qemu/hw/arm/aspeed_ast10x0.c

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/*
* ASPEED Ast10x0 SoC
*
* Copyright (C) 2022 ASPEED Technology Inc.
*
* This code is licensed under the GPL version 2 or later. See
* the COPYING file in the top-level directory.
*
* Implementation extracted from the AST2600 and adapted for Ast10x0.
*/
#include "qemu/osdep.h"
#include "qapi/error.h"
#include "exec/address-spaces.h"
#include "sysemu/sysemu.h"
#include "hw/qdev-clock.h"
#include "hw/misc/unimp.h"
#include "hw/arm/aspeed_soc.h"
#define ASPEED_SOC_IOMEM_SIZE 0x00200000
static const hwaddr aspeed_soc_ast1030_memmap[] = {
[ASPEED_DEV_SRAM] = 0x00000000,
[ASPEED_DEV_SBC] = 0x79000000,
[ASPEED_DEV_IOMEM] = 0x7E600000,
[ASPEED_DEV_PWM] = 0x7E610000,
[ASPEED_DEV_FMC] = 0x7E620000,
[ASPEED_DEV_SPI1] = 0x7E630000,
[ASPEED_DEV_SPI2] = 0x7E640000,
[ASPEED_DEV_UDC] = 0x7E6A2000,
[ASPEED_DEV_SCU] = 0x7E6E2000,
[ASPEED_DEV_JTAG0] = 0x7E6E4000,
[ASPEED_DEV_JTAG1] = 0x7E6E4100,
[ASPEED_DEV_ADC] = 0x7E6E9000,
[ASPEED_DEV_ESPI] = 0x7E6EE000,
[ASPEED_DEV_SBC] = 0x7E6F2000,
[ASPEED_DEV_GPIO] = 0x7E780000,
[ASPEED_DEV_SGPIOM] = 0x7E780500,
[ASPEED_DEV_TIMER1] = 0x7E782000,
[ASPEED_DEV_UART1] = 0x7E783000,
[ASPEED_DEV_UART2] = 0x7E78D000,
[ASPEED_DEV_UART3] = 0x7E78E000,
[ASPEED_DEV_UART4] = 0x7E78F000,
[ASPEED_DEV_UART5] = 0x7E784000,
[ASPEED_DEV_UART6] = 0x7E790000,
[ASPEED_DEV_UART7] = 0x7E790100,
[ASPEED_DEV_UART8] = 0x7E790200,
[ASPEED_DEV_UART9] = 0x7E790300,
[ASPEED_DEV_UART10] = 0x7E790400,
[ASPEED_DEV_UART11] = 0x7E790500,
[ASPEED_DEV_UART12] = 0x7E790600,
[ASPEED_DEV_UART13] = 0x7E790700,
[ASPEED_DEV_WDT] = 0x7E785000,
[ASPEED_DEV_LPC] = 0x7E789000,
hw/misc/aspeed: Add PECI controller This introduces a really basic PECI controller that responses to commands by always setting the response code to success and then raising an interrupt to indicate the command is done. This helps avoid getting hit with constant errors if the driver continuously attempts to send a command and keeps timing out. The AST2400 and AST2500 only included registers up to 0x5C, not 0xFC. They supported PECI 1.1, 2.0, and 3.0. The AST2600 and AST1030 support PECI 4.0, which includes more read/write buffer registers from 0x80 to 0xFC to support 64-byte mode. This patch doesn't attempt to handle that, or to create a different version of the controller for the different generations, since it's only implementing functionality that is common to all generations. The basic sequence of events is that the firmware will read and write to various registers and then trigger a command by setting the FIRE bit in the command register (similar to the I2C controller). Then the firmware waits for an interrupt from the PECI controller, expecting the interrupt status register to be filled in with info on what happened. If the command was transmitted and received successfully, then response codes from the host CPU will be found in the data buffer registers. Signed-off-by: Peter Delevoryas <pdel@fb.com> Reviewed-by: Cédric Le Goater <clg@kaod.org> Message-Id: <20220630045133.32251-12-me@pjd.dev> [ clg: s/sysbus_mmio_map/aspeed_mmio_map/ ] Signed-off-by: Cédric Le Goater <clg@kaod.org>
2022-06-30 10:21:14 +03:00
[ASPEED_DEV_PECI] = 0x7E78B000,
[ASPEED_DEV_I3C] = 0x7E7A0000,
[ASPEED_DEV_I2C] = 0x7E7B0000,
};
static const int aspeed_soc_ast1030_irqmap[] = {
[ASPEED_DEV_UART1] = 47,
[ASPEED_DEV_UART2] = 48,
[ASPEED_DEV_UART3] = 49,
[ASPEED_DEV_UART4] = 50,
[ASPEED_DEV_UART5] = 8,
[ASPEED_DEV_UART6] = 57,
[ASPEED_DEV_UART7] = 58,
[ASPEED_DEV_UART8] = 59,
[ASPEED_DEV_UART9] = 60,
[ASPEED_DEV_UART10] = 61,
[ASPEED_DEV_UART11] = 62,
[ASPEED_DEV_UART12] = 63,
[ASPEED_DEV_UART13] = 64,
[ASPEED_DEV_GPIO] = 11,
[ASPEED_DEV_TIMER1] = 16,
[ASPEED_DEV_TIMER2] = 17,
[ASPEED_DEV_TIMER3] = 18,
[ASPEED_DEV_TIMER4] = 19,
[ASPEED_DEV_TIMER5] = 20,
[ASPEED_DEV_TIMER6] = 21,
[ASPEED_DEV_TIMER7] = 22,
[ASPEED_DEV_TIMER8] = 23,
[ASPEED_DEV_WDT] = 24,
[ASPEED_DEV_LPC] = 35,
hw/misc/aspeed: Add PECI controller This introduces a really basic PECI controller that responses to commands by always setting the response code to success and then raising an interrupt to indicate the command is done. This helps avoid getting hit with constant errors if the driver continuously attempts to send a command and keeps timing out. The AST2400 and AST2500 only included registers up to 0x5C, not 0xFC. They supported PECI 1.1, 2.0, and 3.0. The AST2600 and AST1030 support PECI 4.0, which includes more read/write buffer registers from 0x80 to 0xFC to support 64-byte mode. This patch doesn't attempt to handle that, or to create a different version of the controller for the different generations, since it's only implementing functionality that is common to all generations. The basic sequence of events is that the firmware will read and write to various registers and then trigger a command by setting the FIRE bit in the command register (similar to the I2C controller). Then the firmware waits for an interrupt from the PECI controller, expecting the interrupt status register to be filled in with info on what happened. If the command was transmitted and received successfully, then response codes from the host CPU will be found in the data buffer registers. Signed-off-by: Peter Delevoryas <pdel@fb.com> Reviewed-by: Cédric Le Goater <clg@kaod.org> Message-Id: <20220630045133.32251-12-me@pjd.dev> [ clg: s/sysbus_mmio_map/aspeed_mmio_map/ ] Signed-off-by: Cédric Le Goater <clg@kaod.org>
2022-06-30 10:21:14 +03:00
[ASPEED_DEV_PECI] = 38,
[ASPEED_DEV_FMC] = 39,
[ASPEED_DEV_ESPI] = 42,
[ASPEED_DEV_PWM] = 44,
[ASPEED_DEV_ADC] = 46,
[ASPEED_DEV_SPI1] = 65,
[ASPEED_DEV_SPI2] = 66,
[ASPEED_DEV_I3C] = 102, /* 102 -> 105 */
[ASPEED_DEV_I2C] = 110, /* 110 ~ 123 */
[ASPEED_DEV_KCS] = 138, /* 138 -> 142 */
[ASPEED_DEV_UDC] = 9,
[ASPEED_DEV_SGPIOM] = 51,
[ASPEED_DEV_JTAG0] = 27,
[ASPEED_DEV_JTAG1] = 53,
};
static qemu_irq aspeed_soc_ast1030_get_irq(AspeedSoCState *s, int dev)
{
AspeedSoCClass *sc = ASPEED_SOC_GET_CLASS(s);
return qdev_get_gpio_in(DEVICE(&s->armv7m), sc->irqmap[dev]);
}
static void aspeed_soc_ast1030_init(Object *obj)
{
AspeedSoCState *s = ASPEED_SOC(obj);
AspeedSoCClass *sc = ASPEED_SOC_GET_CLASS(s);
char socname[8];
char typename[64];
int i;
if (sscanf(sc->name, "%7s", socname) != 1) {
g_assert_not_reached();
}
object_initialize_child(obj, "armv7m", &s->armv7m, TYPE_ARMV7M);
s->sysclk = qdev_init_clock_in(DEVICE(s), "sysclk", NULL, NULL, 0);
snprintf(typename, sizeof(typename), "aspeed.scu-%s", socname);
object_initialize_child(obj, "scu", &s->scu, typename);
qdev_prop_set_uint32(DEVICE(&s->scu), "silicon-rev", sc->silicon_rev);
object_property_add_alias(obj, "hw-strap1", OBJECT(&s->scu), "hw-strap1");
object_property_add_alias(obj, "hw-strap2", OBJECT(&s->scu), "hw-strap2");
snprintf(typename, sizeof(typename), "aspeed.i2c-%s", socname);
object_initialize_child(obj, "i2c", &s->i2c, typename);
object_initialize_child(obj, "i3c", &s->i3c, TYPE_ASPEED_I3C);
snprintf(typename, sizeof(typename), "aspeed.timer-%s", socname);
object_initialize_child(obj, "timerctrl", &s->timerctrl, typename);
snprintf(typename, sizeof(typename), "aspeed.adc-%s", socname);
object_initialize_child(obj, "adc", &s->adc, typename);
snprintf(typename, sizeof(typename), "aspeed.fmc-%s", socname);
object_initialize_child(obj, "fmc", &s->fmc, typename);
for (i = 0; i < sc->spis_num; i++) {
snprintf(typename, sizeof(typename), "aspeed.spi%d-%s", i + 1, socname);
object_initialize_child(obj, "spi[*]", &s->spi[i], typename);
}
object_initialize_child(obj, "lpc", &s->lpc, TYPE_ASPEED_LPC);
hw/misc/aspeed: Add PECI controller This introduces a really basic PECI controller that responses to commands by always setting the response code to success and then raising an interrupt to indicate the command is done. This helps avoid getting hit with constant errors if the driver continuously attempts to send a command and keeps timing out. The AST2400 and AST2500 only included registers up to 0x5C, not 0xFC. They supported PECI 1.1, 2.0, and 3.0. The AST2600 and AST1030 support PECI 4.0, which includes more read/write buffer registers from 0x80 to 0xFC to support 64-byte mode. This patch doesn't attempt to handle that, or to create a different version of the controller for the different generations, since it's only implementing functionality that is common to all generations. The basic sequence of events is that the firmware will read and write to various registers and then trigger a command by setting the FIRE bit in the command register (similar to the I2C controller). Then the firmware waits for an interrupt from the PECI controller, expecting the interrupt status register to be filled in with info on what happened. If the command was transmitted and received successfully, then response codes from the host CPU will be found in the data buffer registers. Signed-off-by: Peter Delevoryas <pdel@fb.com> Reviewed-by: Cédric Le Goater <clg@kaod.org> Message-Id: <20220630045133.32251-12-me@pjd.dev> [ clg: s/sysbus_mmio_map/aspeed_mmio_map/ ] Signed-off-by: Cédric Le Goater <clg@kaod.org>
2022-06-30 10:21:14 +03:00
object_initialize_child(obj, "peci", &s->peci, TYPE_ASPEED_PECI);
object_initialize_child(obj, "sbc", &s->sbc, TYPE_ASPEED_SBC);
for (i = 0; i < sc->wdts_num; i++) {
snprintf(typename, sizeof(typename), "aspeed.wdt-%s", socname);
object_initialize_child(obj, "wdt[*]", &s->wdt[i], typename);
}
aspeed: Refactor UART init for multi-SoC machines This change moves the code that connects the SoC UART's to serial_hd's to the machine. It makes each UART a proper child member of the SoC, and then allows the machine to selectively initialize the chardev for each UART with a serial_hd. This should preserve backwards compatibility, but also allow multi-SoC boards to completely change the wiring of serial devices from the command line to specific SoC UART's. This also removes the uart-default property from the SoC, since the SoC doesn't need to know what UART is the "default" on the machine anymore. I tested this using the images and commands from the previous refactoring, and another test image for the ast1030: wget https://github.com/facebook/openbmc/releases/download/v2021.49.0/fuji.mtd wget https://github.com/facebook/openbmc/releases/download/v2021.49.0/wedge100.mtd wget https://github.com/peterdelevoryas/OpenBIC/releases/download/oby35-cl-2022.13.01/Y35BCL.elf Fuji uses UART1: qemu-system-arm -machine fuji-bmc \ -drive file=fuji.mtd,format=raw,if=mtd \ -nographic ast2600-evb uses uart-default=UART5: qemu-system-arm -machine ast2600-evb \ -drive file=fuji.mtd,format=raw,if=mtd \ -serial null -serial mon:stdio -display none Wedge100 uses UART3: qemu-system-arm -machine palmetto-bmc \ -drive file=wedge100.mtd,format=raw,if=mtd \ -serial null -serial null -serial null \ -serial mon:stdio -display none AST1030 EVB uses UART5: qemu-system-arm -machine ast1030-evb \ -kernel Y35BCL.elf -nographic Fixes: 6827ff20b2975 ("hw: aspeed: Init all UART's with serial devices") Signed-off-by: Peter Delevoryas <peter@pjd.dev> Reviewed-by: Cédric Le Goater <clg@kaod.org> Message-Id: <20220705191400.41632-4-peter@pjd.dev> Signed-off-by: Cédric Le Goater <clg@kaod.org>
2022-07-14 17:24:38 +03:00
for (i = 0; i < sc->uarts_num; i++) {
object_initialize_child(obj, "uart[*]", &s->uart[i], TYPE_SERIAL_MM);
}
snprintf(typename, sizeof(typename), "aspeed.gpio-%s", socname);
object_initialize_child(obj, "gpio", &s->gpio, typename);
object_initialize_child(obj, "iomem", &s->iomem, TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "sbc-unimplemented", &s->sbc_unimplemented,
TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "pwm", &s->pwm, TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "espi", &s->espi, TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "udc", &s->udc, TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "sgpiom", &s->sgpiom,
TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "jtag[0]", &s->jtag[0],
TYPE_UNIMPLEMENTED_DEVICE);
object_initialize_child(obj, "jtag[1]", &s->jtag[1],
TYPE_UNIMPLEMENTED_DEVICE);
}
static void aspeed_soc_ast1030_realize(DeviceState *dev_soc, Error **errp)
{
AspeedSoCState *s = ASPEED_SOC(dev_soc);
AspeedSoCClass *sc = ASPEED_SOC_GET_CLASS(s);
DeviceState *armv7m;
Error *err = NULL;
int i;
g_autofree char *sram_name = NULL;
if (!clock_has_source(s->sysclk)) {
error_setg(errp, "sysclk clock must be wired up by the board code");
return;
}
/* General I/O memory space to catch all unimplemented device */
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->iomem), "aspeed.io",
sc->memmap[ASPEED_DEV_IOMEM],
ASPEED_SOC_IOMEM_SIZE);
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->sbc_unimplemented),
"aspeed.sbc", sc->memmap[ASPEED_DEV_SBC],
0x40000);
/* AST1030 CPU Core */
armv7m = DEVICE(&s->armv7m);
qdev_prop_set_uint32(armv7m, "num-irq", 256);
qdev_prop_set_string(armv7m, "cpu-type", sc->cpu_type);
qdev_connect_clock_in(armv7m, "cpuclk", s->sysclk);
object_property_set_link(OBJECT(&s->armv7m), "memory",
OBJECT(s->memory), &error_abort);
sysbus_realize(SYS_BUS_DEVICE(&s->armv7m), &error_abort);
/* Internal SRAM */
sram_name = g_strdup_printf("aspeed.sram.%d",
CPU(s->armv7m.cpu)->cpu_index);
memory_region_init_ram(&s->sram, OBJECT(s), sram_name, sc->sram_size, &err);
if (err != NULL) {
error_propagate(errp, err);
return;
}
memory_region_add_subregion(s->memory,
sc->memmap[ASPEED_DEV_SRAM],
&s->sram);
/* SCU */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->scu), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->scu), 0, sc->memmap[ASPEED_DEV_SCU]);
/* I2C */
object_property_set_link(OBJECT(&s->i2c), "dram", OBJECT(&s->sram),
&error_abort);
if (!sysbus_realize(SYS_BUS_DEVICE(&s->i2c), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->i2c), 0, sc->memmap[ASPEED_DEV_I2C]);
for (i = 0; i < ASPEED_I2C_GET_CLASS(&s->i2c)->num_busses; i++) {
qemu_irq irq = qdev_get_gpio_in(DEVICE(&s->armv7m),
sc->irqmap[ASPEED_DEV_I2C] + i);
/* The AST1030 I2C controller has one IRQ per bus. */
sysbus_connect_irq(SYS_BUS_DEVICE(&s->i2c.busses[i]), 0, irq);
}
/* I3C */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->i3c), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->i3c), 0, sc->memmap[ASPEED_DEV_I3C]);
for (i = 0; i < ASPEED_I3C_NR_DEVICES; i++) {
qemu_irq irq = qdev_get_gpio_in(DEVICE(&s->armv7m),
sc->irqmap[ASPEED_DEV_I3C] + i);
/* The AST1030 I3C controller has one IRQ per bus. */
sysbus_connect_irq(SYS_BUS_DEVICE(&s->i3c.devices[i]), 0, irq);
}
hw/misc/aspeed: Add PECI controller This introduces a really basic PECI controller that responses to commands by always setting the response code to success and then raising an interrupt to indicate the command is done. This helps avoid getting hit with constant errors if the driver continuously attempts to send a command and keeps timing out. The AST2400 and AST2500 only included registers up to 0x5C, not 0xFC. They supported PECI 1.1, 2.0, and 3.0. The AST2600 and AST1030 support PECI 4.0, which includes more read/write buffer registers from 0x80 to 0xFC to support 64-byte mode. This patch doesn't attempt to handle that, or to create a different version of the controller for the different generations, since it's only implementing functionality that is common to all generations. The basic sequence of events is that the firmware will read and write to various registers and then trigger a command by setting the FIRE bit in the command register (similar to the I2C controller). Then the firmware waits for an interrupt from the PECI controller, expecting the interrupt status register to be filled in with info on what happened. If the command was transmitted and received successfully, then response codes from the host CPU will be found in the data buffer registers. Signed-off-by: Peter Delevoryas <pdel@fb.com> Reviewed-by: Cédric Le Goater <clg@kaod.org> Message-Id: <20220630045133.32251-12-me@pjd.dev> [ clg: s/sysbus_mmio_map/aspeed_mmio_map/ ] Signed-off-by: Cédric Le Goater <clg@kaod.org>
2022-06-30 10:21:14 +03:00
/* PECI */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->peci), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->peci), 0,
sc->memmap[ASPEED_DEV_PECI]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->peci), 0,
aspeed_soc_get_irq(s, ASPEED_DEV_PECI));
/* LPC */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->lpc), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->lpc), 0, sc->memmap[ASPEED_DEV_LPC]);
/* Connect the LPC IRQ to the GIC. It is otherwise unused. */
sysbus_connect_irq(SYS_BUS_DEVICE(&s->lpc), 0,
aspeed_soc_get_irq(s, ASPEED_DEV_LPC));
/*
* On the AST1030 LPC subdevice IRQs are connected straight to the GIC.
*/
sysbus_connect_irq(SYS_BUS_DEVICE(&s->lpc), 1 + aspeed_lpc_kcs_1,
qdev_get_gpio_in(DEVICE(&s->armv7m),
sc->irqmap[ASPEED_DEV_KCS] + aspeed_lpc_kcs_1));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->lpc), 1 + aspeed_lpc_kcs_2,
qdev_get_gpio_in(DEVICE(&s->armv7m),
sc->irqmap[ASPEED_DEV_KCS] + aspeed_lpc_kcs_2));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->lpc), 1 + aspeed_lpc_kcs_3,
qdev_get_gpio_in(DEVICE(&s->armv7m),
sc->irqmap[ASPEED_DEV_KCS] + aspeed_lpc_kcs_3));
sysbus_connect_irq(SYS_BUS_DEVICE(&s->lpc), 1 + aspeed_lpc_kcs_4,
qdev_get_gpio_in(DEVICE(&s->armv7m),
sc->irqmap[ASPEED_DEV_KCS] + aspeed_lpc_kcs_4));
/* UART */
aspeed: Refactor UART init for multi-SoC machines This change moves the code that connects the SoC UART's to serial_hd's to the machine. It makes each UART a proper child member of the SoC, and then allows the machine to selectively initialize the chardev for each UART with a serial_hd. This should preserve backwards compatibility, but also allow multi-SoC boards to completely change the wiring of serial devices from the command line to specific SoC UART's. This also removes the uart-default property from the SoC, since the SoC doesn't need to know what UART is the "default" on the machine anymore. I tested this using the images and commands from the previous refactoring, and another test image for the ast1030: wget https://github.com/facebook/openbmc/releases/download/v2021.49.0/fuji.mtd wget https://github.com/facebook/openbmc/releases/download/v2021.49.0/wedge100.mtd wget https://github.com/peterdelevoryas/OpenBIC/releases/download/oby35-cl-2022.13.01/Y35BCL.elf Fuji uses UART1: qemu-system-arm -machine fuji-bmc \ -drive file=fuji.mtd,format=raw,if=mtd \ -nographic ast2600-evb uses uart-default=UART5: qemu-system-arm -machine ast2600-evb \ -drive file=fuji.mtd,format=raw,if=mtd \ -serial null -serial mon:stdio -display none Wedge100 uses UART3: qemu-system-arm -machine palmetto-bmc \ -drive file=wedge100.mtd,format=raw,if=mtd \ -serial null -serial null -serial null \ -serial mon:stdio -display none AST1030 EVB uses UART5: qemu-system-arm -machine ast1030-evb \ -kernel Y35BCL.elf -nographic Fixes: 6827ff20b2975 ("hw: aspeed: Init all UART's with serial devices") Signed-off-by: Peter Delevoryas <peter@pjd.dev> Reviewed-by: Cédric Le Goater <clg@kaod.org> Message-Id: <20220705191400.41632-4-peter@pjd.dev> Signed-off-by: Cédric Le Goater <clg@kaod.org>
2022-07-14 17:24:38 +03:00
if (!aspeed_soc_uart_realize(s, errp)) {
return;
}
/* Timer */
object_property_set_link(OBJECT(&s->timerctrl), "scu", OBJECT(&s->scu),
&error_abort);
if (!sysbus_realize(SYS_BUS_DEVICE(&s->timerctrl), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->timerctrl), 0,
sc->memmap[ASPEED_DEV_TIMER1]);
for (i = 0; i < ASPEED_TIMER_NR_TIMERS; i++) {
qemu_irq irq = aspeed_soc_get_irq(s, ASPEED_DEV_TIMER1 + i);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->timerctrl), i, irq);
}
/* ADC */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->adc), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->adc), 0, sc->memmap[ASPEED_DEV_ADC]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->adc), 0,
aspeed_soc_get_irq(s, ASPEED_DEV_ADC));
/* FMC, The number of CS is set at the board level */
object_property_set_link(OBJECT(&s->fmc), "dram", OBJECT(&s->sram),
&error_abort);
if (!sysbus_realize(SYS_BUS_DEVICE(&s->fmc), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->fmc), 0, sc->memmap[ASPEED_DEV_FMC]);
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->fmc), 1,
ASPEED_SMC_GET_CLASS(&s->fmc)->flash_window_base);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->fmc), 0,
aspeed_soc_get_irq(s, ASPEED_DEV_FMC));
/* SPI */
for (i = 0; i < sc->spis_num; i++) {
object_property_set_link(OBJECT(&s->spi[i]), "dram",
OBJECT(&s->sram), &error_abort);
if (!sysbus_realize(SYS_BUS_DEVICE(&s->spi[i]), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->spi[i]), 0,
sc->memmap[ASPEED_DEV_SPI1 + i]);
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->spi[i]), 1,
ASPEED_SMC_GET_CLASS(&s->spi[i])->flash_window_base);
}
/* Secure Boot Controller */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->sbc), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->sbc), 0, sc->memmap[ASPEED_DEV_SBC]);
/* Watch dog */
for (i = 0; i < sc->wdts_num; i++) {
AspeedWDTClass *awc = ASPEED_WDT_GET_CLASS(&s->wdt[i]);
hwaddr wdt_offset = sc->memmap[ASPEED_DEV_WDT] + i * awc->iosize;
object_property_set_link(OBJECT(&s->wdt[i]), "scu", OBJECT(&s->scu),
&error_abort);
if (!sysbus_realize(SYS_BUS_DEVICE(&s->wdt[i]), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->wdt[i]), 0, wdt_offset);
}
/* GPIO */
if (!sysbus_realize(SYS_BUS_DEVICE(&s->gpio), errp)) {
return;
}
aspeed_mmio_map(s, SYS_BUS_DEVICE(&s->gpio), 0,
sc->memmap[ASPEED_DEV_GPIO]);
sysbus_connect_irq(SYS_BUS_DEVICE(&s->gpio), 0,
aspeed_soc_get_irq(s, ASPEED_DEV_GPIO));
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->pwm), "aspeed.pwm",
sc->memmap[ASPEED_DEV_PWM], 0x100);
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->espi), "aspeed.espi",
sc->memmap[ASPEED_DEV_ESPI], 0x800);
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->udc), "aspeed.udc",
sc->memmap[ASPEED_DEV_UDC], 0x1000);
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->sgpiom), "aspeed.sgpiom",
sc->memmap[ASPEED_DEV_SGPIOM], 0x100);
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->jtag[0]), "aspeed.jtag",
sc->memmap[ASPEED_DEV_JTAG0], 0x20);
aspeed_mmio_map_unimplemented(s, SYS_BUS_DEVICE(&s->jtag[1]), "aspeed.jtag",
sc->memmap[ASPEED_DEV_JTAG1], 0x20);
}
static void aspeed_soc_ast1030_class_init(ObjectClass *klass, void *data)
{
DeviceClass *dc = DEVICE_CLASS(klass);
AspeedSoCClass *sc = ASPEED_SOC_CLASS(dc);
dc->realize = aspeed_soc_ast1030_realize;
sc->name = "ast1030-a1";
sc->cpu_type = ARM_CPU_TYPE_NAME("cortex-m4");
sc->silicon_rev = AST1030_A1_SILICON_REV;
sc->sram_size = 0xc0000;
sc->spis_num = 2;
sc->ehcis_num = 0;
sc->wdts_num = 4;
sc->macs_num = 1;
sc->uarts_num = 13;
sc->irqmap = aspeed_soc_ast1030_irqmap;
sc->memmap = aspeed_soc_ast1030_memmap;
sc->num_cpus = 1;
sc->get_irq = aspeed_soc_ast1030_get_irq;
}
static const TypeInfo aspeed_soc_ast1030_type_info = {
.name = "ast1030-a1",
.parent = TYPE_ASPEED_SOC,
.instance_size = sizeof(AspeedSoCState),
.instance_init = aspeed_soc_ast1030_init,
.class_init = aspeed_soc_ast1030_class_init,
.class_size = sizeof(AspeedSoCClass),
};
static void aspeed_soc_register_types(void)
{
type_register_static(&aspeed_soc_ast1030_type_info);
}
type_init(aspeed_soc_register_types)