EX64(id->id_aa64mmfr2, ID_AA64MMFR2, AT) != 0;
}
static inline bool isar_feature_aa64_fwb(const ARMISARegisters *id)
{
return FIELD_EX64(id->id_aa64mmfr2, ID_AA64MMFR2, FWB) != 0;

5
target/arm/debug_helper.c
View File

@ -842,12 +842,14 @@ static CPAccessResult access_tda(CPUARMState *env, const ARMCPRegInfo *ri,
* is implemented then these are controlled by MDCR_EL2.TDCC for
* EL2 and MDCR_EL3.TDCC for EL3. They are also controlled by
* the general debug access trap bits MDCR_EL2.TDA and MDCR_EL3.TDA.
* For EL0, they are also controlled by MDSCR_EL1.TDCC.
*/
static CPAccessResult access_tdcc(CPUARMState *env, const ARMCPRegInfo *ri,
bool isread)
{
int el = arm_current_el(env);
uint64_t mdcr_el2 = arm_mdcr_el2_eff(env);
bool mdscr_el1_tdcc = extract32(env->cp15.mdscr_el1, 12, 1);
bool mdcr_el2_tda = (mdcr_el2 & MDCR_TDA) || (mdcr_el2 & MDCR_TDE) ||
(arm_hcr_el2_eff(env) & HCR_TGE);
bool mdcr_el2_tdcc = cpu_isar_feature(aa64_fgt, env_archcpu(env)) &&
@ -855,6 +857,9 @@ static CPAccessResult access_tdcc(CPUARMState *env, const ARMCPRegInfo *ri,
bool mdcr_el3_tdcc = cpu_isar_feature(aa64_fgt, env_archcpu(env)) &&
(env->cp15.mdcr_el3 & MDCR_TDCC);
if (el < 1 && mdscr_el1_tdcc) {
return CP_ACCESS_TRAP;
}
if (el < 2 && (mdcr_el2_tda || mdcr_el2_tdcc)) {
return CP_ACCESS_TRAP_EL2;
}

6
target/arm/helper.c
View File

@ -7405,7 +7405,6 @@ static const ARMCPRegInfo rndr_reginfo[] = {
.access = PL0_R, .readfn = rndr_readfn },
};
#ifndef CONFIG_USER_ONLY
static void dccvap_writefn(CPUARMState *env, const ARMCPRegInfo *opaque,
uint64_t value)
{
@ -7420,6 +7419,7 @@ static void dccvap_writefn(CPUARMState *env, const ARMCPRegInfo *opaque,
/* This won't be crossing page boundaries */
haddr = probe_read(env, vaddr, dline_size, mem_idx, GETPC());
if (haddr) {
#ifndef CONFIG_USER_ONLY
ram_addr_t offset;
MemoryRegion *mr;
@ -7430,6 +7430,7 @@ static void dccvap_writefn(CPUARMState *env, const ARMCPRegInfo *opaque,
if (mr) {
memory_region_writeback(mr, offset, dline_size);
}
#endif /*CONFIG_USER_ONLY*/
}
}
@ -7448,7 +7449,6 @@ static const ARMCPRegInfo dcpodp_reg[] = {
.fgt = FGT_DCCVADP,
.accessfn = aa64_cacheop_poc_access, .writefn = dccvap_writefn },
};
#endif /*CONFIG_USER_ONLY*/
static CPAccessResult access_aa64_tid5(CPUARMState *env, const ARMCPRegInfo *ri,
bool isread)
@ -9092,7 +9092,6 @@ void register_cp_regs_for_features(ARMCPU *cpu)
if (cpu_isar_feature(aa64_tlbios, cpu)) {
define_arm_cp_regs(cpu, tlbios_reginfo);
}
#ifndef CONFIG_USER_ONLY
/* Data Cache clean instructions up to PoP */
if (cpu_isar_feature(aa64_dcpop, cpu)) {
define_one_arm_cp_reg(cpu, dcpop_reg);
@ -9101,7 +9100,6 @@ void register_cp_regs_for_features(ARMCPU *cpu)
define_one_arm_cp_reg(cpu, dcpodp_reg);
}
}
#endif /*CONFIG_USER_ONLY*/
/*
* If full MTE is enabled, add all of the system registers.

750
target/arm/hvf/hvf.c
View File

@ -31,6 +31,118 @@
#include "trace/trace-target_arm_hvf.h"
#include "migration/vmstate.h"
#include "exec/gdbstub.h"
#define MDSCR_EL1_SS_SHIFT 0
#define MDSCR_EL1_MDE_SHIFT 15
static uint16_t dbgbcr_regs[] = {
HV_SYS_REG_DBGBCR0_EL1,
HV_SYS_REG_DBGBCR1_EL1,
HV_SYS_REG_DBGBCR2_EL1,
HV_SYS_REG_DBGBCR3_EL1,
HV_SYS_REG_DBGBCR4_EL1,
HV_SYS_REG_DBGBCR5_EL1,
HV_SYS_REG_DBGBCR6_EL1,
HV_SYS_REG_DBGBCR7_EL1,
HV_SYS_REG_DBGBCR8_EL1,
HV_SYS_REG_DBGBCR9_EL1,
HV_SYS_REG_DBGBCR10_EL1,
HV_SYS_REG_DBGBCR11_EL1,
HV_SYS_REG_DBGBCR12_EL1,
HV_SYS_REG_DBGBCR13_EL1,
HV_SYS_REG_DBGBCR14_EL1,
HV_SYS_REG_DBGBCR15_EL1,
};
static uint16_t dbgbvr_regs[] = {
HV_SYS_REG_DBGBVR0_EL1,
HV_SYS_REG_DBGBVR1_EL1,
HV_SYS_REG_DBGBVR2_EL1,
HV_SYS_REG_DBGBVR3_EL1,
HV_SYS_REG_DBGBVR4_EL1,
HV_SYS_REG_DBGBVR5_EL1,
HV_SYS_REG_DBGBVR6_EL1,
HV_SYS_REG_DBGBVR7_EL1,
HV_SYS_REG_DBGBVR8_EL1,
HV_SYS_REG_DBGBVR9_EL1,
HV_SYS_REG_DBGBVR10_EL1,
HV_SYS_REG_DBGBVR11_EL1,
HV_SYS_REG_DBGBVR12_EL1,
HV_SYS_REG_DBGBVR13_EL1,
HV_SYS_REG_DBGBVR14_EL1,
HV_SYS_REG_DBGBVR15_EL1,
};
static uint16_t dbgwcr_regs[] = {
HV_SYS_REG_DBGWCR0_EL1,
HV_SYS_REG_DBGWCR1_EL1,
HV_SYS_REG_DBGWCR2_EL1,
HV_SYS_REG_DBGWCR3_EL1,
HV_SYS_REG_DBGWCR4_EL1,
HV_SYS_REG_DBGWCR5_EL1,
HV_SYS_REG_DBGWCR6_EL1,
HV_SYS_REG_DBGWCR7_EL1,
HV_SYS_REG_DBGWCR8_EL1,
HV_SYS_REG_DBGWCR9_EL1,
HV_SYS_REG_DBGWCR10_EL1,
HV_SYS_REG_DBGWCR11_EL1,
HV_SYS_REG_DBGWCR12_EL1,
HV_SYS_REG_DBGWCR13_EL1,
HV_SYS_REG_DBGWCR14_EL1,
HV_SYS_REG_DBGWCR15_EL1,
};
static uint16_t dbgwvr_regs[] = {
HV_SYS_REG_DBGWVR0_EL1,
HV_SYS_REG_DBGWVR1_EL1,
HV_SYS_REG_DBGWVR2_EL1,
HV_SYS_REG_DBGWVR3_EL1,
HV_SYS_REG_DBGWVR4_EL1,
HV_SYS_REG_DBGWVR5_EL1,
HV_SYS_REG_DBGWVR6_EL1,
HV_SYS_REG_DBGWVR7_EL1,
HV_SYS_REG_DBGWVR8_EL1,
HV_SYS_REG_DBGWVR9_EL1,
HV_SYS_REG_DBGWVR10_EL1,
HV_SYS_REG_DBGWVR11_EL1,
HV_SYS_REG_DBGWVR12_EL1,
HV_SYS_REG_DBGWVR13_EL1,
HV_SYS_REG_DBGWVR14_EL1,
HV_SYS_REG_DBGWVR15_EL1,
};
static inline int hvf_arm_num_brps(hv_vcpu_config_t config)
{
uint64_t val;
hv_return_t ret;
ret = hv_vcpu_config_get_feature_reg(config, HV_FEATURE_REG_ID_AA64DFR0_EL1,
&val);
assert_hvf_ok(ret);
return FIELD_EX64(val, ID_AA64DFR0, BRPS) + 1;
}
static inline int hvf_arm_num_wrps(hv_vcpu_config_t config)
{
uint64_t val;
hv_return_t ret;
ret = hv_vcpu_config_get_feature_reg(config, HV_FEATURE_REG_ID_AA64DFR0_EL1,
&val);
assert_hvf_ok(ret);
return FIELD_EX64(val, ID_AA64DFR0, WRPS) + 1;
}
void hvf_arm_init_debug(void)
{
hv_vcpu_config_t config;
config = hv_vcpu_config_create();
max_hw_bps = hvf_arm_num_brps(config);
hw_breakpoints =
g_array_sized_new(true, true, sizeof(HWBreakpoint), max_hw_bps);
max_hw_wps = hvf_arm_num_wrps(config);
hw_watchpoints =
g_array_sized_new(true, true, sizeof(HWWatchpoint), max_hw_wps);
}
#define HVF_SYSREG(crn, crm, op0, op1, op2) \
ENCODE_AA64_CP_REG(CP_REG_ARM64_SYSREG_CP, crn, crm, op0, op1, op2)
#define PL1_WRITE_MASK 0x4
@ -107,6 +219,72 @@
#define SYSREG_ICC_SGI1R_EL1 SYSREG(3, 0, 12, 11, 5)
#define SYSREG_ICC_SRE_EL1 SYSREG(3, 0, 12, 12, 5)
#define SYSREG_MDSCR_EL1 SYSREG(2, 0, 0, 2, 2)
#define SYSREG_DBGBVR0_EL1 SYSREG(2, 0, 0, 0, 4)
#define SYSREG_DBGBCR0_EL1 SYSREG(2, 0, 0, 0, 5)
#define SYSREG_DBGWVR0_EL1 SYSREG(2, 0, 0, 0, 6)
#define SYSREG_DBGWCR0_EL1 SYSREG(2, 0, 0, 0, 7)
#define SYSREG_DBGBVR1_EL1 SYSREG(2, 0, 0, 1, 4)
#define SYSREG_DBGBCR1_EL1 SYSREG(2, 0, 0, 1, 5)
#define SYSREG_DBGWVR1_EL1 SYSREG(2, 0, 0, 1, 6)
#define SYSREG_DBGWCR1_EL1 SYSREG(2, 0, 0, 1, 7)
#define SYSREG_DBGBVR2_EL1 SYSREG(2, 0, 0, 2, 4)
#define SYSREG_DBGBCR2_EL1 SYSREG(2, 0, 0, 2, 5)
#define SYSREG_DBGWVR2_EL1 SYSREG(2, 0, 0, 2, 6)
#define SYSREG_DBGWCR2_EL1 SYSREG(2, 0, 0, 2, 7)
#define SYSREG_DBGBVR3_EL1 SYSREG(2, 0, 0, 3, 4)
#define SYSREG_DBGBCR3_EL1 SYSREG(2, 0, 0, 3, 5)
#define SYSREG_DBGWVR3_EL1 SYSREG(2, 0, 0, 3, 6)
#define SYSREG_DBGWCR3_EL1 SYSREG(2, 0, 0, 3, 7)
#define SYSREG_DBGBVR4_EL1 SYSREG(2, 0, 0, 4, 4)
#define SYSREG_DBGBCR4_EL1 SYSREG(2, 0, 0, 4, 5)
#define SYSREG_DBGWVR4_EL1 SYSREG(2, 0, 0, 4, 6)
#define SYSREG_DBGWCR4_EL1 SYSREG(2, 0, 0, 4, 7)
#define SYSREG_DBGBVR5_EL1 SYSREG(2, 0, 0, 5, 4)
#define SYSREG_DBGBCR5_EL1 SYSREG(2, 0, 0, 5, 5)
#define SYSREG_DBGWVR5_EL1 SYSREG(2, 0, 0, 5, 6)
#define SYSREG_DBGWCR5_EL1 SYSREG(2, 0, 0, 5, 7)
#define SYSREG_DBGBVR6_EL1 SYSREG(2, 0, 0, 6, 4)
#define SYSREG_DBGBCR6_EL1 SYSREG(2, 0, 0, 6, 5)
#define SYSREG_DBGWVR6_EL1 SYSREG(2, 0, 0, 6, 6)
#define SYSREG_DBGWCR6_EL1 SYSREG(2, 0, 0, 6, 7)
#define SYSREG_DBGBVR7_EL1 SYSREG(2, 0, 0, 7, 4)
#define SYSREG_DBGBCR7_EL1 SYSREG(2, 0, 0, 7, 5)
#define SYSREG_DBGWVR7_EL1 SYSREG(2, 0, 0, 7, 6)
#define SYSREG_DBGWCR7_EL1 SYSREG(2, 0, 0, 7, 7)
#define SYSREG_DBGBVR8_EL1 SYSREG(2, 0, 0, 8, 4)
#define SYSREG_DBGBCR8_EL1 SYSREG(2, 0, 0, 8, 5)
#define SYSREG_DBGWVR8_EL1 SYSREG(2, 0, 0, 8, 6)
#define SYSREG_DBGWCR8_EL1 SYSREG(2, 0, 0, 8, 7)
#define SYSREG_DBGBVR9_EL1 SYSREG(2, 0, 0, 9, 4)
#define SYSREG_DBGBCR9_EL1 SYSREG(2, 0, 0, 9, 5)
#define SYSREG_DBGWVR9_EL1 SYSREG(2, 0, 0, 9, 6)
#define SYSREG_DBGWCR9_EL1 SYSREG(2, 0, 0, 9, 7)
#define SYSREG_DBGBVR10_EL1 SYSREG(2, 0, 0, 10, 4)
#define SYSREG_DBGBCR10_EL1 SYSREG(2, 0, 0, 10, 5)
#define SYSREG_DBGWVR10_EL1 SYSREG(2, 0, 0, 10, 6)
#define SYSREG_DBGWCR10_EL1 SYSREG(2, 0, 0, 10, 7)
#define SYSREG_DBGBVR11_EL1 SYSREG(2, 0, 0, 11, 4)
#define SYSREG_DBGBCR11_EL1 SYSREG(2, 0, 0, 11, 5)
#define SYSREG_DBGWVR11_EL1 SYSREG(2, 0, 0, 11, 6)
#define SYSREG_DBGWCR11_EL1 SYSREG(2, 0, 0, 11, 7)
#define SYSREG_DBGBVR12_EL1 SYSREG(2, 0, 0, 12, 4)
#define SYSREG_DBGBCR12_EL1 SYSREG(2, 0, 0, 12, 5)
#define SYSREG_DBGWVR12_EL1 SYSREG(2, 0, 0, 12, 6)
#define SYSREG_DBGWCR12_EL1 SYSREG(2, 0, 0, 12, 7)
#define SYSREG_DBGBVR13_EL1 SYSREG(2, 0, 0, 13, 4)
#define SYSREG_DBGBCR13_EL1 SYSREG(2, 0, 0, 13, 5)
#define SYSREG_DBGWVR13_EL1 SYSREG(2, 0, 0, 13, 6)
#define SYSREG_DBGWCR13_EL1 SYSREG(2, 0, 0, 13, 7)
#define SYSREG_DBGBVR14_EL1 SYSREG(2, 0, 0, 14, 4)
#define SYSREG_DBGBCR14_EL1 SYSREG(2, 0, 0, 14, 5)
#define SYSREG_DBGWVR14_EL1 SYSREG(2, 0, 0, 14, 6)
#define SYSREG_DBGWCR14_EL1 SYSREG(2, 0, 0, 14, 7)
#define SYSREG_DBGBVR15_EL1 SYSREG(2, 0, 0, 15, 4)
#define SYSREG_DBGBCR15_EL1 SYSREG(2, 0, 0, 15, 5)
#define SYSREG_DBGWVR15_EL1 SYSREG(2, 0, 0, 15, 6)
#define SYSREG_DBGWCR15_EL1 SYSREG(2, 0, 0, 15, 7)
#define WFX_IS_WFE (1 << 0)
#define TMR_CTL_ENABLE (1 << 0)
@ -397,6 +575,92 @@ int hvf_get_registers(CPUState *cpu)
continue;
}
if (cpu->hvf->guest_debug_enabled) {
/* Handle debug registers */
switch (hvf_sreg_match[i].reg) {
case HV_SYS_REG_DBGBVR0_EL1:
case HV_SYS_REG_DBGBCR0_EL1:
case HV_SYS_REG_DBGWVR0_EL1:
case HV_SYS_REG_DBGWCR0_EL1:
case HV_SYS_REG_DBGBVR1_EL1:
case HV_SYS_REG_DBGBCR1_EL1:
case HV_SYS_REG_DBGWVR1_EL1:
case HV_SYS_REG_DBGWCR1_EL1:
case HV_SYS_REG_DBGBVR2_EL1:
case HV_SYS_REG_DBGBCR2_EL1:
case HV_SYS_REG_DBGWVR2_EL1:
case HV_SYS_REG_DBGWCR2_EL1:
case HV_SYS_REG_DBGBVR3_EL1:
case HV_SYS_REG_DBGBCR3_EL1:
case HV_SYS_REG_DBGWVR3_EL1:
case HV_SYS_REG_DBGWCR3_EL1:
case HV_SYS_REG_DBGBVR4_EL1:
case HV_SYS_REG_DBGBCR4_EL1:
case HV_SYS_REG_DBGWVR4_EL1:
case HV_SYS_REG_DBGWCR4_EL1:
case HV_SYS_REG_DBGBVR5_EL1:
case HV_SYS_REG_DBGBCR5_EL1:
case HV_SYS_REG_DBGWVR5_EL1:
case HV_SYS_REG_DBGWCR5_EL1:
case HV_SYS_REG_DBGBVR6_EL1:
case HV_SYS_REG_DBGBCR6_EL1:
case HV_SYS_REG_DBGWVR6_EL1:
case HV_SYS_REG_DBGWCR6_EL1:
case HV_SYS_REG_DBGBVR7_EL1:
case HV_SYS_REG_DBGBCR7_EL1:
case HV_SYS_REG_DBGWVR7_EL1:
case HV_SYS_REG_DBGWCR7_EL1:
case HV_SYS_REG_DBGBVR8_EL1:
case HV_SYS_REG_DBGBCR8_EL1:
case HV_SYS_REG_DBGWVR8_EL1:
case HV_SYS_REG_DBGWCR8_EL1:
case HV_SYS_REG_DBGBVR9_EL1:
case HV_SYS_REG_DBGBCR9_EL1:
case HV_SYS_REG_DBGWVR9_EL1:
case HV_SYS_REG_DBGWCR9_EL1:
case HV_SYS_REG_DBGBVR10_EL1:
case HV_SYS_REG_DBGBCR10_EL1:
case HV_SYS_REG_DBGWVR10_EL1:
case HV_SYS_REG_DBGWCR10_EL1:
case HV_SYS_REG_DBGBVR11_EL1:
case HV_SYS_REG_DBGBCR11_EL1:
case HV_SYS_REG_DBGWVR11_EL1:
case HV_SYS_REG_DBGWCR11_EL1:
case HV_SYS_REG_DBGBVR12_EL1:
case HV_SYS_REG_DBGBCR12_EL1:
case HV_SYS_REG_DBGWVR12_EL1:
case HV_SYS_REG_DBGWCR12_EL1:
case HV_SYS_REG_DBGBVR13_EL1:
case HV_SYS_REG_DBGBCR13_EL1:
case HV_SYS_REG_DBGWVR13_EL1:
case HV_SYS_REG_DBGWCR13_EL1:
case HV_SYS_REG_DBGBVR14_EL1:
case HV_SYS_REG_DBGBCR14_EL1:
case HV_SYS_REG_DBGWVR14_EL1:
case HV_SYS_REG_DBGWCR14_EL1:
case HV_SYS_REG_DBGBVR15_EL1:
case HV_SYS_REG_DBGBCR15_EL1:
case HV_SYS_REG_DBGWVR15_EL1:
case HV_SYS_REG_DBGWCR15_EL1: {
/*
* If the guest is being debugged, the vCPU's debug registers
* are holding the gdbstub's view of the registers (set in
* hvf_arch_update_guest_debug()).
* Since the environment is used to store only the guest's view
* of the registers, don't update it with the values from the
* vCPU but simply keep the values from the previous
* environment.
*/
const ARMCPRegInfo *ri;
ri = get_arm_cp_reginfo(arm_cpu->cp_regs, hvf_sreg_match[i].key);
val = read_raw_cp_reg(env, ri);
arm_cpu->cpreg_values[hvf_sreg_match[i].cp_idx] = val;
continue;
}
}
}
ret = hv_vcpu_get_sys_reg(cpu->hvf->fd, hvf_sreg_match[i].reg, &val);
assert_hvf_ok(ret);
@ -448,6 +712,82 @@ int hvf_put_registers(CPUState *cpu)
continue;
}
if (cpu->hvf->guest_debug_enabled) {
/* Handle debug registers */
switch (hvf_sreg_match[i].reg) {
case HV_SYS_REG_DBGBVR0_EL1:
case HV_SYS_REG_DBGBCR0_EL1:
case HV_SYS_REG_DBGWVR0_EL1:
case HV_SYS_REG_DBGWCR0_EL1:
case HV_SYS_REG_DBGBVR1_EL1:
case HV_SYS_REG_DBGBCR1_EL1:
case HV_SYS_REG_DBGWVR1_EL1:
case HV_SYS_REG_DBGWCR1_EL1:
case HV_SYS_REG_DBGBVR2_EL1:
case HV_SYS_REG_DBGBCR2_EL1:
case HV_SYS_REG_DBGWVR2_EL1:
case HV_SYS_REG_DBGWCR2_EL1:
case HV_SYS_REG_DBGBVR3_EL1:
case HV_SYS_REG_DBGBCR3_EL1:
case HV_SYS_REG_DBGWVR3_EL1:
case HV_SYS_REG_DBGWCR3_EL1:
case HV_SYS_REG_DBGBVR4_EL1:
case HV_SYS_REG_DBGBCR4_EL1:
case HV_SYS_REG_DBGWVR4_EL1:
case HV_SYS_REG_DBGWCR4_EL1:
case HV_SYS_REG_DBGBVR5_EL1:
case HV_SYS_REG_DBGBCR5_EL1:
case HV_SYS_REG_DBGWVR5_EL1:
case HV_SYS_REG_DBGWCR5_EL1:
case HV_SYS_REG_DBGBVR6_EL1:
case HV_SYS_REG_DBGBCR6_EL1:
case HV_SYS_REG_DBGWVR6_EL1:
case HV_SYS_REG_DBGWCR6_EL1:
case HV_SYS_REG_DBGBVR7_EL1:
case HV_SYS_REG_DBGBCR7_EL1:
case HV_SYS_REG_DBGWVR7_EL1:
case HV_SYS_REG_DBGWCR7_EL1:
case HV_SYS_REG_DBGBVR8_EL1:
case HV_SYS_REG_DBGBCR8_EL1:
case HV_SYS_REG_DBGWVR8_EL1:
case HV_SYS_REG_DBGWCR8_EL1:
case HV_SYS_REG_DBGBVR9_EL1:
case HV_SYS_REG_DBGBCR9_EL1:
case HV_SYS_REG_DBGWVR9_EL1:
case HV_SYS_REG_DBGWCR9_EL1:
case HV_SYS_REG_DBGBVR10_EL1:
case HV_SYS_REG_DBGBCR10_EL1:
case HV_SYS_REG_DBGWVR10_EL1:
case HV_SYS_REG_DBGWCR10_EL1:
case HV_SYS_REG_DBGBVR11_EL1:
case HV_SYS_REG_DBGBCR11_EL1:
case HV_SYS_REG_DBGWVR11_EL1:
case HV_SYS_REG_DBGWCR11_EL1:
case HV_SYS_REG_DBGBVR12_EL1:
case HV_SYS_REG_DBGBCR12_EL1:
case HV_SYS_REG_DBGWVR12_EL1:
case HV_SYS_REG_DBGWCR12_EL1:
case HV_SYS_REG_DBGBVR13_EL1:
case HV_SYS_REG_DBGBCR13_EL1:
case HV_SYS_REG_DBGWVR13_EL1:
case HV_SYS_REG_DBGWCR13_EL1:
case HV_SYS_REG_DBGBVR14_EL1:
case HV_SYS_REG_DBGBCR14_EL1:
case HV_SYS_REG_DBGWVR14_EL1:
case HV_SYS_REG_DBGWCR14_EL1:
case HV_SYS_REG_DBGBVR15_EL1:
case HV_SYS_REG_DBGBCR15_EL1:
case HV_SYS_REG_DBGWVR15_EL1:
case HV_SYS_REG_DBGWCR15_EL1:
/*
* If the guest is being debugged, the vCPU's debug registers
* are already holding the gdbstub's view of the registers (set
* in hvf_arch_update_guest_debug()).
*/
continue;
}
}
val = arm_cpu->cpreg_values[hvf_sreg_match[i].cp_idx];
ret = hv_vcpu_set_sys_reg(cpu->hvf->fd, hvf_sreg_match[i].reg, val);
assert_hvf_ok(ret);
@ -933,6 +1273,78 @@ static int hvf_sysreg_read(CPUState *cpu, uint32_t reg, uint32_t rt)
hvf_raise_exception(cpu, EXCP_UDEF, syn_uncategorized());
}
break;
case SYSREG_DBGBVR0_EL1:
case SYSREG_DBGBVR1_EL1:
case SYSREG_DBGBVR2_EL1:
case SYSREG_DBGBVR3_EL1:
case SYSREG_DBGBVR4_EL1:
case SYSREG_DBGBVR5_EL1:
case SYSREG_DBGBVR6_EL1:
case SYSREG_DBGBVR7_EL1:
case SYSREG_DBGBVR8_EL1:
case SYSREG_DBGBVR9_EL1:
case SYSREG_DBGBVR10_EL1:
case SYSREG_DBGBVR11_EL1:
case SYSREG_DBGBVR12_EL1:
case SYSREG_DBGBVR13_EL1:
case SYSREG_DBGBVR14_EL1:
case SYSREG_DBGBVR15_EL1:
val = env->cp15.dbgbvr[SYSREG_CRM(reg)];
break;
case SYSREG_DBGBCR0_EL1:
case SYSREG_DBGBCR1_EL1:
case SYSREG_DBGBCR2_EL1:
case SYSREG_DBGBCR3_EL1:
case SYSREG_DBGBCR4_EL1:
case SYSREG_DBGBCR5_EL1:
case SYSREG_DBGBCR6_EL1:
case SYSREG_DBGBCR7_EL1:
case SYSREG_DBGBCR8_EL1:
case SYSREG_DBGBCR9_EL1:
case SYSREG_DBGBCR10_EL1:
case SYSREG_DBGBCR11_EL1:
case SYSREG_DBGBCR12_EL1:
case SYSREG_DBGBCR13_EL1:
case SYSREG_DBGBCR14_EL1:
case SYSREG_DBGBCR15_EL1:
val = env->cp15.dbgbcr[SYSREG_CRM(reg)];
break;
case SYSREG_DBGWVR0_EL1:
case SYSREG_DBGWVR1_EL1:
case SYSREG_DBGWVR2_EL1:
case SYSREG_DBGWVR3_EL1:
case SYSREG_DBGWVR4_EL1:
case SYSREG_DBGWVR5_EL1:
case SYSREG_DBGWVR6_EL1:
case SYSREG_DBGWVR7_EL1:
case SYSREG_DBGWVR8_EL1:
case SYSREG_DBGWVR9_EL1:
case SYSREG_DBGWVR10_EL1:
case SYSREG_DBGWVR11_EL1:
case SYSREG_DBGWVR12_EL1:
case SYSREG_DBGWVR13_EL1:
case SYSREG_DBGWVR14_EL1:
case SYSREG_DBGWVR15_EL1:
val = env->cp15.dbgwvr[SYSREG_CRM(reg)];
break;
case SYSREG_DBGWCR0_EL1:
case SYSREG_DBGWCR1_EL1:
case SYSREG_DBGWCR2_EL1:
case SYSREG_DBGWCR3_EL1:
case SYSREG_DBGWCR4_EL1:
case SYSREG_DBGWCR5_EL1:
case SYSREG_DBGWCR6_EL1:
case SYSREG_DBGWCR7_EL1:
case SYSREG_DBGWCR8_EL1:
case SYSREG_DBGWCR9_EL1:
case SYSREG_DBGWCR10_EL1:
case SYSREG_DBGWCR11_EL1:
case SYSREG_DBGWCR12_EL1:
case SYSREG_DBGWCR13_EL1:
case SYSREG_DBGWCR14_EL1:
case SYSREG_DBGWCR15_EL1:
val = env->cp15.dbgwcr[SYSREG_CRM(reg)];
break;
default:
if (is_id_sysreg(reg)) {
/* ID system registers read as RES0 */
@ -1172,6 +1584,81 @@ static int hvf_sysreg_write(CPUState *cpu, uint32_t reg, uint64_t val)
hvf_raise_exception(cpu, EXCP_UDEF, syn_uncategorized());
}
break;
case SYSREG_MDSCR_EL1:
env->cp15.mdscr_el1 = val;
break;
case SYSREG_DBGBVR0_EL1:
case SYSREG_DBGBVR1_EL1:
case SYSREG_DBGBVR2_EL1:
case SYSREG_DBGBVR3_EL1:
case SYSREG_DBGBVR4_EL1:
case SYSREG_DBGBVR5_EL1:
case SYSREG_DBGBVR6_EL1:
case SYSREG_DBGBVR7_EL1:
case SYSREG_DBGBVR8_EL1:
case SYSREG_DBGBVR9_EL1:
case SYSREG_DBGBVR10_EL1:
case SYSREG_DBGBVR11_EL1:
case SYSREG_DBGBVR12_EL1:
case SYSREG_DBGBVR13_EL1:
case SYSREG_DBGBVR14_EL1:
case SYSREG_DBGBVR15_EL1:
env->cp15.dbgbvr[SYSREG_CRM(reg)] = val;
break;
case SYSREG_DBGBCR0_EL1:
case SYSREG_DBGBCR1_EL1:
case SYSREG_DBGBCR2_EL1:
case SYSREG_DBGBCR3_EL1:
case SYSREG_DBGBCR4_EL1:
case SYSREG_DBGBCR5_EL1:
case SYSREG_DBGBCR6_EL1:
case SYSREG_DBGBCR7_EL1:
case SYSREG_DBGBCR8_EL1:
case SYSREG_DBGBCR9_EL1:
case SYSREG_DBGBCR10_EL1:
case SYSREG_DBGBCR11_EL1:
case SYSREG_DBGBCR12_EL1:
case SYSREG_DBGBCR13_EL1:
case SYSREG_DBGBCR14_EL1:
case SYSREG_DBGBCR15_EL1:
env->cp15.dbgbcr[SYSREG_CRM(reg)] = val;
break;
case SYSREG_DBGWVR0_EL1:
case SYSREG_DBGWVR1_EL1:
case SYSREG_DBGWVR2_EL1:
case SYSREG_DBGWVR3_EL1:
case SYSREG_DBGWVR4_EL1:
case SYSREG_DBGWVR5_EL1:
case SYSREG_DBGWVR6_EL1:
case SYSREG_DBGWVR7_EL1:
case SYSREG_DBGWVR8_EL1:
case SYSREG_DBGWVR9_EL1:
case SYSREG_DBGWVR10_EL1:
case SYSREG_DBGWVR11_EL1:
case SYSREG_DBGWVR12_EL1:
case SYSREG_DBGWVR13_EL1:
case SYSREG_DBGWVR14_EL1:
case SYSREG_DBGWVR15_EL1:
env->cp15.dbgwvr[SYSREG_CRM(reg)] = val;
break;
case SYSREG_DBGWCR0_EL1:
case SYSREG_DBGWCR1_EL1:
case SYSREG_DBGWCR2_EL1:
case SYSREG_DBGWCR3_EL1:
case SYSREG_DBGWCR4_EL1:
case SYSREG_DBGWCR5_EL1:
case SYSREG_DBGWCR6_EL1:
case SYSREG_DBGWCR7_EL1:
case SYSREG_DBGWCR8_EL1:
case SYSREG_DBGWCR9_EL1:
case SYSREG_DBGWCR10_EL1:
case SYSREG_DBGWCR11_EL1:
case SYSREG_DBGWCR12_EL1:
case SYSREG_DBGWCR13_EL1:
case SYSREG_DBGWCR14_EL1:
case SYSREG_DBGWCR15_EL1:
env->cp15.dbgwcr[SYSREG_CRM(reg)] = val;
break;
default:
cpu_synchronize_state(cpu);
trace_hvf_unhandled_sysreg_write(env->pc, reg,
@ -1317,11 +1804,13 @@ int hvf_vcpu_exec(CPUState *cpu)
{
ARMCPU *arm_cpu = ARM_CPU(cpu);
CPUARMState *env = &arm_cpu->env;
int ret;
hv_vcpu_exit_t *hvf_exit = cpu->hvf->exit;
hv_return_t r;
bool advance_pc = false;
if (hvf_inject_interrupts(cpu)) {
if (!(cpu->singlestep_enabled & SSTEP_NOIRQ) &&
hvf_inject_interrupts(cpu)) {
return EXCP_INTERRUPT;
}
@ -1339,6 +1828,7 @@ int hvf_vcpu_exec(CPUState *cpu)
uint64_t syndrome = hvf_exit->exception.syndrome;
uint32_t ec = syn_get_ec(syndrome);
ret = 0;
qemu_mutex_lock_iothread();
switch (exit_reason) {
case HV_EXIT_REASON_EXCEPTION:
@ -1358,6 +1848,49 @@ int hvf_vcpu_exec(CPUState *cpu)
hvf_sync_vtimer(cpu);
switch (ec) {
case EC_SOFTWARESTEP: {
ret = EXCP_DEBUG;
if (!cpu->singlestep_enabled) {
error_report("EC_SOFTWARESTEP but single-stepping not enabled");
}
break;
}
case EC_AA64_BKPT: {
ret = EXCP_DEBUG;
cpu_synchronize_state(cpu);
if (!hvf_find_sw_breakpoint(cpu, env->pc)) {
/* Re-inject into the guest */
ret = 0;
hvf_raise_exception(cpu, EXCP_BKPT, syn_aa64_bkpt(0));
}
break;
}
case EC_BREAKPOINT: {
ret = EXCP_DEBUG;
cpu_synchronize_state(cpu);
if (!find_hw_breakpoint(cpu, env->pc)) {
error_report("EC_BREAKPOINT but unknown hw breakpoint");
}
break;
}
case EC_WATCHPOINT: {
ret = EXCP_DEBUG;
cpu_synchronize_state(cpu);
CPUWatchpoint *wp =
find_hw_watchpoint(cpu, hvf_exit->exception.virtual_address);
if (!wp) {
error_report("EXCP_DEBUG but unknown hw watchpoint");
}
cpu->watchpoint_hit = wp;
break;
}
case EC_DATAABORT: {
bool isv = syndrome & ARM_EL_ISV;
bool iswrite = (syndrome >> 6) & 1;
@ -1462,9 +1995,14 @@ int hvf_vcpu_exec(CPUState *cpu)
pc += 4;
r = hv_vcpu_set_reg(cpu->hvf->fd, HV_REG_PC, pc);
assert_hvf_ok(r);
/* Handle single-stepping over instructions which trigger a VM exit */
if (cpu->singlestep_enabled) {
ret = EXCP_DEBUG;
}
}
return 0;
return ret;
}
static const VMStateDescription vmstate_hvf_vtimer = {
@ -1496,5 +2034,213 @@ int hvf_arch_init(void)
hvf_state->vtimer_offset = mach_absolute_time();
vmstate_register(NULL, 0, &vmstate_hvf_vtimer, &vtimer);
qemu_add_vm_change_state_handler(hvf_vm_state_change, &vtimer);
hvf_arm_init_debug();
return 0;
}
static const uint32_t brk_insn = 0xd4200000;
int hvf_arch_insert_sw_breakpoint(CPUState *cpu, struct hvf_sw_breakpoint *bp)
{
if (cpu_memory_rw_debug(cpu, bp->pc, (uint8_t *)&bp->saved_insn, 4, 0) ||
cpu_memory_rw_debug(cpu, bp->pc, (uint8_t *)&brk_insn, 4, 1)) {
return -EINVAL;
}
return 0;
}
int hvf_arch_remove_sw_breakpoint(CPUState *cpu, struct hvf_sw_breakpoint *bp)
{
static uint32_t brk;
if (cpu_memory_rw_debug(cpu, bp->pc, (uint8_t *)&brk, 4, 0) ||
brk != brk_insn ||
cpu_memory_rw_debug(cpu, bp->pc, (uint8_t *)&bp->saved_insn, 4, 1)) {
return -EINVAL;
}
return 0;
}
int hvf_arch_insert_hw_breakpoint(target_ulong addr, target_ulong len, int type)
{
switch (type) {
case GDB_BREAKPOINT_HW:
return insert_hw_breakpoint(addr);
case GDB_WATCHPOINT_READ:
case GDB_WATCHPOINT_WRITE:
case GDB_WATCHPOINT_ACCESS:
return insert_hw_watchpoint(addr, len, type);
default:
return -ENOSYS;
}
}
int hvf_arch_remove_hw_breakpoint(target_ulong addr, target_ulong len, int type)
{
switch (type) {
case GDB_BREAKPOINT_HW:
return delete_hw_breakpoint(addr);
case GDB_WATCHPOINT_READ:
case GDB_WATCHPOINT_WRITE:
case GDB_WATCHPOINT_ACCESS:
return delete_hw_watchpoint(addr, len, type);
default:
return -ENOSYS;
}
}
void hvf_arch_remove_all_hw_breakpoints(void)
{
if (cur_hw_wps > 0) {
g_array_remove_range(hw_watchpoints, 0, cur_hw_wps);
}
if (cur_hw_bps > 0) {
g_array_remove_range(hw_breakpoints, 0, cur_hw_bps);
}
}
/*
* Update the vCPU with the gdbstub's view of debug registers. This view
* consists of all hardware breakpoints and watchpoints inserted so far while
* debugging the guest.
*/
static void hvf_put_gdbstub_debug_registers(CPUState *cpu)
{
hv_return_t r = HV_SUCCESS;
int i;
for (i = 0; i < cur_hw_bps; i++) {
HWBreakpoint *bp = get_hw_bp(i);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgbcr_regs[i], bp->bcr);
assert_hvf_ok(r);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgbvr_regs[i], bp->bvr);
assert_hvf_ok(r);
}
for (i = cur_hw_bps; i < max_hw_bps; i++) {
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgbcr_regs[i], 0);
assert_hvf_ok(r);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgbvr_regs[i], 0);
assert_hvf_ok(r);
}
for (i = 0; i < cur_hw_wps; i++) {
HWWatchpoint *wp = get_hw_wp(i);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgwcr_regs[i], wp->wcr);
assert_hvf_ok(r);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgwvr_regs[i], wp->wvr);
assert_hvf_ok(r);
}
for (i = cur_hw_wps; i < max_hw_wps; i++) {
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgwcr_regs[i], 0);
assert_hvf_ok(r);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgwvr_regs[i], 0);
assert_hvf_ok(r);
}
}
/*
* Update the vCPU with the guest's view of debug registers. This view is kept
* in the environment at all times.
*/
static void hvf_put_guest_debug_registers(CPUState *cpu)
{
ARMCPU *arm_cpu = ARM_CPU(cpu);
CPUARMState *env = &arm_cpu->env;
hv_return_t r = HV_SUCCESS;
int i;
for (i = 0; i < max_hw_bps; i++) {
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgbcr_regs[i],
env->cp15.dbgbcr[i]);
assert_hvf_ok(r);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgbvr_regs[i],
env->cp15.dbgbvr[i]);
assert_hvf_ok(r);
}
for (i = 0; i < max_hw_wps; i++) {
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgwcr_regs[i],
env->cp15.dbgwcr[i]);
assert_hvf_ok(r);
r = hv_vcpu_set_sys_reg(cpu->hvf->fd, dbgwvr_regs[i],
env->cp15.dbgwvr[i]);
assert_hvf_ok(r);
}
}
static inline bool hvf_arm_hw_debug_active(CPUState *cpu)
{
return ((cur_hw_wps > 0) || (cur_hw_bps > 0));
}
static void hvf_arch_set_traps(void)
{
CPUState *cpu;
bool should_enable_traps = false;
hv_return_t r = HV_SUCCESS;
/* Check whether guest debugging is enabled for at least one vCPU; if it
* is, enable exiting the guest on all vCPUs */
CPU_FOREACH(cpu) {
should_enable_traps |= cpu->hvf->guest_debug_enabled;
}
CPU_FOREACH(cpu) {
/* Set whether debug exceptions exit the guest */
r = hv_vcpu_set_trap_debug_exceptions(cpu->hvf->fd,
should_enable_traps);
assert_hvf_ok(r);
/* Set whether accesses to debug registers exit the guest */
r = hv_vcpu_set_trap_debug_reg_accesses(cpu->hvf->fd,
should_enable_traps);
assert_hvf_ok(r);
}
}
void hvf_arch_update_guest_debug(CPUState *cpu)
{
ARMCPU *arm_cpu = ARM_CPU(cpu);
CPUARMState *env = &arm_cpu->env;
/* Check whether guest debugging is enabled */
cpu->hvf->guest_debug_enabled = cpu->singlestep_enabled ||
hvf_sw_breakpoints_active(cpu) ||
hvf_arm_hw_debug_active(cpu);
/* Update debug registers */
if (cpu->hvf->guest_debug_enabled) {
hvf_put_gdbstub_debug_registers(cpu);
} else {
hvf_put_guest_debug_registers(cpu);
}
cpu_synchronize_state(cpu);
/* Enable/disable single-stepping */
if (cpu->singlestep_enabled) {
env->cp15.mdscr_el1 =
deposit64(env->cp15.mdscr_el1, MDSCR_EL1_SS_SHIFT, 1, 1);
pstate_write(env, pstate_read(env) | PSTATE_SS);
} else {
env->cp15.mdscr_el1 =
deposit64(env->cp15.mdscr_el1, MDSCR_EL1_SS_SHIFT, 1, 0);
}
/* Enable/disable Breakpoint exceptions */
if (hvf_arm_hw_debug_active(cpu)) {
env->cp15.mdscr_el1 =
deposit64(env->cp15.mdscr_el1, MDSCR_EL1_MDE_SHIFT, 1, 1);
} else {
env->cp15.mdscr_el1 =
deposit64(env->cp15.mdscr_el1, MDSCR_EL1_MDE_SHIFT, 1, 0);
}
hvf_arch_set_traps();
}
inline bool hvf_arch_supports_guest_debug(void)
{
return true;
}

7
target/arm/hvf_arm.h
View File

@ -13,6 +13,13 @@
#include "cpu.h"
/**
* hvf_arm_init_debug() - initialize guest debug capabilities
*
* Should be called only once before using guest debug capabilities.
*/
void hvf_arm_init_debug(void);
void hvf_arm_set_cpu_features_from_host(ARMCPU *cpu);
#endif

253
target/arm/hyp_gdbstub.c Normal file
View File

@ -0,0 +1,253 @@
/*
* ARM implementation of KVM and HVF hooks, 64 bit specific code
*
* Copyright Mian-M. Hamayun 2013, Virtual Open Systems
* Copyright Alex Bennée 2014, Linaro
*
* This work is licensed under the terms of the GNU GPL, version 2 or later.
* See the COPYING file in the top-level directory.
*
*/
#include "qemu/osdep.h"
#include "cpu.h"
#include "internals.h"
#include "exec/gdbstub.h"
/* Maximum and current break/watch point counts */
int max_hw_bps, max_hw_wps;
GArray *hw_breakpoints, *hw_watchpoints;
/**
* insert_hw_breakpoint()
* @addr: address of breakpoint
*
* See ARM ARM D2.9.1 for details but here we are only going to create
* simple un-linked breakpoints (i.e. we don't chain breakpoints
* together to match address and context or vmid). The hardware is
* capable of fancier matching but that will require exposing that
* fanciness to GDB's interface
*
* DBGBCR<n>_EL1, Debug Breakpoint Control Registers
*
* 31 24 23 20 19 16 15 14 13 12 9 8 5 4 3 2 1 0
* +------+------+-------+-----+----+------+-----+------+-----+---+
* | RES0 | BT | LBN | SSC | HMC| RES0 | BAS | RES0 | PMC | E |
* +------+------+-------+-----+----+------+-----+------+-----+---+
*
* BT: Breakpoint type (0 = unlinked address match)
* LBN: Linked BP number (0 = unused)
* SSC/HMC/PMC: Security, Higher and Priv access control (Table D-12)
* BAS: Byte Address Select (RES1 for AArch64)
* E: Enable bit
*
* DBGBVR<n>_EL1, Debug Breakpoint Value Registers
*
* 63 53 52 49 48 2 1 0
* +------+-----------+----------+-----+
* | RESS | VA[52:49] | VA[48:2] | 0 0 |
* +------+-----------+----------+-----+
*
* Depending on the addressing mode bits the top bits of the register
* are a sign extension of the highest applicable VA bit. Some
* versions of GDB don't do it correctly so we ensure they are correct
* here so future PC comparisons will work properly.
*/
int insert_hw_breakpoint(target_ulong addr)
{
HWBreakpoint brk = {
.bcr = 0x1, /* BCR E=1, enable */
.bvr = sextract64(addr, 0, 53)
};
if (cur_hw_bps >= max_hw_bps) {
return -ENOBUFS;
}
brk.bcr = deposit32(brk.bcr, 1, 2, 0x3); /* PMC = 11 */
brk.bcr = deposit32(brk.bcr, 5, 4, 0xf); /* BAS = RES1 */
g_array_append_val(hw_breakpoints, brk);
return 0;
}
/**
* delete_hw_breakpoint()
* @pc: address of breakpoint
*
* Delete a breakpoint and shuffle any above down
*/
int delete_hw_breakpoint(target_ulong pc)
{
int i;
for (i = 0; i < hw_breakpoints->len; i++) {
HWBreakpoint *brk = get_hw_bp(i);
if (brk->bvr == pc) {
g_array_remove_index(hw_breakpoints, i);
return 0;
}
}
return -ENOENT;
}
/**
* insert_hw_watchpoint()
* @addr: address of watch point
* @len: size of area
* @type: type of watch point
*
* See ARM ARM D2.10. As with the breakpoints we can do some advanced
* stuff if we want to. The watch points can be linked with the break
* points above to make them context aware. However for simplicity
* currently we only deal with simple read/write watch points.
*
* D7.3.11 DBGWCR<n>_EL1, Debug Watchpoint Control Registers
*
* 31 29 28 24 23 21 20 19 16 15 14 13 12 5 4 3 2 1 0
* +------+-------+------+----+-----+-----+-----+-----+-----+-----+---+
* | RES0 | MASK | RES0 | WT | LBN | SSC | HMC | BAS | LSC | PAC | E |
* +------+-------+------+----+-----+-----+-----+-----+-----+-----+---+
*
* MASK: num bits addr mask (0=none,01/10=res,11=3 bits (8 bytes))
* WT: 0 - unlinked, 1 - linked (not currently used)
* LBN: Linked BP number (not currently used)
* SSC/HMC/PAC: Security, Higher and Priv access control (Table D2-11)
* BAS: Byte Address Select
* LSC: Load/Store control (01: load, 10: store, 11: both)
* E: Enable
*
* The bottom 2 bits of the value register are masked. Therefore to
* break on any sizes smaller than an unaligned word you need to set
* MASK=0, BAS=bit per byte in question. For larger regions (^2) you
* need to ensure you mask the address as required and set BAS=0xff
*/
int insert_hw_watchpoint(target_ulong addr, target_ulong len, int type)
{
HWWatchpoint wp = {
.wcr = R_DBGWCR_E_MASK, /* E=1, enable */
.wvr = addr & (~0x7ULL),
.details = { .vaddr = addr, .len = len }
};
if (cur_hw_wps >= max_hw_wps) {
return -ENOBUFS;
}
/*
* HMC=0 SSC=0 PAC=3 will hit EL0 or EL1, any security state,
* valid whether EL3 is implemented or not
*/
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, PAC, 3);
switch (type) {
case GDB_WATCHPOINT_READ:
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, LSC, 1);
wp.details.flags = BP_MEM_READ;
break;
case GDB_WATCHPOINT_WRITE:
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, LSC, 2);
wp.details.flags = BP_MEM_WRITE;
break;
case GDB_WATCHPOINT_ACCESS:
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, LSC, 3);
wp.details.flags = BP_MEM_ACCESS;
break;
default:
g_assert_not_reached();
break;
}
if (len <= 8) {
/* we align the address and set the bits in BAS */
int off = addr & 0x7;
int bas = (1 << len) - 1;
wp.wcr = deposit32(wp.wcr, 5 + off, 8 - off, bas);
} else {
/* For ranges above 8 bytes we need to be a power of 2 */
if (is_power_of_2(len)) {
int bits = ctz64(len);
wp.wvr &= ~((1 << bits) - 1);
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, MASK, bits);
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, BAS, 0xff);
} else {
return -ENOBUFS;
}
}
g_array_append_val(hw_watchpoints, wp);
return 0;
}
bool check_watchpoint_in_range(int i, target_ulong addr)
{
HWWatchpoint *wp = get_hw_wp(i);
uint64_t addr_top, addr_bottom = wp->wvr;
int bas = extract32(wp->wcr, 5, 8);
int mask = extract32(wp->wcr, 24, 4);
if (mask) {
addr_top = addr_bottom + (1 << mask);
} else {
/*
* BAS must be contiguous but can offset against the base
* address in DBGWVR
*/
addr_bottom = addr_bottom + ctz32(bas);
addr_top = addr_bottom + clo32(bas);
}
if (addr >= addr_bottom && addr <= addr_top) {
return true;
}
return false;
}
/**
* delete_hw_watchpoint()
* @addr: address of breakpoint
*
* Delete a breakpoint and shuffle any above down
*/
int delete_hw_watchpoint(target_ulong addr, target_ulong len, int type)
{
int i;
for (i = 0; i < cur_hw_wps; i++) {
if (check_watchpoint_in_range(i, addr)) {
g_array_remove_index(hw_watchpoints, i);
return 0;
}
}
return -ENOENT;
}
bool find_hw_breakpoint(CPUState *cpu, target_ulong pc)
{
int i;
for (i = 0; i < cur_hw_bps; i++) {
HWBreakpoint *bp = get_hw_bp(i);
if (bp->bvr == pc) {
return true;
}
}
return false;
}
CPUWatchpoint *find_hw_watchpoint(CPUState *cpu, target_ulong addr)
{
int i;
for (i = 0; i < cur_hw_wps; i++) {
if (check_watchpoint_in_range(i, addr)) {
return &get_hw_wp(i)->details;
}
}
return NULL;
}

53
target/arm/internals.h
View File

@ -1242,7 +1242,8 @@ FIELD(MTEDESC, MIDX, 0, 4)
FIELD(MTEDESC, TBI, 4, 2)
FIELD(MTEDESC, TCMA, 6, 2)
FIELD(MTEDESC, WRITE, 8, 1)
FIELD(MTEDESC, SIZEM1, 9, SIMD_DATA_BITS - 9) /* size - 1 */
FIELD(MTEDESC, ALIGN, 9, 3)
FIELD(MTEDESC, SIZEM1, 12, SIMD_DATA_BITS - 12) /* size - 1 */
bool mte_probe(CPUARMState *env, uint32_t desc, uint64_t ptr);
uint64_t mte_check(CPUARMState *env, uint32_t desc, uint64_t ptr, uintptr_t ra);
@ -1447,4 +1448,54 @@ static inline bool arm_fgt_active(CPUARMState *env, int el)
}
void assert_hflags_rebuild_correctly(CPUARMState *env);
/*
* Although the ARM implementation of hardware assisted debugging
* allows for different breakpoints per-core, the current GDB
* interface treats them as a global pool of registers (which seems to
* be the case for x86, ppc and s390). As a result we store one copy
* of registers which is used for all active cores.
*
* Write access is serialised by virtue of the GDB protocol which
* updates things. Read access (i.e. when the values are copied to the
* vCPU) is also gated by GDB's run control.
*
* This is not unreasonable as most of the time debugging kernels you
* never know which core will eventually execute your function.
*/
typedef struct {
uint64_t bcr;
uint64_t bvr;
} HWBreakpoint;
/*
* The watchpoint registers can cover more area than the requested
* watchpoint so we need to store the additional information
* somewhere. We also need to supply a CPUWatchpoint to the GDB stub
* when the watchpoint is hit.
*/
typedef struct {
uint64_t wcr;
uint64_t wvr;
CPUWatchpoint details;
} HWWatchpoint;
/* Maximum and current break/watch point counts */
extern int max_hw_bps, max_hw_wps;
extern GArray *hw_breakpoints, *hw_watchpoints;
#define cur_hw_wps (hw_watchpoints->len)
#define cur_hw_bps (hw_breakpoints->len)
#define get_hw_bp(i) (&g_array_index(hw_breakpoints, HWBreakpoint, i))
#define get_hw_wp(i) (&g_array_index(hw_watchpoints, HWWatchpoint, i))
bool find_hw_breakpoint(CPUState *cpu, target_ulong pc);
int insert_hw_breakpoint(target_ulong pc);
int delete_hw_breakpoint(target_ulong pc);
bool check_watchpoint_in_range(int i, target_ulong addr);
CPUWatchpoint *find_hw_watchpoint(CPUState *cpu, target_ulong addr);
int insert_hw_watchpoint(target_ulong addr, target_ulong len, int type);
int delete_hw_watchpoint(target_ulong addr, target_ulong len, int type);
#endif

276
target/arm/kvm64.c
View File

@ -34,46 +34,6 @@
static bool have_guest_debug;
/*
* Although the ARM implementation of hardware assisted debugging
* allows for different breakpoints per-core, the current GDB
* interface treats them as a global pool of registers (which seems to
* be the case for x86, ppc and s390). As a result we store one copy
* of registers which is used for all active cores.
*
* Write access is serialised by virtue of the GDB protocol which
* updates things. Read access (i.e. when the values are copied to the
* vCPU) is also gated by GDB's run control.
*
* This is not unreasonable as most of the time debugging kernels you
* never know which core will eventually execute your function.
*/
typedef struct {
uint64_t bcr;
uint64_t bvr;
} HWBreakpoint;
/* The watchpoint registers can cover more area than the requested
* watchpoint so we need to store the additional information
* somewhere. We also need to supply a CPUWatchpoint to the GDB stub
* when the watchpoint is hit.
*/
typedef struct {
uint64_t wcr;
uint64_t wvr;
CPUWatchpoint details;
} HWWatchpoint;
/* Maximum and current break/watch point counts */
int max_hw_bps, max_hw_wps;
GArray *hw_breakpoints, *hw_watchpoints;
#define cur_hw_wps (hw_watchpoints->len)
#define cur_hw_bps (hw_breakpoints->len)
#define get_hw_bp(i) (&g_array_index(hw_breakpoints, HWBreakpoint, i))
#define get_hw_wp(i) (&g_array_index(hw_watchpoints, HWWatchpoint, i))
void kvm_arm_init_debug(KVMState *s)
{
have_guest_debug = kvm_check_extension(s,
@ -89,217 +49,6 @@ void kvm_arm_init_debug(KVMState *s)
return;
}
/**
* insert_hw_breakpoint()
* @addr: address of breakpoint
*
* See ARM ARM D2.9.1 for details but here we are only going to create
* simple un-linked breakpoints (i.e. we don't chain breakpoints
* together to match address and context or vmid). The hardware is
* capable of fancier matching but that will require exposing that
* fanciness to GDB's interface
*
* DBGBCR<n>_EL1, Debug Breakpoint Control Registers
*
* 31 24 23 20 19 16 15 14 13 12 9 8 5 4 3 2 1 0
* +------+------+-------+-----+----+------+-----+------+-----+---+
* | RES0 | BT | LBN | SSC | HMC| RES0 | BAS | RES0 | PMC | E |
* +------+------+-------+-----+----+------+-----+------+-----+---+
*
* BT: Breakpoint type (0 = unlinked address match)
* LBN: Linked BP number (0 = unused)
* SSC/HMC/PMC: Security, Higher and Priv access control (Table D-12)
* BAS: Byte Address Select (RES1 for AArch64)
* E: Enable bit
*
* DBGBVR<n>_EL1, Debug Breakpoint Value Registers
*
* 63 53 52 49 48 2 1 0
* +------+-----------+----------+-----+
* | RESS | VA[52:49] | VA[48:2] | 0 0 |
* +------+-----------+----------+-----+
*
* Depending on the addressing mode bits the top bits of the register
* are a sign extension of the highest applicable VA bit. Some
* versions of GDB don't do it correctly so we ensure they are correct
* here so future PC comparisons will work properly.
*/
static int insert_hw_breakpoint(target_ulong addr)
{
HWBreakpoint brk = {
.bcr = 0x1, /* BCR E=1, enable */
.bvr = sextract64(addr, 0, 53)
};
if (cur_hw_bps >= max_hw_bps) {
return -ENOBUFS;
}
brk.bcr = deposit32(brk.bcr, 1, 2, 0x3); /* PMC = 11 */
brk.bcr = deposit32(brk.bcr, 5, 4, 0xf); /* BAS = RES1 */
g_array_append_val(hw_breakpoints, brk);
return 0;
}
/**
* delete_hw_breakpoint()
* @pc: address of breakpoint
*
* Delete a breakpoint and shuffle any above down
*/
static int delete_hw_breakpoint(target_ulong pc)
{
int i;
for (i = 0; i < hw_breakpoints->len; i++) {
HWBreakpoint *brk = get_hw_bp(i);
if (brk->bvr == pc) {
g_array_remove_index(hw_breakpoints, i);
return 0;
}
}
return -ENOENT;
}
/**
* insert_hw_watchpoint()
* @addr: address of watch point
* @len: size of area
* @type: type of watch point
*
* See ARM ARM D2.10. As with the breakpoints we can do some advanced
* stuff if we want to. The watch points can be linked with the break
* points above to make them context aware. However for simplicity
* currently we only deal with simple read/write watch points.
*
* D7.3.11 DBGWCR<n>_EL1, Debug Watchpoint Control Registers
*
* 31 29 28 24 23 21 20 19 16 15 14 13 12 5 4 3 2 1 0
* +------+-------+------+----+-----+-----+-----+-----+-----+-----+---+
* | RES0 | MASK | RES0 | WT | LBN | SSC | HMC | BAS | LSC | PAC | E |
* +------+-------+------+----+-----+-----+-----+-----+-----+-----+---+
*
* MASK: num bits addr mask (0=none,01/10=res,11=3 bits (8 bytes))
* WT: 0 - unlinked, 1 - linked (not currently used)
* LBN: Linked BP number (not currently used)
* SSC/HMC/PAC: Security, Higher and Priv access control (Table D2-11)
* BAS: Byte Address Select
* LSC: Load/Store control (01: load, 10: store, 11: both)
* E: Enable
*
* The bottom 2 bits of the value register are masked. Therefore to
* break on any sizes smaller than an unaligned word you need to set
* MASK=0, BAS=bit per byte in question. For larger regions (^2) you
* need to ensure you mask the address as required and set BAS=0xff
*/
static int insert_hw_watchpoint(target_ulong addr,
target_ulong len, int type)
{
HWWatchpoint wp = {
.wcr = R_DBGWCR_E_MASK, /* E=1, enable */
.wvr = addr & (~0x7ULL),
.details = { .vaddr = addr, .len = len }
};
if (cur_hw_wps >= max_hw_wps) {
return -ENOBUFS;
}
/*
* HMC=0 SSC=0 PAC=3 will hit EL0 or EL1, any security state,
* valid whether EL3 is implemented or not
*/
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, PAC, 3);
switch (type) {
case GDB_WATCHPOINT_READ:
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, LSC, 1);
wp.details.flags = BP_MEM_READ;
break;
case GDB_WATCHPOINT_WRITE:
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, LSC, 2);
wp.details.flags = BP_MEM_WRITE;
break;
case GDB_WATCHPOINT_ACCESS:
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, LSC, 3);
wp.details.flags = BP_MEM_ACCESS;
break;
default:
g_assert_not_reached();
break;
}
if (len <= 8) {
/* we align the address and set the bits in BAS */
int off = addr & 0x7;
int bas = (1 << len) - 1;
wp.wcr = deposit32(wp.wcr, 5 + off, 8 - off, bas);
} else {
/* For ranges above 8 bytes we need to be a power of 2 */
if (is_power_of_2(len)) {
int bits = ctz64(len);
wp.wvr &= ~((1 << bits) - 1);
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, MASK, bits);
wp.wcr = FIELD_DP64(wp.wcr, DBGWCR, BAS, 0xff);
} else {
return -ENOBUFS;
}
}
g_array_append_val(hw_watchpoints, wp);
return 0;
}
static bool check_watchpoint_in_range(int i, target_ulong addr)
{
HWWatchpoint *wp = get_hw_wp(i);
uint64_t addr_top, addr_bottom = wp->wvr;
int bas = extract32(wp->wcr, 5, 8);
int mask = extract32(wp->wcr, 24, 4);
if (mask) {
addr_top = addr_bottom + (1 << mask);
} else {
/* BAS must be contiguous but can offset against the base
* address in DBGWVR */
addr_bottom = addr_bottom + ctz32(bas);
addr_top = addr_bottom + clo32(bas);
}
if (addr >= addr_bottom && addr <= addr_top) {
return true;
}
return false;
}
/**
* delete_hw_watchpoint()
* @addr: address of breakpoint
*
* Delete a breakpoint and shuffle any above down
*/
static int delete_hw_watchpoint(target_ulong addr,
target_ulong len, int type)
{
int i;
for (i = 0; i < cur_hw_wps; i++) {
if (check_watchpoint_in_range(i, addr)) {
g_array_remove_index(hw_watchpoints, i);
return 0;
}
}
return -ENOENT;
}
int kvm_arch_insert_hw_breakpoint(target_ulong addr,
target_ulong len, int type)
{
@ -364,31 +113,6 @@ bool kvm_arm_hw_debug_active(CPUState *cs)
return ((cur_hw_wps > 0) || (cur_hw_bps > 0));
}
static bool find_hw_breakpoint(CPUState *cpu, target_ulong pc)
{
int i;
for (i = 0; i < cur_hw_bps; i++) {
HWBreakpoint *bp = get_hw_bp(i);
if (bp->bvr == pc) {
return true;
}
}
return false;
}
static CPUWatchpoint *find_hw_watchpoint(CPUState *cpu, target_ulong addr)
{
int i;
for (i = 0; i < cur_hw_wps; i++) {
if (check_watchpoint_in_range(i, addr)) {
return &get_hw_wp(i)->details;
}
}
return NULL;
}
static bool kvm_arm_set_device_attr(CPUState *cs, struct kvm_device_attr *attr,
const char *name)
{

3
target/arm/meson.build
View File

@ -8,7 +8,8 @@ arm_ss.add(files(
))
arm_ss.add(zlib)
arm_ss.add(when: 'CONFIG_KVM', if_true: files('kvm.c', 'kvm64.c'), if_false: files('kvm-stub.c'))
arm_ss.add(when: 'CONFIG_KVM', if_true: files('hyp_gdbstub.c', 'kvm.c', 'kvm64.c'), if_false: files('kvm-stub.c'))
arm_ss.add(when: 'CONFIG_HVF', if_true: files('hyp_gdbstub.c'))
arm_ss.add(when: 'TARGET_AARCH64', if_true: files(
'cpu64.c',

1
target/arm/tcg/cpu64.c
View File

@ -644,6 +644,7 @@ void aarch64_max_tcg_initfn(Object *obj)
t = FIELD_DP64(t, ID_AA64MMFR2, IESB, 1); /* FEAT_IESB */
t = FIELD_DP64(t, ID_AA64MMFR2, VARANGE, 1); /* FEAT_LVA */
t = FIELD_DP64(t, ID_AA64MMFR2, ST, 1); /* FEAT_TTST */
t = FIELD_DP64(t, ID_AA64MMFR2, AT, 1); /* FEAT_LSE2 */
t = FIELD_DP64(t, ID_AA64MMFR2, IDS, 1); /* FEAT_IDST */
t = FIELD_DP64(t, ID_AA64MMFR2, FWB, 1); /* FEAT_S2FWB */
t = FIELD_DP64(t, ID_AA64MMFR2, TTL, 1); /* FEAT_TTL */

7
target/arm/tcg/helper-a64.c
View File

@ -952,3 +952,10 @@ void HELPER(dc_zva)(CPUARMState *env, uint64_t vaddr_in)
memset(mem, 0, blocklen);
}
void HELPER(unaligned_access)(CPUARMState *env, uint64_t addr,
uint32_t access_type, uint32_t mmu_idx)
{
arm_cpu_do_unaligned_access(env_cpu(env), addr, access_type,
mmu_idx, GETPC());
}

3
target/arm/tcg/helper-a64.h
View File

@ -110,3 +110,6 @@ DEF_HELPER_FLAGS_2(st2g_stub, TCG_CALL_NO_WG, void, env, i64)
DEF_HELPER_FLAGS_2(ldgm, TCG_CALL_NO_WG, i64, env, i64)
DEF_HELPER_FLAGS_3(stgm, TCG_CALL_NO_WG, void, env, i64, i64)
DEF_HELPER_FLAGS_3(stzgm_tags, TCG_CALL_NO_WG, void, env, i64, i64)
DEF_HELPER_FLAGS_4(unaligned_access, TCG_CALL_NO_WG,
noreturn, env, i64, i32, i32)

6
target/arm/tcg/hflags.c
View File

@ -248,6 +248,12 @@ static CPUARMTBFlags rebuild_hflags_a64(CPUARMState *env, int el, int fp_el,
}
}
if (cpu_isar_feature(aa64_lse2, env_archcpu(env))) {
if (sctlr & SCTLR_nAA) {
DP_TBFLAG_A64(flags, NAA, 1);
}
}
/* Compute the condition for using AccType_UNPRIV for LDTR et al. */
if (!(env->pstate & PSTATE_UAO)) {
switch (mmu_idx) {

18
target/arm/tcg/mte_helper.c
View File

@ -785,6 +785,24 @@ uint64_t mte_check(CPUARMState *env, uint32_t desc, uint64_t ptr, uintptr_t ra)
uint64_t HELPER(mte_check)(CPUARMState *env, uint32_t desc, uint64_t ptr)
{
/*
* R_XCHFJ: Alignment check not caused by memory type is priority 1,
* higher than any translation fault. When MTE is disabled, tcg
* performs the alignment check during the code generated for the
* memory access. With MTE enabled, we must check this here before
* raising any translation fault in allocation_tag_mem.
*/
unsigned align = FIELD_EX32(desc, MTEDESC, ALIGN);
if (unlikely(align)) {
align = (1u << align) - 1;
if (unlikely(ptr & align)) {
int idx = FIELD_EX32(desc, MTEDESC, MIDX);
bool w = FIELD_EX32(desc, MTEDESC, WRITE);
MMUAccessType type = w ? MMU_DATA_STORE : MMU_DATA_LOAD;
arm_cpu_do_unaligned_access(env_cpu(env), ptr, type, idx, GETPC());
}
}
return mte_check(env, desc, ptr, GETPC());
}

477
target/arm/tcg/translate-a64.c
View File

@ -253,7 +253,7 @@ static void gen_probe_access(DisasContext *s, TCGv_i64 ptr,
*/
static TCGv_i64 gen_mte_check1_mmuidx(DisasContext *s, TCGv_i64 addr,
bool is_write, bool tag_checked,
int log2_size, bool is_unpriv,
MemOp memop, bool is_unpriv,
int core_idx)
{
if (tag_checked && s->mte_active[is_unpriv]) {
@ -264,7 +264,8 @@ static TCGv_i64 gen_mte_check1_mmuidx(DisasContext *s, TCGv_i64 addr,
desc = FIELD_DP32(desc, MTEDESC, TBI, s->tbid);
desc = FIELD_DP32(desc, MTEDESC, TCMA, s->tcma);
desc = FIELD_DP32(desc, MTEDESC, WRITE, is_write);
desc = FIELD_DP32(desc, MTEDESC, SIZEM1, (1 << log2_size) - 1);
desc = FIELD_DP32(desc, MTEDESC, ALIGN, get_alignment_bits(memop));
desc = FIELD_DP32(desc, MTEDESC, SIZEM1, memop_size(memop) - 1);
ret = tcg_temp_new_i64();
gen_helper_mte_check(ret, cpu_env, tcg_constant_i32(desc), addr);
@ -275,9 +276,9 @@ static TCGv_i64 gen_mte_check1_mmuidx(DisasContext *s, TCGv_i64 addr,
}
TCGv_i64 gen_mte_check1(DisasContext *s, TCGv_i64 addr, bool is_write,
bool tag_checked, int log2_size)
bool tag_checked, MemOp memop)
{
return gen_mte_check1_mmuidx(s, addr, is_write, tag_checked, log2_size,
return gen_mte_check1_mmuidx(s, addr, is_write, tag_checked, memop,
false, get_mem_index(s));
}
@ -285,7 +286,7 @@ TCGv_i64 gen_mte_check1(DisasContext *s, TCGv_i64 addr, bool is_write,
* For MTE, check multiple logical sequential accesses.
*/
TCGv_i64 gen_mte_checkN(DisasContext *s, TCGv_i64 addr, bool is_write,
bool tag_checked, int size)
bool tag_checked, int total_size, MemOp single_mop)
{
if (tag_checked && s->mte_active[0]) {
TCGv_i64 ret;
@ -295,7 +296,8 @@ TCGv_i64 gen_mte_checkN(DisasContext *s, TCGv_i64 addr, bool is_write,
desc = FIELD_DP32(desc, MTEDESC, TBI, s->tbid);
desc = FIELD_DP32(desc, MTEDESC, TCMA, s->tcma);
desc = FIELD_DP32(desc, MTEDESC, WRITE, is_write);
desc = FIELD_DP32(desc, MTEDESC, SIZEM1, size - 1);
desc = FIELD_DP32(desc, MTEDESC, ALIGN, get_alignment_bits(single_mop));
desc = FIELD_DP32(desc, MTEDESC, SIZEM1, total_size - 1);
ret = tcg_temp_new_i64();
gen_helper_mte_check(ret, cpu_env, tcg_constant_i32(desc), addr);
@ -305,6 +307,89 @@ TCGv_i64 gen_mte_checkN(DisasContext *s, TCGv_i64 addr, bool is_write,
return clean_data_tbi(s, addr);
}
/*
* Generate the special alignment check that applies to AccType_ATOMIC
* and AccType_ORDERED insns under FEAT_LSE2: the access need not be
* naturally aligned, but it must not cross a 16-byte boundary.
* See AArch64.CheckAlignment().
*/
static void check_lse2_align(DisasContext *s, int rn, int imm,
bool is_write, MemOp mop)
{
TCGv_i32 tmp;
TCGv_i64 addr;
TCGLabel *over_label;
MMUAccessType type;
int mmu_idx;
tmp = tcg_temp_new_i32();
tcg_gen_extrl_i64_i32(tmp, cpu_reg_sp(s, rn));
tcg_gen_addi_i32(tmp, tmp, imm & 15);
tcg_gen_andi_i32(tmp, tmp, 15);
tcg_gen_addi_i32(tmp, tmp, memop_size(mop));
over_label = gen_new_label();
tcg_gen_brcondi_i32(TCG_COND_LEU, tmp, 16, over_label);
addr = tcg_temp_new_i64();
tcg_gen_addi_i64(addr, cpu_reg_sp(s, rn), imm);
type = is_write ? MMU_DATA_STORE : MMU_DATA_LOAD,
mmu_idx = get_mem_index(s);
gen_helper_unaligned_access(cpu_env, addr, tcg_constant_i32(type),
tcg_constant_i32(mmu_idx));
gen_set_label(over_label);
}
/* Handle the alignment check for AccType_ATOMIC instructions. */
static MemOp check_atomic_align(DisasContext *s, int rn, MemOp mop)
{
MemOp size = mop & MO_SIZE;
if (size == MO_8) {
return mop;
}
/*
* If size == MO_128, this is a LDXP, and the operation is single-copy
* atomic for each doubleword, not the entire quadword; it still must
* be quadword aligned.
*/
if (size == MO_128) {
return finalize_memop_atom(s, MO_128 | MO_ALIGN,
MO_ATOM_IFALIGN_PAIR);
}
if (dc_isar_feature(aa64_lse2, s)) {
check_lse2_align(s, rn, 0, true, mop);
} else {
mop |= MO_ALIGN;
}
return finalize_memop(s, mop);
}
/* Handle the alignment check for AccType_ORDERED instructions. */
static MemOp check_ordered_align(DisasContext *s, int rn, int imm,
bool is_write, MemOp mop)
{
MemOp size = mop & MO_SIZE;
if (size == MO_8) {
return mop;
}
if (size == MO_128) {
return finalize_memop_atom(s, MO_128 | MO_ALIGN,
MO_ATOM_IFALIGN_PAIR);
}
if (!dc_isar_feature(aa64_lse2, s)) {
mop |= MO_ALIGN;
} else if (!s->naa) {
check_lse2_align(s, rn, imm, is_write, mop);
}
return finalize_memop(s, mop);
}
typedef struct DisasCompare64 {
TCGCond cond;
TCGv_i64 value;
@ -838,7 +923,6 @@ static void do_gpr_st_memidx(DisasContext *s, TCGv_i64 source,
unsigned int iss_srt,
bool iss_sf, bool iss_ar)
{
memop = finalize_memop(s, memop);
tcg_gen_qemu_st_i64(source, tcg_addr, memidx, memop);
if (iss_valid) {
@ -873,7 +957,6 @@ static void do_gpr_ld_memidx(DisasContext *s, TCGv_i64 dest, TCGv_i64 tcg_addr,
bool iss_valid, unsigned int iss_srt,
bool iss_sf, bool iss_ar)
{
memop = finalize_memop(s, memop);
tcg_gen_qemu_ld_i64(dest, tcg_addr, memidx, memop);
if (extend && (memop & MO_SIGN)) {
@ -907,59 +990,44 @@ static void do_gpr_ld(DisasContext *s, TCGv_i64 dest, TCGv_i64 tcg_addr,
/*
* Store from FP register to memory
*/
static void do_fp_st(DisasContext *s, int srcidx, TCGv_i64 tcg_addr, int size)
static void do_fp_st(DisasContext *s, int srcidx, TCGv_i64 tcg_addr, MemOp mop)
{
/* This writes the bottom N bits of a 128 bit wide vector to memory */
TCGv_i64 tmplo = tcg_temp_new_i64();
MemOp mop;
tcg_gen_ld_i64(tmplo, cpu_env, fp_reg_offset(s, srcidx, MO_64));
if (size < 4) {
mop = finalize_memop(s, size);
if ((mop & MO_SIZE) < MO_128) {
tcg_gen_qemu_st_i64(tmplo, tcg_addr, get_mem_index(s), mop);
} else {
bool be = s->be_data == MO_BE;
TCGv_i64 tcg_hiaddr = tcg_temp_new_i64();
TCGv_i64 tmphi = tcg_temp_new_i64();
TCGv_i128 t16 = tcg_temp_new_i128();
tcg_gen_ld_i64(tmphi, cpu_env, fp_reg_hi_offset(s, srcidx));
tcg_gen_concat_i64_i128(t16, tmplo, tmphi);
mop = s->be_data | MO_UQ;
tcg_gen_qemu_st_i64(be ? tmphi : tmplo, tcg_addr, get_mem_index(s),
mop | (s->align_mem ? MO_ALIGN_16 : 0));
tcg_gen_addi_i64(tcg_hiaddr, tcg_addr, 8);
tcg_gen_qemu_st_i64(be ? tmplo : tmphi, tcg_hiaddr,
get_mem_index(s), mop);
tcg_gen_qemu_st_i128(t16, tcg_addr, get_mem_index(s), mop);
}
}
/*
* Load from memory to FP register
*/
static void do_fp_ld(DisasContext *s, int destidx, TCGv_i64 tcg_addr, int size)
static void do_fp_ld(DisasContext *s, int destidx, TCGv_i64 tcg_addr, MemOp mop)
{
/* This always zero-extends and writes to a full 128 bit wide vector */
TCGv_i64 tmplo = tcg_temp_new_i64();
TCGv_i64 tmphi = NULL;
MemOp mop;
if (size < 4) {
mop = finalize_memop(s, size);
if ((mop & MO_SIZE) < MO_128) {
tcg_gen_qemu_ld_i64(tmplo, tcg_addr, get_mem_index(s), mop);
} else {
bool be = s->be_data == MO_BE;
TCGv_i64 tcg_hiaddr;
TCGv_i128 t16 = tcg_temp_new_i128();
tcg_gen_qemu_ld_i128(t16, tcg_addr, get_mem_index(s), mop);
tmphi = tcg_temp_new_i64();
tcg_hiaddr = tcg_temp_new_i64();
mop = s->be_data | MO_UQ;
tcg_gen_qemu_ld_i64(be ? tmphi : tmplo, tcg_addr, get_mem_index(s),
mop | (s->align_mem ? MO_ALIGN_16 : 0));
tcg_gen_addi_i64(tcg_hiaddr, tcg_addr, 8);
tcg_gen_qemu_ld_i64(be ? tmplo : tmphi, tcg_hiaddr,
get_mem_index(s), mop);
tcg_gen_extr_i128_i64(tmplo, tmphi, t16);
}
tcg_gen_st_i64(tmplo, cpu_env, fp_reg_offset(s, destidx, MO_64));
@ -2382,19 +2450,22 @@ static void disas_b_exc_sys(DisasContext *s, uint32_t insn)
* races in multi-threaded linux-user and when MTTCG softmmu is
* enabled.
*/
static void gen_load_exclusive(DisasContext *s, int rt, int rt2,
TCGv_i64 addr, int size, bool is_pair)
static void gen_load_exclusive(DisasContext *s, int rt, int rt2, int rn,
int size, bool is_pair)
{
int idx = get_mem_index(s);
MemOp memop = s->be_data;
TCGv_i64 dirty_addr, clean_addr;
MemOp memop = check_atomic_align(s, rn, size + is_pair);
s->is_ldex = true;
dirty_addr = cpu_reg_sp(s, rn);
clean_addr = gen_mte_check1(s, dirty_addr, false, rn != 31, memop);
g_assert(size <= 3);
if (is_pair) {
g_assert(size >= 2);
if (size == 2) {
/* The pair must be single-copy atomic for the doubleword. */
memop |= MO_64 | MO_ALIGN;
tcg_gen_qemu_ld_i64(cpu_exclusive_val, addr, idx, memop);
tcg_gen_qemu_ld_i64(cpu_exclusive_val, clean_addr, idx, memop);
if (s->be_data == MO_LE) {
tcg_gen_extract_i64(cpu_reg(s, rt), cpu_exclusive_val, 0, 32);
tcg_gen_extract_i64(cpu_reg(s, rt2), cpu_exclusive_val, 32, 32);
@ -2403,29 +2474,29 @@ static void gen_load_exclusive(DisasContext *s, int rt, int rt2,
tcg_gen_extract_i64(cpu_reg(s, rt2), cpu_exclusive_val, 0, 32);
}
} else {
/* The pair must be single-copy atomic for *each* doubleword, not
the entire quadword, however it must be quadword aligned. */
memop |= MO_64;
tcg_gen_qemu_ld_i64(cpu_exclusive_val, addr, idx,
memop | MO_ALIGN_16);
TCGv_i128 t16 = tcg_temp_new_i128();
TCGv_i64 addr2 = tcg_temp_new_i64();
tcg_gen_addi_i64(addr2, addr, 8);
tcg_gen_qemu_ld_i64(cpu_exclusive_high, addr2, idx, memop);
tcg_gen_qemu_ld_i128(t16, clean_addr, idx, memop);
if (s->be_data == MO_LE) {
tcg_gen_extr_i128_i64(cpu_exclusive_val,
cpu_exclusive_high, t16);
} else {
tcg_gen_extr_i128_i64(cpu_exclusive_high,
cpu_exclusive_val, t16);
}
tcg_gen_mov_i64(cpu_reg(s, rt), cpu_exclusive_val);
tcg_gen_mov_i64(cpu_reg(s, rt2), cpu_exclusive_high);
}
} else {
memop |= size | MO_ALIGN;
tcg_gen_qemu_ld_i64(cpu_exclusive_val, addr, idx, memop);
tcg_gen_qemu_ld_i64(cpu_exclusive_val, clean_addr, idx, memop);
tcg_gen_mov_i64(cpu_reg(s, rt), cpu_exclusive_val);
}
tcg_gen_mov_i64(cpu_exclusive_addr, addr);
tcg_gen_mov_i64(cpu_exclusive_addr, clean_addr);
}
static void gen_store_exclusive(DisasContext *s, int rd, int rt, int rt2,
TCGv_i64 addr, int size, int is_pair)
int rn, int size, int is_pair)
{
/* if (env->exclusive_addr == addr && env->exclusive_val == [addr]
* && (!is_pair || env->exclusive_high == [addr + datasize])) {
@ -2441,9 +2512,46 @@ static void gen_store_exclusive(DisasContext *s, int rd, int rt, int rt2,
*/
TCGLabel *fail_label = gen_new_label();
TCGLabel *done_label = gen_new_label();
TCGv_i64 tmp;
TCGv_i64 tmp, clean_addr;
MemOp memop;
tcg_gen_brcond_i64(TCG_COND_NE, addr, cpu_exclusive_addr, fail_label);
/*
* FIXME: We are out of spec here. We have recorded only the address
* from load_exclusive, not the entire range, and we assume that the
* size of the access on both sides match. The architecture allows the
* store to be smaller than the load, so long as the stored bytes are
* within the range recorded by the load.
*/
/* See AArch64.ExclusiveMonitorsPass() and AArch64.IsExclusiveVA(). */
clean_addr = clean_data_tbi(s, cpu_reg_sp(s, rn));
tcg_gen_brcond_i64(TCG_COND_NE, clean_addr, cpu_exclusive_addr, fail_label);
/*
* The write, and any associated faults, only happen if the virtual
* and physical addresses pass the exclusive monitor check. These
* faults are exceedingly unlikely, because normally the guest uses
* the exact same address register for the load_exclusive, and we
* would have recognized these faults there.
*
* It is possible to trigger an alignment fault pre-LSE2, e.g. with an
* unaligned 4-byte write within the range of an aligned 8-byte load.
* With LSE2, the store would need to cross a 16-byte boundary when the
* load did not, which would mean the store is outside the range
* recorded for the monitor, which would have failed a corrected monitor
* check above. For now, we assume no size change and retain the
* MO_ALIGN to let tcg know what we checked in the load_exclusive.
*
* It is possible to trigger an MTE fault, by performing the load with
* a virtual address with a valid tag and performing the store with the
* same virtual address and a different invalid tag.
*/
memop = size + is_pair;
if (memop == MO_128 || !dc_isar_feature(aa64_lse2, s)) {
memop |= MO_ALIGN;
}
memop = finalize_memop(s, memop);
gen_mte_check1(s, cpu_reg_sp(s, rn), true, rn != 31, memop);
tmp = tcg_temp_new_i64();
if (is_pair) {
@ -2455,8 +2563,7 @@ static void gen_store_exclusive(DisasContext *s, int rd, int rt, int rt2,
}
tcg_gen_atomic_cmpxchg_i64(tmp, cpu_exclusive_addr,
cpu_exclusive_val, tmp,
get_mem_index(s),
MO_64 | MO_ALIGN | s->be_data);
get_mem_index(s), memop);
tcg_gen_setcond_i64(TCG_COND_NE, tmp, tmp, cpu_exclusive_val);
} else {
TCGv_i128 t16 = tcg_temp_new_i128();
@ -2474,8 +2581,7 @@ static void gen_store_exclusive(DisasContext *s, int rd, int rt, int rt2,
}
tcg_gen_atomic_cmpxchg_i128(t16, cpu_exclusive_addr, c16, t16,
get_mem_index(s),
MO_128 | MO_ALIGN | s->be_data);
get_mem_index(s), memop);
a = tcg_temp_new_i64();
b = tcg_temp_new_i64();
@ -2493,8 +2599,7 @@ static void gen_store_exclusive(DisasContext *s, int rd, int rt, int rt2,
}
} else {
tcg_gen_atomic_cmpxchg_i64(tmp, cpu_exclusive_addr, cpu_exclusive_val,
cpu_reg(s, rt), get_mem_index(s),
size | MO_ALIGN | s->be_data);
cpu_reg(s, rt), get_mem_index(s), memop);
tcg_gen_setcond_i64(TCG_COND_NE, tmp, tmp, cpu_exclusive_val);
}
tcg_gen_mov_i64(cpu_reg(s, rd), tmp);
@ -2513,13 +2618,15 @@ static void gen_compare_and_swap(DisasContext *s, int rs, int rt,
TCGv_i64 tcg_rt = cpu_reg(s, rt);
int memidx = get_mem_index(s);
TCGv_i64 clean_addr;
MemOp memop;
if (rn == 31) {
gen_check_sp_alignment(s);
}
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn), true, rn != 31, size);
tcg_gen_atomic_cmpxchg_i64(tcg_rs, clean_addr, tcg_rs, tcg_rt, memidx,
size | MO_ALIGN | s->be_data);
memop = check_atomic_align(s, rn, size);
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn), true, rn != 31, memop);
tcg_gen_atomic_cmpxchg_i64(tcg_rs, clean_addr, tcg_rs, tcg_rt,
memidx, memop);
}
static void gen_compare_and_swap_pair(DisasContext *s, int rs, int rt,
@ -2531,13 +2638,15 @@ static void gen_compare_and_swap_pair(DisasContext *s, int rs, int rt,
TCGv_i64 t2 = cpu_reg(s, rt + 1);
TCGv_i64 clean_addr;
int memidx = get_mem_index(s);
MemOp memop;
if (rn == 31) {
gen_check_sp_alignment(s);
}
/* This is a single atomic access, despite the "pair". */
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn), true, rn != 31, size + 1);
memop = check_atomic_align(s, rn, size + 1);
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn), true, rn != 31, memop);
if (size == 2) {
TCGv_i64 cmp = tcg_temp_new_i64();
@ -2551,8 +2660,7 @@ static void gen_compare_and_swap_pair(DisasContext *s, int rs, int rt,
tcg_gen_concat32_i64(cmp, s2, s1);
}
tcg_gen_atomic_cmpxchg_i64(cmp, clean_addr, cmp, val, memidx,
MO_64 | MO_ALIGN | s->be_data);
tcg_gen_atomic_cmpxchg_i64(cmp, clean_addr, cmp, val, memidx, memop);
if (s->be_data == MO_LE) {
tcg_gen_extr32_i64(s1, s2, cmp);
@ -2571,8 +2679,7 @@ static void gen_compare_and_swap_pair(DisasContext *s, int rs, int rt,
tcg_gen_concat_i64_i128(cmp, s2, s1);
}
tcg_gen_atomic_cmpxchg_i128(cmp, clean_addr, cmp, val, memidx,
MO_128 | MO_ALIGN | s->be_data);
tcg_gen_atomic_cmpxchg_i128(cmp, clean_addr, cmp, val, memidx, memop);
if (s->be_data == MO_LE) {
tcg_gen_extr_i128_i64(s1, s2, cmp);
@ -2621,6 +2728,7 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
int o2_L_o1_o0 = extract32(insn, 21, 3) * 2 | is_lasr;
int size = extract32(insn, 30, 2);
TCGv_i64 clean_addr;
MemOp memop;
switch (o2_L_o1_o0) {
case 0x0: /* STXR */
@ -2631,9 +2739,7 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
if (is_lasr) {
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_STRL);
}
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn),
true, rn != 31, size);
gen_store_exclusive(s, rs, rt, rt2, clean_addr, size, false);
gen_store_exclusive(s, rs, rt, rt2, rn, size, false);
return;
case 0x4: /* LDXR */
@ -2641,10 +2747,7 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
if (rn == 31) {
gen_check_sp_alignment(s);
}
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn),
false, rn != 31, size);
s->is_ldex = true;
gen_load_exclusive(s, rt, rt2, clean_addr, size, false);
gen_load_exclusive(s, rt, rt2, rn, size, false);
if (is_lasr) {
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_LDAQ);
}
@ -2662,10 +2765,10 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
gen_check_sp_alignment(s);
}
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_STRL);
memop = check_ordered_align(s, rn, 0, true, size);
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn),
true, rn != 31, size);
/* TODO: ARMv8.4-LSE SCTLR.nAA */
do_gpr_st(s, cpu_reg(s, rt), clean_addr, size | MO_ALIGN, true, rt,
true, rn != 31, memop);
do_gpr_st(s, cpu_reg(s, rt), clean_addr, memop, true, rt,
disas_ldst_compute_iss_sf(size, false, 0), is_lasr);
return;
@ -2680,10 +2783,10 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
if (rn == 31) {
gen_check_sp_alignment(s);
}
memop = check_ordered_align(s, rn, 0, false, size);
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn),
false, rn != 31, size);
/* TODO: ARMv8.4-LSE SCTLR.nAA */
do_gpr_ld(s, cpu_reg(s, rt), clean_addr, size | MO_ALIGN, false, true,
false, rn != 31, memop);
do_gpr_ld(s, cpu_reg(s, rt), clean_addr, memop, false, true,
rt, disas_ldst_compute_iss_sf(size, false, 0), is_lasr);
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_LDAQ);
return;
@ -2696,9 +2799,7 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
if (is_lasr) {
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_STRL);
}
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn),
true, rn != 31, size);
gen_store_exclusive(s, rs, rt, rt2, clean_addr, size, true);
gen_store_exclusive(s, rs, rt, rt2, rn, size, true);
return;
}
if (rt2 == 31
@ -2715,10 +2816,7 @@ static void disas_ldst_excl(DisasContext *s, uint32_t insn)
if (rn == 31) {
gen_check_sp_alignment(s);
}
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn),
false, rn != 31, size);
s->is_ldex = true;
gen_load_exclusive(s, rt, rt2, clean_addr, size, true);
gen_load_exclusive(s, rt, rt2, rn, size, true);
if (is_lasr) {
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_LDAQ);
}
@ -2768,6 +2866,7 @@ static void disas_ld_lit(DisasContext *s, uint32_t insn)
bool is_signed = false;
int size = 2;
TCGv_i64 tcg_rt, clean_addr;
MemOp memop;
if (is_vector) {
if (opc == 3) {
@ -2778,6 +2877,7 @@ static void disas_ld_lit(DisasContext *s, uint32_t insn)
if (!fp_access_check(s)) {
return;
}
memop = finalize_memop_asimd(s, size);
} else {
if (opc == 3) {
/* PRFM (literal) : prefetch */
@ -2785,20 +2885,20 @@ static void disas_ld_lit(DisasContext *s, uint32_t insn)
}
size = 2 + extract32(opc, 0, 1);
is_signed = extract32(opc, 1, 1);
memop = finalize_memop(s, size + is_signed * MO_SIGN);
}
tcg_rt = cpu_reg(s, rt);
clean_addr = tcg_temp_new_i64();
gen_pc_plus_diff(s, clean_addr, imm);
if (is_vector) {
do_fp_ld(s, rt, clean_addr, size);
do_fp_ld(s, rt, clean_addr, memop);
} else {
/* Only unsigned 32bit loads target 32bit registers. */
bool iss_sf = opc != 0;
do_gpr_ld(s, tcg_rt, clean_addr, size + is_signed * MO_SIGN,
false, true, rt, iss_sf, false);
do_gpr_ld(s, tcg_rt, clean_addr, memop, false, true, rt, iss_sf, false);
}
}
@ -2840,14 +2940,12 @@ static void disas_ldst_pair(DisasContext *s, uint32_t insn)
bool is_vector = extract32(insn, 26, 1);
bool is_load = extract32(insn, 22, 1);
int opc = extract32(insn, 30, 2);
bool is_signed = false;
bool postindex = false;
bool wback = false;
bool set_tag = false;
TCGv_i64 clean_addr, dirty_addr;
MemOp mop;
int size;
if (opc == 3) {
@ -2930,44 +3028,94 @@ static void disas_ldst_pair(DisasContext *s, uint32_t insn)
}
}
if (is_vector) {
mop = finalize_memop_asimd(s, size);
} else {
mop = finalize_memop(s, size);
}
clean_addr = gen_mte_checkN(s, dirty_addr, !is_load,
(wback || rn != 31) && !set_tag, 2 << size);
(wback || rn != 31) && !set_tag,
2 << size, mop);
if (is_vector) {
/* LSE2 does not merge FP pairs; leave these as separate operations. */
if (is_load) {
do_fp_ld(s, rt, clean_addr, size);
do_fp_ld(s, rt, clean_addr, mop);
} else {
do_fp_st(s, rt, clean_addr, size);
do_fp_st(s, rt, clean_addr, mop);
}
tcg_gen_addi_i64(clean_addr, clean_addr, 1 << size);
if (is_load) {
do_fp_ld(s, rt2, clean_addr, size);
do_fp_ld(s, rt2, clean_addr, mop);
} else {
do_fp_st(s, rt2, clean_addr, size);
do_fp_st(s, rt2, clean_addr, mop);
}
} else {
TCGv_i64 tcg_rt = cpu_reg(s, rt);
TCGv_i64 tcg_rt2 = cpu_reg(s, rt2);
/*
* We built mop above for the single logical access -- rebuild it
* now for the paired operation.
*
* With LSE2, non-sign-extending pairs are treated atomically if
* aligned, and if unaligned one of the pair will be completely
* within a 16-byte block and that element will be atomic.
* Otherwise each element is separately atomic.
* In all cases, issue one operation with the correct atomicity.
*
* This treats sign-extending loads like zero-extending loads,
* since that reuses the most code below.
*/
mop = size + 1;
if (s->align_mem) {
mop |= (size == 2 ? MO_ALIGN_4 : MO_ALIGN_8);
}
mop = finalize_memop_pair(s, mop);
if (is_load) {
TCGv_i64 tmp = tcg_temp_new_i64();
if (size == 2) {
int o2 = s->be_data == MO_LE ? 32 : 0;
int o1 = o2 ^ 32;
/* Do not modify tcg_rt before recognizing any exception
* from the second load.
*/
do_gpr_ld(s, tmp, clean_addr, size + is_signed * MO_SIGN,
false, false, 0, false, false);
tcg_gen_addi_i64(clean_addr, clean_addr, 1 << size);
do_gpr_ld(s, tcg_rt2, clean_addr, size + is_signed * MO_SIGN,
false, false, 0, false, false);
tcg_gen_qemu_ld_i64(tcg_rt, clean_addr, get_mem_index(s), mop);
if (is_signed) {
tcg_gen_sextract_i64(tcg_rt2, tcg_rt, o2, 32);
tcg_gen_sextract_i64(tcg_rt, tcg_rt, o1, 32);
} else {
tcg_gen_extract_i64(tcg_rt2, tcg_rt, o2, 32);
tcg_gen_extract_i64(tcg_rt, tcg_rt, o1, 32);
}
} else {
TCGv_i128 tmp = tcg_temp_new_i128();
tcg_gen_mov_i64(tcg_rt, tmp);
tcg_gen_qemu_ld_i128(tmp, clean_addr, get_mem_index(s), mop);
if (s->be_data == MO_LE) {
tcg_gen_extr_i128_i64(tcg_rt, tcg_rt2, tmp);
} else {
tcg_gen_extr_i128_i64(tcg_rt2, tcg_rt, tmp);
}
}
} else {
do_gpr_st(s, tcg_rt, clean_addr, size,
false, 0, false, false);
tcg_gen_addi_i64(clean_addr, clean_addr, 1 << size);
do_gpr_st(s, tcg_rt2, clean_addr, size,
false, 0, false, false);
if (size == 2) {
TCGv_i64 tmp = tcg_temp_new_i64();
if (s->be_data == MO_LE) {
tcg_gen_concat32_i64(tmp, tcg_rt, tcg_rt2);
} else {
tcg_gen_concat32_i64(tmp, tcg_rt2, tcg_rt);
}
tcg_gen_qemu_st_i64(tmp, clean_addr, get_mem_index(s), mop);
} else {
TCGv_i128 tmp = tcg_temp_new_i128();
if (s->be_data == MO_LE) {
tcg_gen_concat_i64_i128(tmp, tcg_rt, tcg_rt2);
} else {
tcg_gen_concat_i64_i128(tmp, tcg_rt2, tcg_rt);
}
tcg_gen_qemu_st_i128(tmp, clean_addr, get_mem_index(s), mop);
}
}
}
@ -3012,7 +3160,7 @@ static void disas_ldst_reg_imm9(DisasContext *s, uint32_t insn,
bool post_index;
bool writeback;
int memidx;
MemOp memop;
TCGv_i64 clean_addr, dirty_addr;
if (is_vector) {
@ -3025,6 +3173,7 @@ static void disas_ldst_reg_imm9(DisasContext *s, uint32_t insn,
if (!fp_access_check(s)) {
return;
}
memop = finalize_memop_asimd(s, size);
} else {
if (size == 3 && opc == 2) {
/* PRFM - prefetch */
@ -3039,8 +3188,9 @@ static void disas_ldst_reg_imm9(DisasContext *s, uint32_t insn,
return;
}
is_store = (opc == 0);
is_signed = extract32(opc, 1, 1);
is_signed = !is_store && extract32(opc, 1, 1);
is_extended = (size < 3) && extract32(opc, 0, 1);
memop = finalize_memop(s, size + is_signed * MO_SIGN);
}
switch (idx) {
@ -3073,25 +3223,26 @@ static void disas_ldst_reg_imm9(DisasContext *s, uint32_t insn,
}
memidx = is_unpriv ? get_a64_user_mem_index(s) : get_mem_index(s);
clean_addr = gen_mte_check1_mmuidx(s, dirty_addr, is_store,
writeback || rn != 31,
size, is_unpriv, memidx);
if (is_vector) {
if (is_store) {
do_fp_st(s, rt, clean_addr, size);
do_fp_st(s, rt, clean_addr, memop);
} else {
do_fp_ld(s, rt, clean_addr, size);
do_fp_ld(s, rt, clean_addr, memop);
}
} else {
TCGv_i64 tcg_rt = cpu_reg(s, rt);
bool iss_sf = disas_ldst_compute_iss_sf(size, is_signed, opc);
if (is_store) {
do_gpr_st_memidx(s, tcg_rt, clean_addr, size, memidx,
do_gpr_st_memidx(s, tcg_rt, clean_addr, memop, memidx,
iss_valid, rt, iss_sf, false);
} else {
do_gpr_ld_memidx(s, tcg_rt, clean_addr, size + is_signed * MO_SIGN,
do_gpr_ld_memidx(s, tcg_rt, clean_addr, memop,
is_extended, memidx,
iss_valid, rt, iss_sf, false);
}
@ -3140,8 +3291,8 @@ static void disas_ldst_reg_roffset(DisasContext *s, uint32_t insn,
bool is_signed = false;
bool is_store = false;
bool is_extended = false;
TCGv_i64 tcg_rm, clean_addr, dirty_addr;
MemOp memop;
if (extract32(opt, 1, 1) == 0) {
unallocated_encoding(s);
@ -3168,7 +3319,7 @@ static void disas_ldst_reg_roffset(DisasContext *s, uint32_t insn,
return;
}
is_store = (opc == 0);
is_signed = extract32(opc, 1, 1);
is_signed = !is_store && extract32(opc, 1, 1);
is_extended = (size < 3) && extract32(opc, 0, 1);
}
@ -3181,22 +3332,25 @@ static void disas_ldst_reg_roffset(DisasContext *s, uint32_t insn,
ext_and_shift_reg(tcg_rm, tcg_rm, opt, shift ? size : 0);
tcg_gen_add_i64(dirty_addr, dirty_addr, tcg_rm);
clean_addr = gen_mte_check1(s, dirty_addr, is_store, true, size);
memop = finalize_memop(s, size + is_signed * MO_SIGN);
clean_addr = gen_mte_check1(s, dirty_addr, is_store, true, memop);
if (is_vector) {
if (is_store) {
do_fp_st(s, rt, clean_addr, size);
do_fp_st(s, rt, clean_addr, memop);
} else {
do_fp_ld(s, rt, clean_addr, size);
do_fp_ld(s, rt, clean_addr, memop);
}
} else {
TCGv_i64 tcg_rt = cpu_reg(s, rt);
bool iss_sf = disas_ldst_compute_iss_sf(size, is_signed, opc);
if (is_store) {
do_gpr_st(s, tcg_rt, clean_addr, size,
do_gpr_st(s, tcg_rt, clean_addr, memop,
true, rt, iss_sf, false);
} else {
do_gpr_ld(s, tcg_rt, clean_addr, size + is_signed * MO_SIGN,
do_gpr_ld(s, tcg_rt, clean_addr, memop,
is_extended, true, rt, iss_sf, false);
}
}
@ -3228,12 +3382,11 @@ static void disas_ldst_reg_unsigned_imm(DisasContext *s, uint32_t insn,
int rn = extract32(insn, 5, 5);
unsigned int imm12 = extract32(insn, 10, 12);
unsigned int offset;
TCGv_i64 clean_addr, dirty_addr;
bool is_store;
bool is_signed = false;
bool is_extended = false;
MemOp memop;
if (is_vector) {
size |= (opc & 2) << 1;
@ -3255,7 +3408,7 @@ static void disas_ldst_reg_unsigned_imm(DisasContext *s, uint32_t insn,
return;
}
is_store = (opc == 0);
is_signed = extract32(opc, 1, 1);
is_signed = !is_store && extract32(opc, 1, 1);
is_extended = (size < 3) && extract32(opc, 0, 1);
}
@ -3265,22 +3418,23 @@ static void disas_ldst_reg_unsigned_imm(DisasContext *s, uint32_t insn,
dirty_addr = read_cpu_reg_sp(s, rn, 1);
offset = imm12 << size;
tcg_gen_addi_i64(dirty_addr, dirty_addr, offset);
clean_addr = gen_mte_check1(s, dirty_addr, is_store, rn != 31, size);
memop = finalize_memop(s, size + is_signed * MO_SIGN);
clean_addr = gen_mte_check1(s, dirty_addr, is_store, rn != 31, memop);
if (is_vector) {
if (is_store) {
do_fp_st(s, rt, clean_addr, size);
do_fp_st(s, rt, clean_addr, memop);
} else {
do_fp_ld(s, rt, clean_addr, size);
do_fp_ld(s, rt, clean_addr, memop);
}
} else {
TCGv_i64 tcg_rt = cpu_reg(s, rt);
bool iss_sf = disas_ldst_compute_iss_sf(size, is_signed, opc);
if (is_store) {
do_gpr_st(s, tcg_rt, clean_addr, size,
true, rt, iss_sf, false);
do_gpr_st(s, tcg_rt, clean_addr, memop, true, rt, iss_sf, false);
} else {
do_gpr_ld(s, tcg_rt, clean_addr, size + is_signed * MO_SIGN,
do_gpr_ld(s, tcg_rt, clean_addr, memop,
is_extended, true, rt, iss_sf, false);
}
}
@ -3310,7 +3464,7 @@ static void disas_ldst_atomic(DisasContext *s, uint32_t insn,
bool a = extract32(insn, 23, 1);
TCGv_i64 tcg_rs, tcg_rt, clean_addr;
AtomicThreeOpFn *fn = NULL;
MemOp mop = s->be_data | size | MO_ALIGN;
MemOp mop = size;
if (is_vector || !dc_isar_feature(aa64_atomics, s)) {
unallocated_encoding(s);
@ -3361,7 +3515,9 @@ static void disas_ldst_atomic(DisasContext *s, uint32_t insn,
if (rn == 31) {
gen_check_sp_alignment(s);
}
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn), false, rn != 31, size);
mop = check_atomic_align(s, rn, mop);
clean_addr = gen_mte_check1(s, cpu_reg_sp(s, rn), false, rn != 31, mop);
if (o3_opc == 014) {
/*
@ -3371,7 +3527,7 @@ static void disas_ldst_atomic(DisasContext *s, uint32_t insn,
* full load-acquire (we only need "load-acquire processor consistent"),
* but we choose to implement them as full LDAQ.
*/
do_gpr_ld(s, cpu_reg(s, rt), clean_addr, size, false,
do_gpr_ld(s, cpu_reg(s, rt), clean_addr, mop, false,
true, rt, disas_ldst_compute_iss_sf(size, false, 0), true);
tcg_gen_mb(TCG_MO_ALL | TCG_BAR_LDAQ);
return;
@ -3417,6 +3573,7 @@ static void disas_ldst_pac(DisasContext *s, uint32_t insn,
bool use_key_a = !extract32(insn, 23, 1);
int offset;
TCGv_i64 clean_addr, dirty_addr, tcg_rt;
MemOp memop;
if (size != 3 || is_vector || !dc_isar_feature(aa64_pauth, s)) {
unallocated_encoding(s);
@ -3443,12 +3600,14 @@ static void disas_ldst_pac(DisasContext *s, uint32_t insn,
offset = sextract32(offset << size, 0, 10 + size);
tcg_gen_addi_i64(dirty_addr, dirty_addr, offset);
memop = finalize_memop(s, size);
/* Note that "clean" and "dirty" here refer to TBI not PAC. */
clean_addr = gen_mte_check1(s, dirty_addr, false,
is_wback || rn != 31, size);
is_wback || rn != 31, memop);
tcg_rt = cpu_reg(s, rt);
do_gpr_ld(s, tcg_rt, clean_addr, size,
do_gpr_ld(s, tcg_rt, clean_addr, memop,
/* extend */ false, /* iss_valid */ !is_wback,
/* iss_srt */ rt, /* iss_sf */ true, /* iss_ar */ false);
@ -3482,16 +3641,13 @@ static void disas_ldst_ldapr_stlr(DisasContext *s, uint32_t insn)
bool is_store = false;
bool extend = false;
bool iss_sf;
MemOp mop;
MemOp mop = size;
if (!dc_isar_feature(aa64_rcpc_8_4, s)) {
unallocated_encoding(s);
return;
}
/* TODO: ARMv8.4-LSE SCTLR.nAA */
mop = size | MO_ALIGN;
switch (opc) {
case 0: /* STLURB */
is_store = true;
@ -3523,6 +3679,8 @@ static void disas_ldst_ldapr_stlr(DisasContext *s, uint32_t insn)
gen_check_sp_alignment(s);
}
mop = check_ordered_align(s, rn, offset, is_store, mop);
dirty_addr = read_cpu_reg_sp(s, rn, 1);
tcg_gen_addi_i64(dirty_addr, dirty_addr, offset);
clean_addr = clean_data_tbi(s, dirty_addr);
@ -3689,7 +3847,7 @@ static void disas_ldst_multiple_struct(DisasContext *s, uint32_t insn)
* promote consecutive little-endian elements below.
*/
clean_addr = gen_mte_checkN(s, tcg_rn, is_store, is_postidx || rn != 31,
total);
total, finalize_memop(s, size));
/*
* Consecutive little-endian elements from a single register
@ -3847,10 +4005,11 @@ static void disas_ldst_single_struct(DisasContext *s, uint32_t insn)
total = selem << scale;
tcg_rn = cpu_reg_sp(s, rn);
clean_addr = gen_mte_checkN(s, tcg_rn, !is_load, is_postidx || rn != 31,
total);
mop = finalize_memop(s, scale);
clean_addr = gen_mte_checkN(s, tcg_rn, !is_load, is_postidx || rn != 31,
total, mop);
tcg_ebytes = tcg_constant_i64(1 << scale);
for (xs = 0; xs < selem; xs++) {
if (replicate) {
@ -4062,15 +4221,18 @@ static void disas_ldst_tag(DisasContext *s, uint32_t insn)
if (is_zero) {
TCGv_i64 clean_addr = clean_data_tbi(s, addr);
TCGv_i64 tcg_zero = tcg_constant_i64(0);
TCGv_i64 zero64 = tcg_constant_i64(0);
TCGv_i128 zero128 = tcg_temp_new_i128();
int mem_index = get_mem_index(s);
int i, n = (1 + is_pair) << LOG2_TAG_GRANULE;
MemOp mop = finalize_memop(s, MO_128 | MO_ALIGN);
tcg_gen_qemu_st_i64(tcg_zero, clean_addr, mem_index,
MO_UQ | MO_ALIGN_16);
for (i = 8; i < n; i += 8) {
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
tcg_gen_qemu_st_i64(tcg_zero, clean_addr, mem_index, MO_UQ);
tcg_gen_concat_i64_i128(zero128, zero64, zero64);
/* This is 1 or 2 atomic 16-byte operations. */
tcg_gen_qemu_st_i128(zero128, clean_addr, mem_index, mop);
if (is_pair) {
tcg_gen_addi_i64(clean_addr, clean_addr, 16);
tcg_gen_qemu_st_i128(zero128, clean_addr, mem_index, mop);
}
}
@ -14087,6 +14249,7 @@ static void aarch64_tr_init_disas_context(DisasContextBase *dcbase,
dc->pstate_sm = EX_TBFLAG_A64(tb_flags, PSTATE_SM);
dc->pstate_za = EX_TBFLAG_A64(tb_flags, PSTATE_ZA);
dc->sme_trap_nonstreaming = EX_TBFLAG_A64(tb_flags, SME_TRAP_NONSTREAMING);
dc->naa = EX_TBFLAG_A64(tb_flags, NAA);
dc->vec_len = 0;
dc->vec_stride = 0;
dc->cp_regs = arm_cpu->cp_regs;
@ -14098,6 +14261,8 @@ static void aarch64_tr_init_disas_context(DisasContextBase *dcbase,
tcg_debug_assert(dc->tbid & 1);
#endif
dc->lse2 = dc_isar_feature(aa64_lse2, dc);
/* Single step state. The code-generation logic here is:
* SS_ACTIVE == 0:
* generate code with no special handling for single-stepping (except

4
target/arm/tcg/translate-a64.h
View File

@ -49,9 +49,9 @@ static inline bool sme_smza_enabled_check(DisasContext *s)
TCGv_i64 clean_data_tbi(DisasContext *s, TCGv_i64 addr);
TCGv_i64 gen_mte_check1(DisasContext *s, TCGv_i64 addr, bool is_write,
bool tag_checked, int log2_size);
bool tag_checked, MemOp memop);
TCGv_i64 gen_mte_checkN(DisasContext *s, TCGv_i64 addr, bool is_write,
bool tag_checked, int size);
bool tag_checked, int total_size, MemOp memop);
/* We should have at some point before trying to access an FP register
* done the necessary access check, so assert that

106
target/arm/tcg/translate-sve.c
View File

@ -4167,15 +4167,16 @@ TRANS_FEAT(UCVTF_dd, aa64_sve, gen_gvec_fpst_arg_zpz,
void gen_sve_ldr(DisasContext *s, TCGv_ptr base, int vofs,
int len, int rn, int imm)
{
int len_align = QEMU_ALIGN_DOWN(len, 8);
int len_remain = len % 8;
int nparts = len / 8 + ctpop8(len_remain);
int len_align = QEMU_ALIGN_DOWN(len, 16);
int len_remain = len % 16;
int nparts = len / 16 + ctpop8(len_remain);
int midx = get_mem_index(s);
TCGv_i64 dirty_addr, clean_addr, t0, t1;
TCGv_i128 t16;
dirty_addr = tcg_temp_new_i64();
tcg_gen_addi_i64(dirty_addr, cpu_reg_sp(s, rn), imm);
clean_addr = gen_mte_checkN(s, dirty_addr, false, rn != 31, len);
clean_addr = gen_mte_checkN(s, dirty_addr, false, rn != 31, len, MO_8);
/*
* Note that unpredicated load/store of vector/predicate registers
@ -4188,10 +4189,16 @@ void gen_sve_ldr(DisasContext *s, TCGv_ptr base, int vofs,
int i;
t0 = tcg_temp_new_i64();
for (i = 0; i < len_align; i += 8) {
tcg_gen_qemu_ld_i64(t0, clean_addr, midx, MO_LEUQ);
t1 = tcg_temp_new_i64();
t16 = tcg_temp_new_i128();
for (i = 0; i < len_align; i += 16) {
tcg_gen_qemu_ld_i128(t16, clean_addr, midx,
MO_LE | MO_128 | MO_ATOM_NONE);
tcg_gen_extr_i128_i64(t0, t1, t16);
tcg_gen_st_i64(t0, base, vofs + i);
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
tcg_gen_st_i64(t1, base, vofs + i + 8);
tcg_gen_addi_i64(clean_addr, clean_addr, 16);
}
} else {
TCGLabel *loop = gen_new_label();
@ -4200,14 +4207,21 @@ void gen_sve_ldr(DisasContext *s, TCGv_ptr base, int vofs,
tcg_gen_movi_ptr(i, 0);
gen_set_label(loop);
t0 = tcg_temp_new_i64();
tcg_gen_qemu_ld_i64(t0, clean_addr, midx, MO_LEUQ);
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
t16 = tcg_temp_new_i128();
tcg_gen_qemu_ld_i128(t16, clean_addr, midx,
MO_LE | MO_128 | MO_ATOM_NONE);
tcg_gen_addi_i64(clean_addr, clean_addr, 16);
tp = tcg_temp_new_ptr();
tcg_gen_add_ptr(tp, base, i);
tcg_gen_addi_ptr(i, i, 8);
tcg_gen_addi_ptr(i, i, 16);
t0 = tcg_temp_new_i64();
t1 = tcg_temp_new_i64();
tcg_gen_extr_i128_i64(t0, t1, t16);
tcg_gen_st_i64(t0, tp, vofs);
tcg_gen_st_i64(t1, tp, vofs + 8);
tcg_gen_brcondi_ptr(TCG_COND_LTU, i, len_align, loop);
}
@ -4216,6 +4230,16 @@ void gen_sve_ldr(DisasContext *s, TCGv_ptr base, int vofs,
* Predicate register loads can be any multiple of 2.
* Note that we still store the entire 64-bit unit into cpu_env.
*/
if (len_remain >= 8) {
t0 = tcg_temp_new_i64();
tcg_gen_qemu_ld_i64(t0, clean_addr, midx, MO_LEUQ | MO_ATOM_NONE);
tcg_gen_st_i64(t0, base, vofs + len_align);
len_remain -= 8;
len_align += 8;
if (len_remain) {
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
}
}
if (len_remain) {
t0 = tcg_temp_new_i64();
switch (len_remain) {
@ -4223,14 +4247,14 @@ void gen_sve_ldr(DisasContext *s, TCGv_ptr base, int vofs,
case 4:
case 8:
tcg_gen_qemu_ld_i64(t0, clean_addr, midx,
MO_LE | ctz32(len_remain));
MO_LE | ctz32(len_remain) | MO_ATOM_NONE);
break;
case 6:
t1 = tcg_temp_new_i64();
tcg_gen_qemu_ld_i64(t0, clean_addr, midx, MO_LEUL);
tcg_gen_qemu_ld_i64(t0, clean_addr, midx, MO_LEUL | MO_ATOM_NONE);
tcg_gen_addi_i64(clean_addr, clean_addr, 4);
tcg_gen_qemu_ld_i64(t1, clean_addr, midx, MO_LEUW);
tcg_gen_qemu_ld_i64(t1, clean_addr, midx, MO_LEUW | MO_ATOM_NONE);
tcg_gen_deposit_i64(t0, t0, t1, 32, 32);
break;
@ -4245,15 +4269,16 @@ void gen_sve_ldr(DisasContext *s, TCGv_ptr base, int vofs,
void gen_sve_str(DisasContext *s, TCGv_ptr base, int vofs,
int len, int rn, int imm)
{
int len_align = QEMU_ALIGN_DOWN(len, 8);
int len_remain = len % 8;
int nparts = len / 8 + ctpop8(len_remain);
int len_align = QEMU_ALIGN_DOWN(len, 16);
int len_remain = len % 16;
int nparts = len / 16 + ctpop8(len_remain);
int midx = get_mem_index(s);
TCGv_i64 dirty_addr, clean_addr, t0;
TCGv_i64 dirty_addr, clean_addr, t0, t1;
TCGv_i128 t16;
dirty_addr = tcg_temp_new_i64();
tcg_gen_addi_i64(dirty_addr, cpu_reg_sp(s, rn), imm);
clean_addr = gen_mte_checkN(s, dirty_addr, false, rn != 31, len);
clean_addr = gen_mte_checkN(s, dirty_addr, false, rn != 31, len, MO_8);
/* Note that unpredicated load/store of vector/predicate registers
* are defined as a stream of bytes, which equates to little-endian
@ -4267,10 +4292,15 @@ void gen_sve_str(DisasContext *s, TCGv_ptr base, int vofs,
int i;
t0 = tcg_temp_new_i64();
t1 = tcg_temp_new_i64();
t16 = tcg_temp_new_i128();
for (i = 0; i < len_align; i += 8) {
tcg_gen_ld_i64(t0, base, vofs + i);
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUQ);
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
tcg_gen_ld_i64(t1, base, vofs + i + 8);
tcg_gen_concat_i64_i128(t16, t0, t1);
tcg_gen_qemu_st_i128(t16, clean_addr, midx,
MO_LE | MO_128 | MO_ATOM_NONE);
tcg_gen_addi_i64(clean_addr, clean_addr, 16);
}
} else {
TCGLabel *loop = gen_new_label();
@ -4280,18 +4310,33 @@ void gen_sve_str(DisasContext *s, TCGv_ptr base, int vofs,
gen_set_label(loop);
t0 = tcg_temp_new_i64();
t1 = tcg_temp_new_i64();
tp = tcg_temp_new_ptr();
tcg_gen_add_ptr(tp, base, i);
tcg_gen_ld_i64(t0, tp, vofs);
tcg_gen_addi_ptr(i, i, 8);
tcg_gen_ld_i64(t1, tp, vofs + 8);
tcg_gen_addi_ptr(i, i, 16);
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUQ);
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
t16 = tcg_temp_new_i128();
tcg_gen_concat_i64_i128(t16, t0, t1);
tcg_gen_qemu_st_i128(t16, clean_addr, midx, MO_LEUQ);
tcg_gen_addi_i64(clean_addr, clean_addr, 16);
tcg_gen_brcondi_ptr(TCG_COND_LTU, i, len_align, loop);
}
/* Predicate register stores can be any multiple of 2. */
if (len_remain >= 8) {
t0 = tcg_temp_new_i64();
tcg_gen_st_i64(t0, base, vofs + len_align);
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUQ | MO_ATOM_NONE);
len_remain -= 8;
len_align += 8;
if (len_remain) {
tcg_gen_addi_i64(clean_addr, clean_addr, 8);
}
}
if (len_remain) {
t0 = tcg_temp_new_i64();
tcg_gen_ld_i64(t0, base, vofs + len_align);
@ -4301,14 +4346,14 @@ void gen_sve_str(DisasContext *s, TCGv_ptr base, int vofs,
case 4:
case 8:
tcg_gen_qemu_st_i64(t0, clean_addr, midx,
MO_LE | ctz32(len_remain));
MO_LE | ctz32(len_remain) | MO_ATOM_NONE);
break;
case 6:
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUL);
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUL | MO_ATOM_NONE);
tcg_gen_addi_i64(clean_addr, clean_addr, 4);
tcg_gen_shri_i64(t0, t0, 32);
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUW);
tcg_gen_qemu_st_i64(t0, clean_addr, midx, MO_LEUW | MO_ATOM_NONE);
break;
default:
@ -4964,6 +5009,7 @@ static bool trans_LD1R_zpri(DisasContext *s, arg_rpri_load *a)
unsigned msz = dtype_msz(a->dtype);
TCGLabel *over;
TCGv_i64 temp, clean_addr;
MemOp memop;
if (!dc_isar_feature(aa64_sve, s)) {
return false;
@ -4993,10 +5039,10 @@ static bool trans_LD1R_zpri(DisasContext *s, arg_rpri_load *a)
/* Load the data. */
temp = tcg_temp_new_i64();
tcg_gen_addi_i64(temp, cpu_reg_sp(s, a->rn), a->imm << msz);
clean_addr = gen_mte_check1(s, temp, false, true, msz);
tcg_gen_qemu_ld_i64(temp, clean_addr, get_mem_index(s),
finalize_memop(s, dtype_mop[a->dtype]));
memop = finalize_memop(s, dtype_mop[a->dtype]);
clean_addr = gen_mte_check1(s, temp, false, true, memop);
tcg_gen_qemu_ld_i64(temp, clean_addr, get_mem_index(s), memop);
/* Broadcast to *all* elements. */
tcg_gen_gvec_dup_i64(esz, vec_full_reg_offset(s, a->rd),

1
target/arm/tcg/translate.c
View File

@ -9168,6 +9168,7 @@ static void arm_tr_init_disas_context(DisasContextBase *dcbase, CPUState *cs)
dc->sme_trap_nonstreaming =
EX_TBFLAG_A32(tb_flags, SME_TRAP_NONSTREAMING);
}
dc->lse2 = false; /* applies only to aarch64 */
dc->cp_regs = cpu->cp_regs;
dc->features = env->features;

65
target/arm/tcg/translate.h
View File

@ -90,6 +90,7 @@ typedef struct DisasContext {
uint64_t features; /* CPU features bits */
bool aarch64;
bool thumb;
bool lse2;
/* Because unallocated encodings generate different exception syndrome
* information from traps due to FP being disabled, we can't do a single
* "is fp access disabled" check at a high level in the decode tree.
@ -141,6 +142,8 @@ typedef struct DisasContext {
bool fgt_eret;
/* True if fine-grained trap on SVC is enabled */
bool fgt_svc;
/* True if FEAT_LSE2 SCTLR_ELx.nAA is set */
bool naa;
/*
* >= 0, a copy of PSTATE.BTYPE, which will be 0 without v8.5-BTI.
* < 0, set by the current instruction.
@ -557,12 +560,13 @@ static inline TCGv_ptr fpstatus_ptr(ARMFPStatusFlavour flavour)
}
/**
* finalize_memop:
* finalize_memop_atom:
* @s: DisasContext
* @opc: size+sign+align of the memory operation
* @atom: atomicity of the memory operation
*
* Build the complete MemOp for a memory operation, including alignment
* and endianness.
* Build the complete MemOp for a memory operation, including alignment,
* endianness, and atomicity.
*
* If (op & MO_AMASK) then the operation already contains the required
* alignment, e.g. for AccType_ATOMIC. Otherwise, this an optionally
@ -572,12 +576,63 @@ static inline TCGv_ptr fpstatus_ptr(ARMFPStatusFlavour flavour)
* and this is applied here. Note that there is no way to indicate that
* no alignment should ever be enforced; this must be handled manually.
*/
static inline MemOp finalize_memop(DisasContext *s, MemOp opc)
static inline MemOp finalize_memop_atom(DisasContext *s, MemOp opc, MemOp atom)
{
if (s->align_mem && !(opc & MO_AMASK)) {
opc |= MO_ALIGN;
}
return opc | s->be_data;
return opc | atom | s->be_data;
}
/**
* finalize_memop:
* @s: DisasContext
* @opc: size+sign+align of the memory operation
*
* Like finalize_memop_atom, but with default atomicity.
*/
static inline MemOp finalize_memop(DisasContext *s, MemOp opc)
{
MemOp atom = s->lse2 ? MO_ATOM_WITHIN16 : MO_ATOM_IFALIGN;
return finalize_memop_atom(s, opc, atom);
}
/**
* finalize_memop_pair:
* @s: DisasContext
* @opc: size+sign+align of the memory operation
*
* Like finalize_memop_atom, but with atomicity for a pair.
* C.f. Pseudocode for Mem[], operand ispair.
*/
static inline MemOp finalize_memop_pair(DisasContext *s, MemOp opc)
{
MemOp atom = s->lse2 ? MO_ATOM_WITHIN16_PAIR : MO_ATOM_IFALIGN_PAIR;
return finalize_memop_atom(s, opc, atom);
}
/**
* finalize_memop_asimd:
* @s: DisasContext
* @opc: size+sign+align of the memory operation
*
* Like finalize_memop_atom, but with atomicity of AccessType_ASIMD.
*/
static inline MemOp finalize_memop_asimd(DisasContext *s, MemOp opc)
{
/*
* In the pseudocode for Mem[], with AccessType_ASIMD, size == 16,
* if IsAligned(8), the first case provides separate atomicity for
* the pair of 64-bit accesses. If !IsAligned(8), the middle cases
* do not apply, and we're left with the final case of no atomicity.
* Thus MO_ATOM_IFALIGN_PAIR.
*
* For other sizes, normal LSE2 rules apply.
*/
if ((opc & MO_SIZE) == MO_128) {
return finalize_memop_atom(s, opc, MO_ATOM_IFALIGN_PAIR);
}
return finalize_memop(s, opc);
}
/**

33
target/i386/hvf/hvf.c
View File

@ -679,3 +679,36 @@ int hvf_vcpu_exec(CPUState *cpu)
return ret;
}
int hvf_arch_insert_sw_breakpoint(CPUState *cpu, struct hvf_sw_breakpoint *bp)
{
return -ENOSYS;
}
int hvf_arch_remove_sw_breakpoint(CPUState *cpu, struct hvf_sw_breakpoint *bp)
{
return -ENOSYS;
}
int hvf_arch_insert_hw_breakpoint(target_ulong addr, target_ulong len, int type)
{
return -ENOSYS;
}
int hvf_arch_remove_hw_breakpoint(target_ulong addr, target_ulong len, int type)
{
return -ENOSYS;
}
void hvf_arch_remove_all_hw_breakpoints(void)
{
}
void hvf_arch_update_guest_debug(CPUState *cpu)
{
}
inline bool hvf_arch_supports_guest_debug(void)
{
return false;
}

176
tests/avocado/boot_linux_console.py
View File

@ -769,6 +769,182 @@ class BootLinuxConsole(LinuxKernelTest):
self.wait_for_console_pattern(
'Give root password for system maintenance')
def test_arm_bpim2u(self):
"""
:avocado: tags=arch:arm
:avocado: tags=machine:bpim2u
:avocado: tags=accel:tcg
"""
deb_url = ('https://apt.armbian.com/pool/main/l/linux-5.10.16-sunxi/'
'linux-image-current-sunxi_21.02.2_armhf.deb')
deb_hash = '9fa84beda245cabf0b4fa84cf6eaa7738ead1da0'
deb_path = self.fetch_asset(deb_url, asset_hash=deb_hash)
kernel_path = self.extract_from_deb(deb_path,
'/boot/vmlinuz-5.10.16-sunxi')
dtb_path = ('/usr/lib/linux-image-current-sunxi/'
'sun8i-r40-bananapi-m2-ultra.dtb')
dtb_path = self.extract_from_deb(deb_path, dtb_path)
self.vm.set_console()
kernel_command_line = (self.KERNEL_COMMON_COMMAND_LINE +
'console=ttyS0,115200n8 '
'earlycon=uart,mmio32,0x1c28000')
self.vm.add_args('-kernel', kernel_path,
'-dtb', dtb_path,
'-append', kernel_command_line)
self.vm.launch()
console_pattern = 'Kernel command line: %s' % kernel_command_line
self.wait_for_console_pattern(console_pattern)
def test_arm_bpim2u_initrd(self):
"""
:avocado: tags=arch:arm
:avocado: tags=accel:tcg
:avocado: tags=machine:bpim2u
"""
deb_url = ('https://apt.armbian.com/pool/main/l/linux-5.10.16-sunxi/'
'linux-image-current-sunxi_21.02.2_armhf.deb')
deb_hash = '9fa84beda245cabf0b4fa84cf6eaa7738ead1da0'
deb_path = self.fetch_asset(deb_url, asset_hash=deb_hash)
kernel_path = self.extract_from_deb(deb_path,
'/boot/vmlinuz-5.10.16-sunxi')
dtb_path = ('/usr/lib/linux-image-current-sunxi/'
'sun8i-r40-bananapi-m2-ultra.dtb')
dtb_path = self.extract_from_deb(deb_path, dtb_path)
initrd_url = ('https://github.com/groeck/linux-build-test/raw/'
'2eb0a73b5d5a28df3170c546ddaaa9757e1e0848/rootfs/'
'arm/rootfs-armv7a.cpio.gz')
initrd_hash = '604b2e45cdf35045846b8bbfbf2129b1891bdc9c'
initrd_path_gz = self.fetch_asset(initrd_url, asset_hash=initrd_hash)
initrd_path = os.path.join(self.workdir, 'rootfs.cpio')
archive.gzip_uncompress(initrd_path_gz, initrd_path)
self.vm.set_console()
kernel_command_line = (self.KERNEL_COMMON_COMMAND_LINE +
'console=ttyS0,115200 '
'panic=-1 noreboot')
self.vm.add_args('-kernel', kernel_path,
'-dtb', dtb_path,
'-initrd', initrd_path,
'-append', kernel_command_line,
'-no-reboot')
self.vm.launch()
self.wait_for_console_pattern('Boot successful.')
exec_command_and_wait_for_pattern(self, 'cat /proc/cpuinfo',
'Allwinner sun8i Family')
exec_command_and_wait_for_pattern(self, 'cat /proc/iomem',
'system-control@1c00000')
exec_command_and_wait_for_pattern(self, 'reboot',
'reboot: Restarting system')
# Wait for VM to shut down gracefully
self.vm.wait()
def test_arm_bpim2u_gmac(self):
"""
:avocado: tags=arch:arm
:avocado: tags=accel:tcg
:avocado: tags=machine:bpim2u
:avocado: tags=device:sd
"""
self.require_netdev('user')
deb_url = ('https://apt.armbian.com/pool/main/l/linux-5.10.16-sunxi/'
'linux-image-current-sunxi_21.02.2_armhf.deb')
deb_hash = '9fa84beda245cabf0b4fa84cf6eaa7738ead1da0'
deb_path = self.fetch_asset(deb_url, asset_hash=deb_hash)
kernel_path = self.extract_from_deb(deb_path,
'/boot/vmlinuz-5.10.16-sunxi')
dtb_path = ('/usr/lib/linux-image-current-sunxi/'
'sun8i-r40-bananapi-m2-ultra.dtb')
dtb_path = self.extract_from_deb(deb_path, dtb_path)
rootfs_url = ('http://storage.kernelci.org/images/rootfs/buildroot/'
'buildroot-baseline/20221116.0/armel/rootfs.ext2.xz')
rootfs_hash = 'fae32f337c7b87547b10f42599acf109da8b6d9a'
rootfs_path_xz = self.fetch_asset(rootfs_url, asset_hash=rootfs_hash)
rootfs_path = os.path.join(self.workdir, 'rootfs.cpio')
archive.lzma_uncompress(rootfs_path_xz, rootfs_path)
image_pow2ceil_expand(rootfs_path)
self.vm.set_console()
kernel_command_line = (self.KERNEL_COMMON_COMMAND_LINE +
'console=ttyS0,115200 '
'root=/dev/mmcblk0 rootwait rw '
'panic=-1 noreboot')
self.vm.add_args('-kernel', kernel_path,
'-dtb', dtb_path,
'-drive', 'file=' + rootfs_path + ',if=sd,format=raw',
'-net', 'nic,model=gmac,netdev=host_gmac',
'-netdev', 'user,id=host_gmac',
'-append', kernel_command_line,
'-no-reboot')
self.vm.launch()
shell_ready = "/bin/sh: can't access tty; job control turned off"
self.wait_for_console_pattern(shell_ready)
exec_command_and_wait_for_pattern(self, 'cat /proc/cpuinfo',
'Allwinner sun8i Family')
exec_command_and_wait_for_pattern(self, 'cat /proc/partitions',
'mmcblk0')
exec_command_and_wait_for_pattern(self, 'ifconfig eth0 up',
'eth0: Link is Up')
exec_command_and_wait_for_pattern(self, 'udhcpc eth0',
'udhcpc: lease of 10.0.2.15 obtained')
exec_command_and_wait_for_pattern(self, 'ping -c 3 10.0.2.2',
'3 packets transmitted, 3 packets received, 0% packet loss')
exec_command_and_wait_for_pattern(self, 'reboot',
'reboot: Restarting system')
# Wait for VM to shut down gracefully
self.vm.wait()
@skipUnless(os.getenv('AVOCADO_ALLOW_LARGE_STORAGE'), 'storage limited')
def test_arm_bpim2u_openwrt_22_03_3(self):
"""
:avocado: tags=arch:arm
:avocado: tags=machine:bpim2u
:avocado: tags=device:sd
"""
# This test download a 8.9 MiB compressed image and expand it
# to 127 MiB.
image_url = ('https://downloads.openwrt.org/releases/22.03.3/targets/'
'sunxi/cortexa7/openwrt-22.03.3-sunxi-cortexa7-'
'sinovoip_bananapi-m2-ultra-ext4-sdcard.img.gz')
image_hash = ('5b41b4e11423e562c6011640f9a7cd3b'
'dd0a3d42b83430f7caa70a432e6cd82c')
image_path_gz = self.fetch_asset(image_url, asset_hash=image_hash,
algorithm='sha256')
image_path = archive.extract(image_path_gz, self.workdir)
image_pow2ceil_expand(image_path)
self.vm.set_console()
self.vm.add_args('-drive', 'file=' + image_path + ',if=sd,format=raw',
'-nic', 'user',
'-no-reboot')
self.vm.launch()
kernel_command_line = (self.KERNEL_COMMON_COMMAND_LINE +
'usbcore.nousb '
'noreboot')
self.wait_for_console_pattern('U-Boot SPL')
interrupt_interactive_console_until_pattern(
self, 'Hit any key to stop autoboot:', '=>')
exec_command_and_wait_for_pattern(self, "setenv extraargs '" +
kernel_command_line + "'", '=>')
exec_command_and_wait_for_pattern(self, 'boot', 'Starting kernel ...');
self.wait_for_console_pattern(
'Please press Enter to activate this console.')
exec_command_and_wait_for_pattern(self, ' ', 'root@')
exec_command_and_wait_for_pattern(self, 'cat /proc/cpuinfo',
'Allwinner sun8i Family')
exec_command_and_wait_for_pattern(self, 'cat /proc/iomem',
'system-control@1c00000')
def test_arm_orangepi(self):
"""
:avocado: tags=arch:arm

1
tests/qtest/meson.build
View File

@ -216,6 +216,7 @@ qtests_aarch64 = \
(config_all.has_key('CONFIG_TCG') and config_all_devices.has_key('CONFIG_TPM_TIS_SYSBUS') ? \
['tpm-tis-device-test', 'tpm-tis-device-swtpm-test'] : []) + \
(config_all_devices.has_key('CONFIG_XLNX_ZYNQMP_ARM') ? ['xlnx-can-test', 'fuzz-xlnx-dp-test'] : []) + \
(config_all_devices.has_key('CONFIG_XLNX_VERSAL') ? ['xlnx-canfd-test'] : []) + \
(config_all_devices.has_key('CONFIG_RASPI') ? ['bcm2835-dma-test'] : []) + \
(config_all.has_key('CONFIG_TCG') and \
config_all_devices.has_key('CONFIG_TPM_TIS_I2C') ? ['tpm-tis-i2c-test'] : []) + \

423
tests/qtest/xlnx-canfd-test.c Normal file
View File

@ -0,0 +1,423 @@
/*
* SPDX-License-Identifier: MIT
*
* QTests for the Xilinx Versal CANFD controller.
*
* Copyright (c) 2022 AMD Inc.
*
* Written-by: Vikram Garhwal<vikram.garhwal@amd.com>
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
* THE SOFTWARE.
*/
#include "qemu/osdep.h"
#include "libqtest.h"
/* Base address. */
#define CANFD0_BASE_ADDR 0xff060000
#define CANFD1_BASE_ADDR 0xff070000
/* Register addresses. */
#define R_SRR_OFFSET 0x00
#define R_MSR_OFFSET 0x04
#define R_FILTER_CONTROL_REGISTER 0xe0
#define R_SR_OFFSET 0x18
#define R_ISR_OFFSET 0x1c
#define R_IER_OFFSET 0x20
#define R_ICR_OFFSET 0x24
#define R_TX_READY_REQ_REGISTER 0x90
#define RX_FIFO_STATUS_REGISTER 0xe8
#define R_TXID_OFFSET 0x100
#define R_TXDLC_OFFSET 0x104
#define R_TXDATA1_OFFSET 0x108
#define R_TXDATA2_OFFSET 0x10c
#define R_AFMR_REGISTER0 0xa00
#define R_AFIR_REGISTER0 0xa04
#define R_RX0_ID_OFFSET 0x2100
#define R_RX0_DLC_OFFSET 0x2104
#define R_RX0_DATA1_OFFSET 0x2108
#define R_RX0_DATA2_OFFSET 0x210c
/* CANFD modes. */
#define SRR_CONFIG_MODE 0x00
#define MSR_NORMAL_MODE 0x00
#define MSR_LOOPBACK_MODE (1 << 1)
#define ENABLE_CANFD (1 << 1)
/* CANFD status. */
#define STATUS_CONFIG_MODE (1 << 0)
#define STATUS_NORMAL_MODE (1 << 3)
#define STATUS_LOOPBACK_MODE (1 << 1)
#define ISR_TXOK (1 << 1)
#define ISR_RXOK (1 << 4)
#define ENABLE_ALL_FILTERS 0xffffffff
#define ENABLE_ALL_INTERRUPTS 0xffffffff
/* We are sending one canfd message. */
#define TX_READY_REG_VAL 0x1
#define FIRST_RX_STORE_INDEX 0x1
#define STATUS_REG_MASK 0xf
#define DLC_FD_BIT_SHIFT 0x1b
#define DLC_FD_BIT_MASK 0xf8000000
#define FIFO_STATUS_READ_INDEX_MASK 0x3f
#define FIFO_STATUS_FILL_LEVEL_MASK 0x7f00
#define FILL_LEVEL_SHIFT 0x8
/* CANFD frame size ID, DLC and 16 DATA word. */
#define CANFD_FRAME_SIZE 18
/* CAN frame size ID, DLC and 2 DATA word. */
#define CAN_FRAME_SIZE 4
/* Set the filters for CANFD controller. */
static void enable_filters(QTestState *qts)
{
const uint32_t arr_afmr[32] = { 0xb423deaa, 0xa2a40bdc, 0x1b64f486,
0x95c0d4ee, 0xe0c44528, 0x4b407904,
0xd2673f46, 0x9fc638d6, 0x8844f3d8,
0xa607d1e8, 0x67871bf4, 0xc2557dc,
0x9ea5b53e, 0x3643c0cc, 0x5a05ea8e,
0x83a46d84, 0x4a25c2b8, 0x93a66008,
0x2e467470, 0xedc66118, 0x9086f9f2,
0xfa23dd36, 0xb6654b90, 0xb221b8ca,
0x3467d1e2, 0xa3a55542, 0x5b26a012,
0x2281ea7e, 0xcea0ece8, 0xdc61e588,
0x2e5676a, 0x16821320 };
const uint32_t arr_afir[32] = { 0xa833dfa1, 0x255a477e, 0x3a4bb1c5,
0x8f560a6c, 0x27f38903, 0x2fecec4d,
0xa014c66d, 0xec289b8, 0x7e52dead,
0x82e94f3c, 0xcf3e3c5c, 0x66059871,
0x3f213df4, 0x25ac3959, 0xa12e9bef,
0xa3ad3af, 0xbafd7fe, 0xb3cb40fd,
0x5d9caa81, 0x2ed61902, 0x7cd64a0,
0x4b1fa538, 0x9b5ced8c, 0x150de059,
0xd2794227, 0x635e820a, 0xbb6b02cf,
0xbb58176, 0x570025bb, 0xa78d9658,
0x49d735df, 0xe5399d2f };
/* Passing the respective array values to all the AFMR and AFIR pairs. */
for (int i = 0; i < 32; i++) {
/* For CANFD0. */
qtest_writel(qts, CANFD0_BASE_ADDR + R_AFMR_REGISTER0 + 8 * i,
arr_afmr[i]);
qtest_writel(qts, CANFD0_BASE_ADDR + R_AFIR_REGISTER0 + 8 * i,
arr_afir[i]);
/* For CANFD1. */
qtest_writel(qts, CANFD1_BASE_ADDR + R_AFMR_REGISTER0 + 8 * i,
arr_afmr[i]);
qtest_writel(qts, CANFD1_BASE_ADDR + R_AFIR_REGISTER0 + 8 * i,
arr_afir[i]);
}
/* Enable all the pairs from AFR register. */
qtest_writel(qts, CANFD0_BASE_ADDR + R_FILTER_CONTROL_REGISTER,
ENABLE_ALL_FILTERS);
qtest_writel(qts, CANFD1_BASE_ADDR + R_FILTER_CONTROL_REGISTER,
ENABLE_ALL_FILTERS);
}
static void configure_canfd(QTestState *qts, uint8_t mode)
{
uint32_t status = 0;
/* Put CANFD0 and CANFD1 in config mode. */
qtest_writel(qts, CANFD0_BASE_ADDR + R_SRR_OFFSET, SRR_CONFIG_MODE);
qtest_writel(qts, CANFD1_BASE_ADDR + R_SRR_OFFSET, SRR_CONFIG_MODE);
/* Write mode of operation in Mode select register. */
qtest_writel(qts, CANFD0_BASE_ADDR + R_MSR_OFFSET, mode);
qtest_writel(qts, CANFD1_BASE_ADDR + R_MSR_OFFSET, mode);
enable_filters(qts);
/* Check here if CANFD0 and CANFD1 are in config mode. */
status = qtest_readl(qts, CANFD0_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_CONFIG_MODE);
status = qtest_readl(qts, CANFD1_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_CONFIG_MODE);
qtest_writel(qts, CANFD1_BASE_ADDR + R_IER_OFFSET, ENABLE_ALL_INTERRUPTS);
qtest_writel(qts, CANFD1_BASE_ADDR + R_IER_OFFSET, ENABLE_ALL_INTERRUPTS);
qtest_writel(qts, CANFD0_BASE_ADDR + R_SRR_OFFSET, ENABLE_CANFD);
qtest_writel(qts, CANFD1_BASE_ADDR + R_SRR_OFFSET, ENABLE_CANFD);
}
static void generate_random_data(uint32_t *buf_tx, bool is_canfd_frame)
{
/* Generate random TX data for CANFD frame. */
if (is_canfd_frame) {
for (int i = 0; i < CANFD_FRAME_SIZE - 2; i++) {
buf_tx[2 + i] = rand();
}
} else {
/* Generate random TX data for CAN frame. */
for (int i = 0; i < CAN_FRAME_SIZE - 2; i++) {
buf_tx[2 + i] = rand();
}
}
}
static void read_data(QTestState *qts, uint64_t can_base_addr, uint32_t *buf_rx)
{
uint32_t int_status;
uint32_t fifo_status_reg_value;
/* At which RX FIFO the received data is stored. */
uint8_t store_ind = 0;
bool is_canfd_frame = false;
/* Read the interrupt on CANFD rx. */
int_status = qtest_readl(qts, can_base_addr + R_ISR_OFFSET) & ISR_RXOK;
g_assert_cmpint(int_status, ==, ISR_RXOK);
/* Find the fill level and read index. */
fifo_status_reg_value = qtest_readl(qts, can_base_addr +
RX_FIFO_STATUS_REGISTER);
store_ind = (fifo_status_reg_value & FIFO_STATUS_READ_INDEX_MASK) +
((fifo_status_reg_value & FIFO_STATUS_FILL_LEVEL_MASK) >>
FILL_LEVEL_SHIFT);
g_assert_cmpint(store_ind, ==, FIRST_RX_STORE_INDEX);
/* Read the RX register data for CANFD. */
buf_rx[0] = qtest_readl(qts, can_base_addr + R_RX0_ID_OFFSET);
buf_rx[1] = qtest_readl(qts, can_base_addr + R_RX0_DLC_OFFSET);
is_canfd_frame = (buf_rx[1] >> DLC_FD_BIT_SHIFT) & 1;
if (is_canfd_frame) {
for (int i = 0; i < CANFD_FRAME_SIZE - 2; i++) {
buf_rx[i + 2] = qtest_readl(qts,
can_base_addr + R_RX0_DATA1_OFFSET + 4 * i);
}
} else {
buf_rx[2] = qtest_readl(qts, can_base_addr + R_RX0_DATA1_OFFSET);
buf_rx[3] = qtest_readl(qts, can_base_addr + R_RX0_DATA2_OFFSET);
}
/* Clear the RX interrupt. */
qtest_writel(qts, CANFD1_BASE_ADDR + R_ICR_OFFSET, ISR_RXOK);
}
static void write_data(QTestState *qts, uint64_t can_base_addr,
const uint32_t *buf_tx, bool is_canfd_frame)
{
/* Write the TX register data for CANFD. */
qtest_writel(qts, can_base_addr + R_TXID_OFFSET, buf_tx[0]);
qtest_writel(qts, can_base_addr + R_TXDLC_OFFSET, buf_tx[1]);
if (is_canfd_frame) {
for (int i = 0; i < CANFD_FRAME_SIZE - 2; i++) {
qtest_writel(qts, can_base_addr + R_TXDATA1_OFFSET + 4 * i,
buf_tx[2 + i]);
}
} else {
qtest_writel(qts, can_base_addr + R_TXDATA1_OFFSET, buf_tx[2]);
qtest_writel(qts, can_base_addr + R_TXDATA2_OFFSET, buf_tx[3]);
}
}
static void send_data(QTestState *qts, uint64_t can_base_addr)
{
uint32_t int_status;
qtest_writel(qts, can_base_addr + R_TX_READY_REQ_REGISTER,
TX_READY_REG_VAL);
/* Read the interrupt on CANFD for tx. */
int_status = qtest_readl(qts, can_base_addr + R_ISR_OFFSET) & ISR_TXOK;
g_assert_cmpint(int_status, ==, ISR_TXOK);
/* Clear the interrupt for tx. */
qtest_writel(qts, CANFD0_BASE_ADDR + R_ICR_OFFSET, ISR_TXOK);
}
static void match_rx_tx_data(const uint32_t *buf_tx, const uint32_t *buf_rx,
bool is_canfd_frame)
{
uint16_t size = 0;
uint8_t len = CAN_FRAME_SIZE;
if (is_canfd_frame) {
len = CANFD_FRAME_SIZE;
}
while (size < len) {
if (R_RX0_ID_OFFSET + 4 * size == R_RX0_DLC_OFFSET) {
g_assert_cmpint((buf_rx[size] & DLC_FD_BIT_MASK), ==,
(buf_tx[size] & DLC_FD_BIT_MASK));
} else {
if (!is_canfd_frame && size == 4) {
break;
}
g_assert_cmpint(buf_rx[size], ==, buf_tx[size]);
}
size++;
}
}
/*
* Xilinx CANFD supports both CAN and CANFD frames. This test will be
* transferring CAN frame i.e. 8 bytes of data from CANFD0 and CANFD1 through
* canbus. CANFD0 initiate the data transfer to can-bus, CANFD1 receives the
* data. Test compares the can frame data sent from CANFD0 and received on
* CANFD1.
*/
static void test_can_data_transfer(void)
{
uint32_t buf_tx[CAN_FRAME_SIZE] = { 0x5a5bb9a4, 0x80000000,
0x12345678, 0x87654321 };
uint32_t buf_rx[CAN_FRAME_SIZE] = { 0x00, 0x00, 0x00, 0x00 };
uint32_t status = 0;
generate_random_data(buf_tx, false);
QTestState *qts = qtest_init("-machine xlnx-versal-virt"
" -object can-bus,id=canbus"
" -machine canbus0=canbus"
" -machine canbus1=canbus"
);
configure_canfd(qts, MSR_NORMAL_MODE);
/* Check if CANFD0 and CANFD1 are in Normal mode. */
status = qtest_readl(qts, CANFD0_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_NORMAL_MODE);
status = qtest_readl(qts, CANFD1_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_NORMAL_MODE);
write_data(qts, CANFD0_BASE_ADDR, buf_tx, false);
send_data(qts, CANFD0_BASE_ADDR);
read_data(qts, CANFD1_BASE_ADDR, buf_rx);
match_rx_tx_data(buf_tx, buf_rx, false);
qtest_quit(qts);
}
/*
* This test will be transferring CANFD frame i.e. 64 bytes of data from CANFD0
* and CANFD1 through canbus. CANFD0 initiate the data transfer to can-bus,
* CANFD1 receives the data. Test compares the CANFD frame data sent from CANFD0
* with received on CANFD1.
*/
static void test_canfd_data_transfer(void)
{
uint32_t buf_tx[CANFD_FRAME_SIZE] = { 0x5a5bb9a4, 0xf8000000 };
uint32_t buf_rx[CANFD_FRAME_SIZE] = { 0x00, 0x00, 0x00, 0x00 };
uint32_t status = 0;
generate_random_data(buf_tx, true);
QTestState *qts = qtest_init("-machine xlnx-versal-virt"
" -object can-bus,id=canbus"
" -machine canbus0=canbus"
" -machine canbus1=canbus"
);
configure_canfd(qts, MSR_NORMAL_MODE);
/* Check if CANFD0 and CANFD1 are in Normal mode. */
status = qtest_readl(qts, CANFD0_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_NORMAL_MODE);
status = qtest_readl(qts, CANFD1_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_NORMAL_MODE);
write_data(qts, CANFD0_BASE_ADDR, buf_tx, true);
send_data(qts, CANFD0_BASE_ADDR);
read_data(qts, CANFD1_BASE_ADDR, buf_rx);
match_rx_tx_data(buf_tx, buf_rx, true);
qtest_quit(qts);
}
/*
* This test is performing loopback mode on CANFD0 and CANFD1. Data sent from
* TX of each CANFD0 and CANFD1 are compared with RX register data for
* respective CANFD Controller.
*/
static void test_can_loopback(void)
{
uint32_t buf_tx[CANFD_FRAME_SIZE] = { 0x5a5bb9a4, 0xf8000000 };
uint32_t buf_rx[CANFD_FRAME_SIZE] = { 0x00, 0x00, 0x00, 0x00 };
uint32_t status = 0;
generate_random_data(buf_tx, true);
QTestState *qts = qtest_init("-machine xlnx-versal-virt"
" -object can-bus,id=canbus"
" -machine canbus0=canbus"
" -machine canbus1=canbus"
);
configure_canfd(qts, MSR_LOOPBACK_MODE);
/* Check if CANFD0 and CANFD1 are set in correct loopback mode. */
status = qtest_readl(qts, CANFD0_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_LOOPBACK_MODE);
status = qtest_readl(qts, CANFD1_BASE_ADDR + R_SR_OFFSET);
status = status & STATUS_REG_MASK;
g_assert_cmpint(status, ==, STATUS_LOOPBACK_MODE);
write_data(qts, CANFD0_BASE_ADDR, buf_tx, true);
send_data(qts, CANFD0_BASE_ADDR);
read_data(qts, CANFD0_BASE_ADDR, buf_rx);
match_rx_tx_data(buf_tx, buf_rx, true);
generate_random_data(buf_tx, true);
write_data(qts, CANFD1_BASE_ADDR, buf_tx, true);
send_data(qts, CANFD1_BASE_ADDR);
read_data(qts, CANFD1_BASE_ADDR, buf_rx);
match_rx_tx_data(buf_tx, buf_rx, true);
qtest_quit(qts);
}
int main(int argc, char **argv)
{
g_test_init(&argc, &argv, NULL);
qtest_add_func("/net/canfd/can_data_transfer", test_can_data_transfer);
qtest_add_func("/net/canfd/canfd_data_transfer", test_canfd_data_transfer);
qtest_add_func("/net/canfd/can_loopback", test_can_loopback);
return g_test_run();
}

11
tests/tcg/aarch64/Makefile.target
View File

@ -21,12 +21,23 @@ config-cc.mak: Makefile
$(quiet-@)( \
$(call cc-option,-march=armv8.1-a+sve, CROSS_CC_HAS_SVE); \
$(call cc-option,-march=armv8.1-a+sve2, CROSS_CC_HAS_SVE2); \
$(call cc-option,-march=armv8.2-a, CROSS_CC_HAS_ARMV8_2); \
$(call cc-option,-march=armv8.3-a, CROSS_CC_HAS_ARMV8_3); \
$(call cc-option,-march=armv8.5-a, CROSS_CC_HAS_ARMV8_5); \
$(call cc-option,-mbranch-protection=standard, CROSS_CC_HAS_ARMV8_BTI); \
$(call cc-option,-march=armv8.5-a+memtag, CROSS_CC_HAS_ARMV8_MTE); \
$(call cc-option,-march=armv9-a+sme, CROSS_CC_HAS_ARMV9_SME)) 3> config-cc.mak
-include config-cc.mak
ifneq ($(CROSS_CC_HAS_ARMV8_2),)
AARCH64_TESTS += dcpop
dcpop: CFLAGS += -march=armv8.2-a
endif
ifneq ($(CROSS_CC_HAS_ARMV8_5),)
AARCH64_TESTS += dcpodp
dcpodp: CFLAGS += -march=armv8.5-a
endif
# Pauth Tests
ifneq ($(CROSS_CC_HAS_ARMV8_3),)
AARCH64_TESTS += pauth-1 pauth-2 pauth-4 pauth-5

63
tests/tcg/aarch64/dcpodp.c Normal file
View File

@ -0,0 +1,63 @@
/*
* Test execution of DC CVADP instruction.
*
* Copyright (c) 2023 Zhuojia Shen <chaosdefinition@hotmail.com>
* SPDX-License-Identifier: GPL-2.0-or-later
*/
#include <asm/hwcap.h>
#include <sys/auxv.h>
#include <signal.h>
#include <stdbool.h>
#include <stdio.h>
#include <stdlib.h>
#ifndef HWCAP2_DCPODP
#define HWCAP2_DCPODP (1 << 0)
#endif
bool should_fail = false;
static void signal_handler(int sig, siginfo_t *si, void *data)
{
ucontext_t *uc = (ucontext_t *)data;
if (should_fail) {
uc->uc_mcontext.pc += 4;
} else {
exit(EXIT_FAILURE);
}
}
static int do_dc_cvadp(void)
{
struct sigaction sa = {
.sa_flags = SA_SIGINFO,
.sa_sigaction = signal_handler,
};
sigemptyset(&sa.sa_mask);
if (sigaction(SIGSEGV, &sa, NULL) < 0) {
perror("sigaction");
return EXIT_FAILURE;
}
asm volatile("dc cvadp, %0\n\t" :: "r"(&sa));
should_fail = true;
asm volatile("dc cvadp, %0\n\t" :: "r"(NULL));
should_fail = false;
return EXIT_SUCCESS;
}
int main(void)
{
if (getauxval(AT_HWCAP2) & HWCAP2_DCPODP) {
return do_dc_cvadp();
} else {
printf("SKIP: no HWCAP2_DCPODP on this system\n");
return EXIT_SUCCESS;
}
}

63
tests/tcg/aarch64/dcpop.c Normal file
View File

@ -0,0 +1,63 @@
/*
* Test execution of DC CVAP instruction.
*
* Copyright (c) 2023 Zhuojia Shen <chaosdefinition@hotmail.com>
* SPDX-License-Identifier: GPL-2.0-or-later
*/
#include <asm/hwcap.h>
#include <sys/auxv.h>
#include <signal.h>
#include <stdbool.h>
#include <stdio.h>
#include <stdlib.h>
#ifndef HWCAP_DCPOP
#define HWCAP_DCPOP (1 << 16)
#endif
bool should_fail = false;
static void signal_handler(int sig, siginfo_t *si, void *data)
{
ucontext_t *uc = (ucontext_t *)data;
if (should_fail) {
uc->uc_mcontext.pc += 4;
} else {
exit(EXIT_FAILURE);
}
}
static int do_dc_cvap(void)
{
struct sigaction sa = {
.sa_flags = SA_SIGINFO,
.sa_sigaction = signal_handler,
};
sigemptyset(&sa.sa_mask);
if (sigaction(SIGSEGV, &sa, NULL) < 0) {
perror("sigaction");
return EXIT_FAILURE;
}
asm volatile("dc cvap, %0\n\t" :: "r"(&sa));
should_fail = true;
asm volatile("dc cvap, %0\n\t" :: "r"(NULL));
should_fail = false;
return EXIT_SUCCESS;
}
int main(void)
{
if (getauxval(AT_HWCAP) & HWCAP_DCPOP) {
return do_dc_cvap();
} else {
printf("SKIP: no HWCAP_DCPOP on this system\n");
return EXIT_SUCCESS;
}
}

3
tests/tcg/aarch64/mte-7.c
View File

@ -19,8 +19,7 @@ int main(int ac, char **av)
p = (void *)((unsigned long)p | (1ul << 56));
/* Store tag in sequential granules. */
asm("stg %0, [%0]" : : "r"(p + 0x0ff0));
asm("stg %0, [%0]" : : "r"(p + 0x1000));
asm("stz2g %0, [%0]" : : "r"(p + 0x0ff0));
/*
* Perform an unaligned store with tag 1 crossing the pages.

13
tests/tcg/multiarch/sigbus.c
View File

@ -6,8 +6,13 @@
#include <endian.h>
unsigned long long x = 0x8877665544332211ull;
void * volatile p = (void *)&x + 1;
char x[32] __attribute__((aligned(16))) = {
0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08,
0x09, 0x0a, 0x0b, 0x0c, 0x0d, 0x0e, 0x0f, 0x10,
0x11, 0x12, 0x13, 0x14, 0x15, 0x16, 0x17, 0x18,
0x19, 0x1a, 0x1b, 0x1c, 0x1d, 0x1e, 0x1f, 0x20,
};
void * volatile p = (void *)&x + 15;
void sigbus(int sig, siginfo_t *info, void *uc)
{
@ -60,9 +65,9 @@ int main()
* We might as well validate the unaligned load worked.
*/
if (BYTE_ORDER == LITTLE_ENDIAN) {
assert(tmp == 0x55443322);
assert(tmp == 0x13121110);
} else {
assert(tmp == 0x77665544);
assert(tmp == 0x10111213);
}
return EXIT_SUCCESS;
}