NetBSD/sys/dev/ic/rtwreg.h

1144 lines
41 KiB
C
Raw Normal View History

Move the register access mode into struct rtw_regs. Change rtw_set_access, rtw_set_access1 to match. Add a subroutine for setting WEP keys. WEP isn't quite finished, because I have to add the WEP header to Tx packets. Implement the SIOCS80211NWKEY ioctl for setting WEP keys. Program the LEDs based on operating state and packet activity. * On a Revision F RTL8180, blink LED1 at 1Hz to indicate scan/authenticate/associate states. In the run state, turn LED1 on. In every state, blink LED1 at 5Hz to indicate non-beacon tx/rx activity. I would like to use two LEDs, but in all my Rev. F instances, LED0 is not wired to an LED; instead, the first LED is wired to indicate that the card's power is on. * On a Revision D RTL8180, program the LEDs so that LED0 indicates Tx, and LED1 indicates Rx. The Rx LED will blink annoyingly if there are beacons in the air, but at least the Tx LED is useful. * Store the hardware revision in the softc to support my futile attempt at programming LEDs for both Rev. D and Rev. F parts; I never did get Rev. D LEDs to work right. * Add a debug flag RTW_DEBUG_LED for the LED transitions. Add RTW_TPPOLL_ALL, RTW_TPPOLL_SALL to start and stop, respectively, all of the transmit rings. In ad hoc mode, allocate a beacon and load it into the beacon ring. Start the ring. In one trial, the card re-transmitted the beacon ring's contents several times before stopping. More programming and testing for ad hoc mode is necessary. I'm not setting the beacon flag in the transmit descriptor. Revamp the transmit section to make better use of all the transmit rings: beacon queue, high-, low-, and medium-priority rings. Put beacon frames on the beacon ring. All other management frames, and data frames, go on the medium-priority ring. Power-save data frames go on the high-priority ring. (Note that powersaving is not implemented!) This is a work in progress. Send all 802.11 Management frames at 1Mbps. After we put a packet on a transmit ring, tickle the right bit in the TPPOLL to tell RTL8180. Stop all rings on error and in rtw_stop. Use the RF chip type, not the RTL8180 revision, to choose between host- and MAC-controlled RF serial I/O. Now the Netgear MA521 works. Remove bogus definition of bit RTW_TPPOLL_FSWINT.
2005-01-16 14:50:43 +03:00
/* $NetBSD: rtwreg.h,v 1.12 2005/01/16 11:50:43 dyoung Exp $ */
/*-
* Copyright (c) 2004, 2005 David Young. All rights reserved.
*
* Programmed for NetBSD by David Young.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
* 1. Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* 2. Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in the
* documentation and/or other materials provided with the distribution.
* 3. The name of David Young may not be used to endorse or promote
* products derived from this software without specific prior
* written permission.
*
* THIS SOFTWARE IS PROVIDED BY David Young ``AS IS'' AND ANY
* EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO,
* THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A
* PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL David
* Young BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
* EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED
* TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
* ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY,
* OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
* OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY
* OF SUCH DAMAGE.
*/
/* Macros for bit twiddling. */
/* TBD factor w/ dev/ic/atwreg.h. */
#ifndef _BIT_TWIDDLE
#define _BIT_TWIDDLE
/* nth bit, BIT(0) == 0x1. */
#define BIT(n) (((n) == 32) ? 0 : ((uint32_t)1 << (n)))
/* bits m through n, m < n. */
#define BITS(m, n) ((BIT(MAX((m), (n)) + 1) - 1) ^ (BIT(MIN((m), (n))) - 1))
/* find least significant bit that is set */
#define LOWEST_SET_BIT(x) ((((x) - 1) & (x)) ^ (x))
/* for x a power of two and p a non-negative integer, is x a greater
* power than 2**p?
*/
#define GTEQ_POWER(x, p) (((u_long)(x) >> (p)) != 0)
#define MASK_TO_SHIFT2(m) (GTEQ_POWER(LOWEST_SET_BIT((m)), 1) ? 1 : 0)
#define MASK_TO_SHIFT4(m) \
(GTEQ_POWER(LOWEST_SET_BIT((m)), 2) \
? 2 + MASK_TO_SHIFT2((m) >> 2) \
: MASK_TO_SHIFT2((m)))
#define MASK_TO_SHIFT8(m) \
(GTEQ_POWER(LOWEST_SET_BIT((m)), 4) \
? 4 + MASK_TO_SHIFT4((m) >> 4) \
: MASK_TO_SHIFT4((m)))
#define MASK_TO_SHIFT16(m) \
(GTEQ_POWER(LOWEST_SET_BIT((m)), 8) \
? 8 + MASK_TO_SHIFT8((m) >> 8) \
: MASK_TO_SHIFT8((m)))
#define MASK_TO_SHIFT(m) \
(GTEQ_POWER(LOWEST_SET_BIT((m)), 16) \
? 16 + MASK_TO_SHIFT16((m) >> 16) \
: MASK_TO_SHIFT16((m)))
#define MASK_AND_RSHIFT(x, mask) (((x) & (mask)) >> MASK_TO_SHIFT(mask))
#define LSHIFT(x, mask) ((x) << MASK_TO_SHIFT(mask))
#define MASK_AND_REPLACE(reg, val, mask) ((reg & ~mask) | LSHIFT(val, mask))
#define PRESHIFT(m) MASK_AND_RSHIFT((m), (m))
#endif /* _BIT_TWIDDLE */
/* RTL8180L Host Control and Status Registers */
#define RTW_IDR0 0x00 /* ID Register: MAC addr, 6 bytes.
* Auto-loaded from EEPROM. Read by byte,
* by word, or by double word, but write
* only by double word.
*/
#define RTW_IDR1 0x04
#define RTW_MAR0 0x08 /* Multicast filter, 64b. */
#define RTW_MAR1 0x0c
#define RTW_TSFTRL 0x18 /* Timing Synchronization Function Timer
* Register, low word, 32b, read-only.
*/
#define RTW_TSFTRH 0x1c /* High word, 32b, read-only. */
#define RTW_TLPDA 0x20 /* Transmit Low Priority Descriptors Start
* Address, 32b, 256-byte alignment.
*/
#define RTW_TNPDA 0x24 /* Transmit Normal Priority Descriptors Start
* Address, 32b, 256-byte alignment.
*/
#define RTW_THPDA 0x28 /* Transmit High Priority Descriptors Start
* Address, 32b, 256-byte alignment.
*/
#define RTW_BRSR 0x2c /* Basic Rate Set Register, 16b */
#define RTW_BRSR_BPLCP BIT(8) /* 1: use short PLCP header for CTS/ACK packet,
* 0: use long PLCP header
*/
#define RTW_BRSR_MBR8180_MASK BITS(1,0) /* Maximum Basic Service Rate */
2004-12-27 11:59:16 +03:00
#define RTW_BRSR_MBR8180_1MBPS LSHIFT(0, RTW_BRSR_MBR8180_MASK)
#define RTW_BRSR_MBR8180_2MBPS LSHIFT(1, RTW_BRSR_MBR8180_MASK)
#define RTW_BRSR_MBR8180_5MBPS LSHIFT(2, RTW_BRSR_MBR8180_MASK)
#define RTW_BRSR_MBR8180_11MBPS LSHIFT(3, RTW_BRSR_MBR8180_MASK)
/* 8181 and 8180 docs conflict! */
#define RTW_BRSR_MBR8181_1MBPS BIT(0)
#define RTW_BRSR_MBR8181_2MBPS BIT(1)
#define RTW_BRSR_MBR8181_5MBPS BIT(2)
#define RTW_BRSR_MBR8181_11MBPS BIT(3)
#define RTW_BSSID 0x2e
/* BSSID, 6 bytes */
#define RTW_BSSID16 0x2e /* first two bytes */
#define RTW_BSSID32 (0x2e + 4) /* remaining four bytes */
#define RTW_BSSID0 RTW_BSSID16 /* BSSID[0], 8b */
#define RTW_BSSID1 (RTW_BSSID0 + 1) /* BSSID[1], 8b */
#define RTW_BSSID2 (RTW_BSSID1 + 1) /* BSSID[2], 8b */
#define RTW_BSSID3 (RTW_BSSID2 + 1) /* BSSID[3], 8b */
#define RTW_BSSID4 (RTW_BSSID3 + 1) /* BSSID[4], 8b */
#define RTW_BSSID5 (RTW_BSSID4 + 1) /* BSSID[5], 8b */
#define RTW_CR 0x37 /* Command Register, 8b */
#define RTW_CR_RST BIT(4) /* Reset: host sets to 1 to disable
* transmitter & receiver, reinitialize FIFO.
* RTL8180L sets to 0 to signal completion.
*/
#define RTW_CR_RE BIT(3) /* Receiver Enable: host enables receiver
* by writing 1. RTL8180L indicates receiver
* is active with 1. After power-up, host
* must wait for reset before writing.
*/
#define RTW_CR_TE BIT(2) /* Transmitter Enable: host enables transmitter
* by writing 1. RTL8180L indicates transmitter
* is active with 1. After power-up, host
* must wait for reset before writing.
*/
#define RTW_CR_MULRW BIT(0) /* PCI Multiple Read/Write enable: 1 enables,
* 0 disables. XXX RTL8180, only?
*/
#define RTW_IMR 0x3c /* Interrupt Mask Register, 16b */
#define RTW_ISR 0x3e /* Interrupt status register, 16b */
#define RTW_INTR_TXFOVW BIT(15) /* Tx FIFO Overflow */
#define RTW_INTR_TIMEOUT BIT(14) /* Time Out: 1 indicates
* RTW_TSFTR[0:31] = RTW_TINT
*/
#define RTW_INTR_BCNINT BIT(13) /* Beacon Time Out: time for host to
* prepare beacon:
* RTW_TSFTR % (RTW_BCNITV_BCNITV * TU) =
* (RTW_BCNITV_BCNITV * TU - RTW_BINTRITV)
*/
#define RTW_INTR_ATIMINT BIT(12)
/* ATIM Time Out: ATIM interval will pass,
* RTW_TSFTR % (RTW_BCNITV_BCNITV * TU) =
* (RTW_ATIMWND_ATIMWND * TU - RTW_ATIMTRITV)
*/
#define RTW_INTR_TBDER BIT(11) /* Tx Beacon Descriptor Error:
* beacon transmission aborted because
* frame Rx'd
*/
#define RTW_INTR_TBDOK BIT(10) /* Tx Beacon Descriptor OK */
#define RTW_INTR_THPDER BIT(9) /* Tx High Priority Descriptor Error:
* reached short/long retry limit
*/
#define RTW_INTR_THPDOK BIT(8) /* Tx High Priority Descriptor OK */
#define RTW_INTR_TNPDER BIT(7) /* Tx Normal Priority Descriptor Error:
* reached short/long retry limit
*/
#define RTW_INTR_TNPDOK BIT(6) /* Tx Normal Priority Descriptor OK */
#define RTW_INTR_RXFOVW BIT(5) /* Rx FIFO Overflow: either RDU (see below)
* or PCI bus too slow/busy
*/
#define RTW_INTR_RDU BIT(4) /* Rx Descriptor Unavailable */
#define RTW_INTR_TLPDER BIT(3) /* Tx Normal Priority Descriptor Error
* reached short/long retry limit
*/
#define RTW_INTR_TLPDOK BIT(2) /* Tx Normal Priority Descriptor OK */
#define RTW_INTR_RER BIT(1) /* Rx Error: CRC32 or ICV error */
#define RTW_INTR_ROK BIT(0) /* Rx OK */
/* Convenient interrupt conjunctions. */
#define RTW_INTR_RX (RTW_INTR_RER|RTW_INTR_ROK)
#define RTW_INTR_TX (RTW_INTR_TLPDER|RTW_INTR_TLPDOK|RTW_INTR_THPDER|\
Move the register access mode into struct rtw_regs. Change rtw_set_access, rtw_set_access1 to match. Add a subroutine for setting WEP keys. WEP isn't quite finished, because I have to add the WEP header to Tx packets. Implement the SIOCS80211NWKEY ioctl for setting WEP keys. Program the LEDs based on operating state and packet activity. * On a Revision F RTL8180, blink LED1 at 1Hz to indicate scan/authenticate/associate states. In the run state, turn LED1 on. In every state, blink LED1 at 5Hz to indicate non-beacon tx/rx activity. I would like to use two LEDs, but in all my Rev. F instances, LED0 is not wired to an LED; instead, the first LED is wired to indicate that the card's power is on. * On a Revision D RTL8180, program the LEDs so that LED0 indicates Tx, and LED1 indicates Rx. The Rx LED will blink annoyingly if there are beacons in the air, but at least the Tx LED is useful. * Store the hardware revision in the softc to support my futile attempt at programming LEDs for both Rev. D and Rev. F parts; I never did get Rev. D LEDs to work right. * Add a debug flag RTW_DEBUG_LED for the LED transitions. Add RTW_TPPOLL_ALL, RTW_TPPOLL_SALL to start and stop, respectively, all of the transmit rings. In ad hoc mode, allocate a beacon and load it into the beacon ring. Start the ring. In one trial, the card re-transmitted the beacon ring's contents several times before stopping. More programming and testing for ad hoc mode is necessary. I'm not setting the beacon flag in the transmit descriptor. Revamp the transmit section to make better use of all the transmit rings: beacon queue, high-, low-, and medium-priority rings. Put beacon frames on the beacon ring. All other management frames, and data frames, go on the medium-priority ring. Power-save data frames go on the high-priority ring. (Note that powersaving is not implemented!) This is a work in progress. Send all 802.11 Management frames at 1Mbps. After we put a packet on a transmit ring, tickle the right bit in the TPPOLL to tell RTL8180. Stop all rings on error and in rtw_stop. Use the RF chip type, not the RTL8180 revision, to choose between host- and MAC-controlled RF serial I/O. Now the Netgear MA521 works. Remove bogus definition of bit RTW_TPPOLL_FSWINT.
2005-01-16 14:50:43 +03:00
RTW_INTR_THPDOK|RTW_INTR_TNPDER|RTW_INTR_TNPDOK|\
RTW_INTR_TBDER|RTW_INTR_TBDOK)
#define RTW_INTR_BEACON (RTW_INTR_BCNINT)
#define RTW_INTR_IOERROR (RTW_INTR_TXFOVW|RTW_INTR_RXFOVW|RTW_INTR_RDU)
#define RTW_TCR 0x40 /* Transmit Configuration Register, 32b */
#define RTW_TCR_CWMIN BIT(31) /* 1: CWmin = 8, 0: CWmin = 32. */
#define RTW_TCR_SWSEQ BIT(30) /* 1: host assigns 802.11 sequence number,
* 0: hardware assigns sequence number
*/
/* Hardware version ID, read-only */
#define RTW_TCR_HWVERID_MASK BITS(29, 25)
#define RTW_TCR_HWVERID_D LSHIFT(26, RTW_TCR_HWVERID_MASK)
#define RTW_TCR_HWVERID_F LSHIFT(27, RTW_TCR_HWVERID_MASK)
#define RTW_TCR_HWVERID_RTL8180 RTW_TCR_HWVERID_F
/* Set ACK/CTS Timeout (EIFS).
* 1: ACK rate = max(RTW_BRSR_MBR, Rx rate) (XXX not min? typo in datasheet?)
* 0: ACK rate = 1Mbps
*/
#define RTW_TCR_SAT BIT(24)
/* Max DMA Burst Size per Tx DMA Burst */
#define RTW_TCR_MXDMA_MASK BITS(23,21)
#define RTW_TCR_MXDMA_16 LSHIFT(0, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_32 LSHIFT(1, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_64 LSHIFT(2, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_128 LSHIFT(3, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_256 LSHIFT(4, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_512 LSHIFT(5, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_1024 LSHIFT(6, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_MXDMA_2048 LSHIFT(7, RTW_TCR_MXDMA_MASK)
#define RTW_TCR_DISCW BIT(20) /* disable 802.11 random backoff */
#define RTW_TCR_ICV BIT(19) /* host lets RTL8180 append ICV to
* WEP packets
*/
/* Loopback Test: disables TXI/TXQ outputs. */
#define RTW_TCR_LBK_MASK BITS(18,17)
#define RTW_TCR_LBK_NORMAL LSHIFT(0, RTW_TCR_LBK_MASK) /* normal ops */
#define RTW_TCR_LBK_MAC LSHIFT(1, RTW_TCR_LBK_MASK) /* MAC loopback */
#define RTW_TCR_LBK_BBP LSHIFT(2, RTW_TCR_LBK_MASK) /* baseband loop. */
#define RTW_TCR_LBK_CONT LSHIFT(3, RTW_TCR_LBK_MASK) /* continuous Tx */
#define RTW_TCR_CRC BIT(16) /* 0: RTL8180 appends CRC32
* 1: host appends CRC32
*
* (I *think* this is right.
* The docs have a mysterious
* description in the
* passive voice.)
*/
#define RTW_TCR_SRL_MASK BITS(15,8) /* Short Retry Limit */
#define RTW_TCR_LRL_MASK BITS(7,0) /* Long Retry Limit */
#define RTW_RCR 0x44 /* Receive Configuration Register, 32b */
#define RTW_RCR_ONLYERLPKT BIT(31) /* only do Early Rx on packets
* longer than 1536 bytes
*/
#define RTW_RCR_ENCS2 BIT(30) /* enable carrier sense method 2 */
#define RTW_RCR_ENCS1 BIT(29) /* enable carrier sense method 1 */
#define RTW_RCR_ENMARP BIT(28) /* enable MAC auto-reset PHY */
#define RTW_RCR_CBSSID BIT(23) /* Check BSSID/ToDS/FromDS: set
* "Link On" when received BSSID
* matches RTW_BSSID and received
* ToDS/FromDS are appropriate
* according to RTW_MSR_NETYPE.
*/
#define RTW_RCR_APWRMGT BIT(22) /* accept packets w/ PWRMGMT bit set */
#define RTW_RCR_ADD3 BIT(21) /* when RTW_MSR_NETYPE ==
* RTW_MSR_NETYPE_INFRA_OK, accept
* broadcast/multicast packets whose
* 3rd address matches RTL8180's MAC.
*/
#define RTW_RCR_AMF BIT(20) /* accept management frames */
#define RTW_RCR_ACF BIT(19) /* accept control frames */
#define RTW_RCR_ADF BIT(18) /* accept data frames */
/* Rx FIFO Threshold: RTL8180 begins PCI transfer when this many data
* bytes are received
*/
#define RTW_RCR_RXFTH_MASK BITS(15,13)
#define RTW_RCR_RXFTH_64 LSHIFT(2, RTW_RCR_RXFTH_MASK)
#define RTW_RCR_RXFTH_128 LSHIFT(3, RTW_RCR_RXFTH_MASK)
#define RTW_RCR_RXFTH_256 LSHIFT(4, RTW_RCR_RXFTH_MASK)
#define RTW_RCR_RXFTH_512 LSHIFT(5, RTW_RCR_RXFTH_MASK)
#define RTW_RCR_RXFTH_1024 LSHIFT(6, RTW_RCR_RXFTH_MASK)
#define RTW_RCR_RXFTH_WHOLE LSHIFT(7, RTW_RCR_RXFTH_MASK)
#define RTW_RCR_AICV BIT(12) /* accept frames w/ ICV errors */
/* Max DMA Burst Size per Rx DMA Burst */
#define RTW_RCR_MXDMA_MASK BITS(10,8)
#define RTW_RCR_MXDMA_16 LSHIFT(0, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_32 LSHIFT(1, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_64 LSHIFT(2, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_128 LSHIFT(3, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_256 LSHIFT(4, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_512 LSHIFT(5, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_1024 LSHIFT(6, RTW_RCR_MXDMA_MASK)
#define RTW_RCR_MXDMA_UNLIMITED LSHIFT(7, RTW_RCR_MXDMA_MASK)
/* EEPROM type, read-only. 1: EEPROM is 93c56, 0: 93c46 */
#define RTW_RCR_9356SEL BIT(6)
#define RTW_RCR_ACRC32 BIT(5) /* accept frames w/ CRC32 errors */
#define RTW_RCR_AB BIT(3) /* accept broadcast frames */
#define RTW_RCR_AM BIT(2) /* accept multicast frames */
/* accept physical match frames. XXX means PLCP header ok? */
#define RTW_RCR_APM BIT(1)
#define RTW_RCR_AAP BIT(0) /* accept frames w/ destination */
/* Additional bits to set in monitor mode. */
#define RTW_RCR_MONITOR ( \
RTW_RCR_AAP | \
RTW_RCR_ACF | \
RTW_RCR_ACRC32 | \
RTW_RCR_AICV | \
0)
/* The packet filter bits. */
#define RTW_RCR_PKTFILTER_MASK (\
RTW_RCR_AAP | \
RTW_RCR_AB | \
RTW_RCR_ACF | \
RTW_RCR_ACRC32 | \
RTW_RCR_ADD3 | \
RTW_RCR_ADF | \
RTW_RCR_AICV | \
RTW_RCR_AM | \
RTW_RCR_AMF | \
RTW_RCR_APM | \
RTW_RCR_APWRMGT | \
0)
/* Receive power-management frames and mgmt/ctrl/data frames. */
#define RTW_RCR_PKTFILTER_DEFAULT ( \
RTW_RCR_ADF | \
RTW_RCR_AMF | \
RTW_RCR_APM | \
RTW_RCR_APWRMGT | \
0)
#define RTW_TINT 0x48 /* Timer Interrupt Register, 32b */
#define RTW_TBDA 0x4c /* Transmit Beacon Descriptor Start Address,
* 32b, 256-byte alignment
*/
#define RTW_9346CR 0x50 /* 93c46/93c56 Command Register, 8b */
#define RTW_9346CR_EEM_MASK BITS(7,6) /* Operating Mode */
#define RTW_9346CR_EEM_NORMAL LSHIFT(0, RTW_9346CR_EEM_MASK)
/* Load the EEPROM. Reset registers to defaults.
* Takes ~2ms. RTL8180 indicates completion with RTW_9346CR_EEM_NORMAL.
* XXX RTL8180 only?
*/
#define RTW_9346CR_EEM_AUTOLOAD LSHIFT(1, RTW_9346CR_EEM_MASK)
/* Disable network & bus-master operations and enable
* _EECS, _EESK, _EEDI, _EEDO.
* XXX RTL8180 only?
*/
#define RTW_9346CR_EEM_PROGRAM LSHIFT(2, RTW_9346CR_EEM_MASK)
/* Enable RTW_CONFIG[0123] registers. */
#define RTW_9346CR_EEM_CONFIG LSHIFT(3, RTW_9346CR_EEM_MASK)
/* EEPROM pin status/control in _EEM_CONFIG, _EEM_AUTOLOAD modes.
* XXX RTL8180 only?
*/
#define RTW_9346CR_EECS BIT(3)
#define RTW_9346CR_EESK BIT(2)
#define RTW_9346CR_EEDI BIT(1)
#define RTW_9346CR_EEDO BIT(0) /* read-only */
#define RTW_CONFIG0 0x51 /* Configuration Register 0, 8b */
#define RTW_CONFIG0_WEP40 BIT(7) /* implements 40-bit WEP,
* XXX RTL8180 only?
*/
#define RTW_CONFIG0_WEP104 BIT(6) /* implements 104-bit WEP,
* from EEPROM, read-only
* XXX RTL8180 only?
*/
#define RTW_CONFIG0_LEDGPOEN BIT(4) /* 1: RTW_PSR_LEDGPO[01] control
* LED[01] pins.
* 0: LED behavior defined by
* RTW_CONFIG1_LEDS10_MASK
* XXX RTL8180 only?
*/
/* auxiliary power is present, read-only */
#define RTW_CONFIG0_AUXPWR BIT(3)
/* Geographic Location, read-only */
#define RTW_CONFIG0_GL_MASK BITS(1,0)
/* _RTW_CONFIG0_GL_* is what the datasheet says, but RTW_CONFIG0_GL_*
* work.
*/
#define _RTW_CONFIG0_GL_USA LSHIFT(3, RTW_CONFIG0_GL_MASK)
#define RTW_CONFIG0_GL_EUROPE LSHIFT(2, RTW_CONFIG0_GL_MASK)
#define RTW_CONFIG0_GL_JAPAN LSHIFT(1, RTW_CONFIG0_GL_MASK)
#define RTW_CONFIG0_GL_USA LSHIFT(0, RTW_CONFIG0_GL_MASK)
/* RTL8181 datasheet says RTW_CONFIG0_GL_JAPAN = 0. */
#define RTW_CONFIG1 0x52 /* Configuration Register 1, 8b */
/* LED configuration. From EEPROM. Read/write.
*
* Setting LED0 LED1
* ------- ---- ----
* RTW_CONFIG1_LEDS_ACT_INFRA Activity Infrastructure
* RTW_CONFIG1_LEDS_ACT_LINK Activity Link
* RTW_CONFIG1_LEDS_TX_RX Tx Rx
* RTW_CONFIG1_LEDS_LINKACT_INFRA Link/Activity Infrastructure
*/
#define RTW_CONFIG1_LEDS_MASK BITS(7,6)
#define RTW_CONFIG1_LEDS_ACT_INFRA LSHIFT(0, RTW_CONFIG1_LEDS_MASK)
#define RTW_CONFIG1_LEDS_ACT_LINK LSHIFT(1, RTW_CONFIG1_LEDS_MASK)
#define RTW_CONFIG1_LEDS_TX_RX LSHIFT(2, RTW_CONFIG1_LEDS_MASK)
#define RTW_CONFIG1_LEDS_LINKACT_INFRA LSHIFT(3, RTW_CONFIG1_LEDS_MASK)
/* LWAKE Output Signal. Only applicable to Cardbus. Pulse width is 150ms.
*
* RTW_CONFIG1_LWACT
* 0 1
* RTW_CONFIG4_LWPTN 0 active high active low
* 1 positive pulse negative pulse
*/
#define RTW_CONFIG1_LWACT BIT(4)
#define RTW_CONFIG1_MEMMAP BIT(3) /* using PCI memory space, read-only */
#define RTW_CONFIG1_IOMAP BIT(2) /* using PCI I/O space, read-only */
#define RTW_CONFIG1_VPD BIT(1) /* if set, VPD from offsets
* 0x40-0x7f in EEPROM are at
* registers 0x60-0x67 of PCI
* Configuration Space (XXX huh?)
*/
#define RTW_CONFIG1_PMEN BIT(0) /* Power Management Enable: TBD */
#define RTW_CONFIG2 0x53 /* Configuration Register 2, 8b */
#define RTW_CONFIG2_LCK BIT(7) /* clocks are locked, read-only:
* Tx frequency & symbol clocks
* are derived from the same OSC
*/
#define RTW_CONFIG2_ANT BIT(6) /* diversity enabled, read-only */
#define RTW_CONFIG2_DPS BIT(3) /* Descriptor Polling State: enable
* test mode.
*/
#define RTW_CONFIG2_PAPESIGN BIT(2) /* TBD, from EEPROM */
#define RTW_CONFIG2_PAPETIME_MASK BITS(1,0) /* TBD, from EEPROM */
#define RTW_ANAPARM 0x54 /* Analog parameter, 32b */
#define RTW_ANAPARM_RFPOW0_MASK BITS(30,28) /* undocumented bits
* which appear to
* control the power
* state of the RF
* components
*/
#define RTW_ANAPARM_RFPOW_MASK \
(RTW_ANAPARM_RFPOW0_MASK|RTW_ANAPARM_RFPOW1_MASK)
#define RTW_ANAPARM_TXDACOFF BIT(27) /* 1: disable Tx DAC,
* 0: enable
*/
#define RTW_ANAPARM_RFPOW1_MASK BITS(26,20) /* undocumented bits
* which appear to
* control the power
* state of the RF
* components
*/
/*
* Maxim On/Sleep/Off control
*/
#define RTW_ANAPARM_RFPOW_MAXIM_ON LSHIFT(0x8, RTW_ANAPARM_RFPOW1_MASK)
/* reg[RTW_ANAPARM] |= RTW_ANAPARM_TXDACOFF; */
#define RTW_ANAPARM_RFPOW_MAXIM_SLEEP LSHIFT(0x378, RTW_ANAPARM_RFPOW1_MASK)
/* reg[RTW_ANAPARM] |= RTW_ANAPARM_TXDACOFF; */
#define RTW_ANAPARM_RFPOW_MAXIM_OFF LSHIFT(0x379, RTW_ANAPARM_RFPOW1_MASK)
/*
* RFMD On/Sleep/Off control
*/
#define RTW_ANAPARM_RFPOW_RFMD_ON LSHIFT(0x408, RTW_ANAPARM_RFPOW1_MASK)
/* reg[RTW_ANAPARM] |= RTW_ANAPARM_TXDACOFF; */
#define RTW_ANAPARM_RFPOW_RFMD_SLEEP LSHIFT(0x378, RTW_ANAPARM_RFPOW1_MASK)
/* reg[RTW_ANAPARM] |= RTW_ANAPARM_TXDACOFF; */
#define RTW_ANAPARM_RFPOW_RFMD_OFF LSHIFT(0x379, RTW_ANAPARM_RFPOW1_MASK)
/*
* Philips On/Sleep/Off control
*/
#define RTW_ANAPARM_RFPOW_ANA_PHILIPS_ON \
LSHIFT(0x328, RTW_ANAPARM_RFPOW1_MASK)
#define RTW_ANAPARM_RFPOW_DIG_PHILIPS_ON \
LSHIFT(0x008, RTW_ANAPARM_RFPOW1_MASK)
/* reg[RTW_ANAPARM] |= RTW_ANAPARM_TXDACOFF; */
#define RTW_ANAPARM_RFPOW_PHILIPS_SLEEP\
LSHIFT(0x378, RTW_ANAPARM_RFPOW1_MASK)
/* reg[RTW_ANAPARM] |= RTW_ANAPARM_TXDACOFF; */
#define RTW_ANAPARM_RFPOW_PHILIPS_OFF\
LSHIFT(0x379, RTW_ANAPARM_RFPOW1_MASK)
#define RTW_ANAPARM_RFPOW_PHILIPS_ON LSHIFT(0x328, RTW_ANAPARM_RFPOW1_MASK)
#define RTW_ANAPARM_CARDSP_MASK BITS(19,0) /* undocumented
* card-specific
* bits from the
* EEPROM.
*/
#define RTW_MSR 0x58 /* Media Status Register, 8b */
/* Network Type and Link Status */
#define RTW_MSR_NETYPE_MASK BITS(3,2)
/* AP, XXX RTL8181 only? */
#define RTW_MSR_NETYPE_AP_OK LSHIFT(3, RTW_MSR_NETYPE_MASK)
/* infrastructure link ok */
#define RTW_MSR_NETYPE_INFRA_OK LSHIFT(2, RTW_MSR_NETYPE_MASK)
/* ad-hoc link ok */
#define RTW_MSR_NETYPE_ADHOC_OK LSHIFT(1, RTW_MSR_NETYPE_MASK)
/* no link */
#define RTW_MSR_NETYPE_NOLINK LSHIFT(0, RTW_MSR_NETYPE_MASK)
#define RTW_CONFIG3 0x59 /* Configuration Register 3, 8b */
#define RTW_CONFIG3_GNTSEL BIT(7) /* Grant Select, read-only */
#define RTW_CONFIG3_PARMEN BIT(6) /* Set RTW_CONFIG3_PARMEN and
* RTW_9346CR_EEM_CONFIG to
* allow RTW_ANAPARM writes.
*/
#define RTW_CONFIG3_MAGIC BIT(5) /* Valid when RTW_CONFIG1_PMEN is
* set. If set, RTL8180 wakes up
* OS when Magic Packet is Rx'd.
*/
#define RTW_CONFIG3_CARDBEN BIT(3) /* Cardbus-related registers
* and functions are enabled,
* read-only. XXX RTL8180 only.
*/
#define RTW_CONFIG3_CLKRUNEN BIT(2) /* CLKRUN enabled, read-only.
* XXX RTL8180 only.
*/
#define RTW_CONFIG3_FUNCREGEN BIT(1) /* Function Registers Enabled,
* read-only. XXX RTL8180 only.
*/
#define RTW_CONFIG3_FBTBEN BIT(0) /* Fast back-to-back enabled,
* read-only.
*/
#define RTW_CONFIG4 0x5A /* Configuration Register 4, 8b */
#define RTW_CONFIG4_VCOPDN BIT(7) /* VCO Power Down
* 0: normal operation
* (power-on default)
* 1: power-down VCO, RF front-end,
* and most RTL8180 components.
*/
#define RTW_CONFIG4_PWROFF BIT(6) /* Power Off
* 0: normal operation
* (power-on default)
* 1: power-down RF front-end,
* and most RTL8180 components,
* but leave VCO on.
*
* XXX RFMD front-end only?
*/
#define RTW_CONFIG4_PWRMGT BIT(5) /* Power Management
* 0: normal operation
* (power-on default)
* 1: set Tx packet's PWRMGMT bit.
*/
#define RTW_CONFIG4_LWPME BIT(4) /* LANWAKE vs. PMEB: Cardbus-only
* 0: LWAKE & PMEB asserted
* simultaneously
* 1: LWAKE asserted only if
* both PMEB is asserted and
* ISOLATEB is low.
* XXX RTL8180 only.
*/
#define RTW_CONFIG4_LWPTN BIT(2) /* see RTW_CONFIG1_LWACT
* XXX RTL8180 only.
*/
/* Radio Front-End Programming Method */
#define RTW_CONFIG4_RFTYPE_MASK BITS(1,0)
#define RTW_CONFIG4_RFTYPE_INTERSIL LSHIFT(1, RTW_CONFIG4_RFTYPE_MASK)
#define RTW_CONFIG4_RFTYPE_RFMD LSHIFT(2, RTW_CONFIG4_RFTYPE_MASK)
#define RTW_CONFIG4_RFTYPE_PHILIPS LSHIFT(3, RTW_CONFIG4_RFTYPE_MASK)
#define RTW_TESTR 0x5B /* TEST mode register, 8b */
#define RTW_PSR 0x5e /* Page Select Register, 8b */
#define RTW_PSR_GPO BIT(7) /* Control/status of pin 52. */
#define RTW_PSR_GPI BIT(6) /* Status of pin 64. */
#define RTW_PSR_LEDGPO1 BIT(5) /* Status/control of LED1 pin if
* RTW_CONFIG0_LEDGPOEN is set.
*/
#define RTW_PSR_LEDGPO0 BIT(4) /* Status/control of LED0 pin if
* RTW_CONFIG0_LEDGPOEN is set.
*/
#define RTW_PSR_UWF BIT(1) /* Enable Unicast Wakeup Frame */
#define RTW_PSR_PSEN BIT(0) /* 1: page 1, 0: page 0 */
#define RTW_SCR 0x5f /* Security Configuration Register, 8b */
#define RTW_SCR_KM_MASK BITS(5,4) /* Key Mode */
#define RTW_SCR_KM_WEP104 LSHIFT(1, RTW_SCR_KM_MASK)
#define RTW_SCR_KM_WEP40 LSHIFT(0, RTW_SCR_KM_MASK)
#define RTW_SCR_TXSECON BIT(1) /* Enable Tx WEP. Invalid if
* neither RTW_CONFIG0_WEP40 nor
* RTW_CONFIG0_WEP104 is set.
*/
#define RTW_SCR_RXSECON BIT(0) /* Enable Rx WEP. Invalid if
* neither RTW_CONFIG0_WEP40 nor
* RTW_CONFIG0_WEP104 is set.
*/
#define RTW_BCNITV 0x70 /* Beacon Interval Register, 16b */
#define RTW_BCNITV_BCNITV_MASK BITS(9,0) /* TU between TBTT, written
* by host.
*/
#define RTW_ATIMWND 0x72 /* ATIM Window Register, 16b */
#define RTW_ATIMWND_ATIMWND BITS(9,0) /* ATIM Window length in TU,
* written by host.
*/
#define RTW_BINTRITV 0x74 /* Beacon Interrupt Interval Register, 16b */
#define RTW_BINTRITV_BINTRITV BITS(9,0) /* RTL8180 wakes host with
* RTW_INTR_BCNINT at BINTRITV
* microseconds before TBTT
*/
#define RTW_ATIMTRITV 0x76 /* ATIM Interrupt Interval Register, 16b */
#define RTW_ATIMTRITV_ATIMTRITV BITS(9,0) /* RTL8180 wakes host with
* RTW_INTR_ATIMINT at ATIMTRITV
* microseconds before end of
* ATIM Window
*/
#define RTW_PHYDELAY 0x78 /* PHY Delay Register, 8b */
#define RTW_PHYDELAY_REVC_MAGIC BIT(3) /* Rev. C magic from reference
* driver
*/
#define RTW_PHYDELAY_PHYDELAY BITS(2,0) /* microsecond Tx delay between
* MAC and RF front-end
*/
#define RTW_CRCOUNT 0x79 /* Carrier Sense Counter, 8b */
#define RTW_CRCOUNT_MAGIC 0x4c
#define RTW_CRC16ERR 0x7a /* CRC16 error count, 16b, XXX RTL8181 only? */
#define RTW_BB 0x7c /* Baseband interface, 32b */
/* used for writing RTL8180's integrated baseband processor */
#define RTW_BB_RD_MASK BITS(23,16) /* data to read */
#define RTW_BB_WR_MASK BITS(15,8) /* data to write */
#define RTW_BB_WREN BIT(7) /* write enable */
#define RTW_BB_ADDR_MASK BITS(6,0) /* address */
#define RTW_PHYADDR 0x7c /* Address register for PHY interface, 8b */
#define RTW_PHYDATAW 0x7d /* Write data to PHY, 8b, write-only */
#define RTW_PHYDATAR 0x7e /* Read data from PHY, 8b (?), read-only */
#define RTW_PHYCFG 0x80 /* PHY Configuration Register, 32b */
#define RTW_PHYCFG_MAC_POLL BIT(31) /* if !RTW_PHYCFG_HST,
* host sets. MAC clears
* after banging bits.
*/
#define RTW_PHYCFG_HST BIT(30) /* 1: host bangs bits
* 0: MAC bangs bits
*/
#define RTW_PHYCFG_MAC_RFTYPE_MASK BITS(29,28)
#define RTW_PHYCFG_MAC_RFTYPE_INTERSIL LSHIFT(0, RTW_PHYCFG_MAC_RFTYPE_MASK)
#define RTW_PHYCFG_MAC_RFTYPE_RFMD LSHIFT(1, RTW_PHYCFG_MAC_RFTYPE_MASK)
#define RTW_PHYCFG_MAC_RFTYPE_GCT RTW_PHYCFG_MAC_RFTYPE_RFMD
#define RTW_PHYCFG_MAC_RFTYPE_PHILIPS LSHIFT(3, RTW_PHYCFG_MAC_RFTYPE_MASK)
#define RTW_PHYCFG_MAC_PHILIPS_ADDR_MASK BITS(27,24)
#define RTW_PHYCFG_MAC_PHILIPS_DATA_MASK BITS(23,0)
#define RTW_PHYCFG_MAC_MAXIM_LODATA_MASK BITS(27,24)
#define RTW_PHYCFG_MAC_MAXIM_ADDR_MASK BITS(11,8)
#define RTW_PHYCFG_MAC_MAXIM_HIDATA_MASK BITS(7,0)
#define RTW_PHYCFG_HST_EN BIT(2)
#define RTW_PHYCFG_HST_CLK BIT(1)
#define RTW_PHYCFG_HST_DATA BIT(0)
#define RTW_MAXIM_HIDATA_MASK BITS(11,4)
#define RTW_MAXIM_LODATA_MASK BITS(3,0)
/**
** 0x84 - 0xD3, page 1, selected when RTW_PSR[PSEN] == 1.
**/
#define RTW_WAKEUP0L 0x84 /* Power Management Wakeup Frame */
#define RTW_WAKEUP0H 0x88 /* 32b */
#define RTW_WAKEUP1L 0x8c
#define RTW_WAKEUP1H 0x90
#define RTW_WAKEUP2LL 0x94
#define RTW_WAKEUP2LH 0x98
#define RTW_WAKEUP2HL 0x9c
#define RTW_WAKEUP2HH 0xa0
#define RTW_WAKEUP3LL 0xa4
#define RTW_WAKEUP3LH 0xa8
#define RTW_WAKEUP3HL 0xac
#define RTW_WAKEUP3HH 0xb0
#define RTW_WAKEUP4LL 0xb4
#define RTW_WAKEUP4LH 0xb8
#define RTW_WAKEUP4HL 0xbc
#define RTW_WAKEUP4HH 0xc0
#define RTW_CRC0 0xc4 /* CRC of wakeup frame 0, 16b */
#define RTW_CRC1 0xc6 /* CRC of wakeup frame 1, 16b */
#define RTW_CRC2 0xc8 /* CRC of wakeup frame 2, 16b */
#define RTW_CRC3 0xca /* CRC of wakeup frame 3, 16b */
#define RTW_CRC4 0xcc /* CRC of wakeup frame 4, 16b */
/**
** 0x84 - 0xD3, page 0, selected when RTW_PSR[PSEN] == 0.
**/
/* Default Key Registers, each 128b
*
* If RTW_SCR_KM_WEP104, 104 lsb are the key.
* If RTW_SCR_KM_WEP40, 40 lsb are the key.
*/
#define RTW_DK0 0x90 /* Default Key 0 Register, 128b */
#define RTW_DK1 0xa0 /* Default Key 1 Register, 128b */
#define RTW_DK2 0xb0 /* Default Key 2 Register, 128b */
#define RTW_DK3 0xc0 /* Default Key 3 Register, 128b */
#define RTW_CONFIG5 0xd8 /* Configuration Register 5, 8b */
#define RTW_CONFIG5_TXFIFOOK BIT(7) /* Tx FIFO self-test pass, read-only */
#define RTW_CONFIG5_RXFIFOOK BIT(6) /* Rx FIFO self-test pass, read-only */
#define RTW_CONFIG5_CALON BIT(5) /* 1: start calibration cycle
* and raise AGCRESET pin.
* 0: lower AGCRESET pin
*/
#define RTW_CONFIG5_EACPI BIT(2) /* Enable ACPI Wake up, default 0 */
#define RTW_CONFIG5_LANWAKE BIT(1) /* Enable LAN Wake signal,
* from EEPROM
*/
#define RTW_CONFIG5_PMESTS BIT(0) /* 1: both software & PCI Reset
* reset PME_Status
* 0: only software resets PME_Status
*
* From EEPROM.
*/
#define RTW_TPPOLL 0xd9 /* Transmit Priority Polling Register, 8b,
* write-only.
*/
#define RTW_TPPOLL_BQ BIT(7) /* RTL8180 clears to notify host of a beacon
* Tx. Host writes have no effect.
*/
#define RTW_TPPOLL_HPQ BIT(6) /* Host writes 1 to notify RTL8180 of
* high-priority Tx packets, RTL8180 clears
* to after high-priority Tx is complete.
*/
#define RTW_TPPOLL_NPQ BIT(5) /* If RTW_CONFIG2_DPS is set,
* host writes 1 to notify RTL8180 of
* normal-priority Tx packets, RTL8180 clears
* after normal-priority Tx is complete.
*
* If RTW_CONFIG2_DPS is clear, host writes
* have no effect. RTL8180 clears after
* normal-priority Tx is complete.
*/
#define RTW_TPPOLL_LPQ BIT(4) /* Host writes 1 to notify RTL8180 of
* low-priority Tx packets, RTL8180 clears
* after low-priority Tx is complete.
*/
#define RTW_TPPOLL_SBQ BIT(3) /* Host writes 1 to tell RTL8180 to
* stop beacon DMA. This bit is invalid
* when RTW_CONFIG2_DPS is set.
*/
#define RTW_TPPOLL_SHPQ BIT(2) /* Host writes 1 to tell RTL8180 to
* stop high-priority DMA.
*/
#define RTW_TPPOLL_SNPQ BIT(1) /* Host writes 1 to tell RTL8180 to
* stop normal-priority DMA. This bit is invalid
* when RTW_CONFIG2_DPS is set.
*/
#define RTW_TPPOLL_SLPQ BIT(0) /* Host writes 1 to tell RTL8180 to
* stop low-priority DMA.
*/
Move the register access mode into struct rtw_regs. Change rtw_set_access, rtw_set_access1 to match. Add a subroutine for setting WEP keys. WEP isn't quite finished, because I have to add the WEP header to Tx packets. Implement the SIOCS80211NWKEY ioctl for setting WEP keys. Program the LEDs based on operating state and packet activity. * On a Revision F RTL8180, blink LED1 at 1Hz to indicate scan/authenticate/associate states. In the run state, turn LED1 on. In every state, blink LED1 at 5Hz to indicate non-beacon tx/rx activity. I would like to use two LEDs, but in all my Rev. F instances, LED0 is not wired to an LED; instead, the first LED is wired to indicate that the card's power is on. * On a Revision D RTL8180, program the LEDs so that LED0 indicates Tx, and LED1 indicates Rx. The Rx LED will blink annoyingly if there are beacons in the air, but at least the Tx LED is useful. * Store the hardware revision in the softc to support my futile attempt at programming LEDs for both Rev. D and Rev. F parts; I never did get Rev. D LEDs to work right. * Add a debug flag RTW_DEBUG_LED for the LED transitions. Add RTW_TPPOLL_ALL, RTW_TPPOLL_SALL to start and stop, respectively, all of the transmit rings. In ad hoc mode, allocate a beacon and load it into the beacon ring. Start the ring. In one trial, the card re-transmitted the beacon ring's contents several times before stopping. More programming and testing for ad hoc mode is necessary. I'm not setting the beacon flag in the transmit descriptor. Revamp the transmit section to make better use of all the transmit rings: beacon queue, high-, low-, and medium-priority rings. Put beacon frames on the beacon ring. All other management frames, and data frames, go on the medium-priority ring. Power-save data frames go on the high-priority ring. (Note that powersaving is not implemented!) This is a work in progress. Send all 802.11 Management frames at 1Mbps. After we put a packet on a transmit ring, tickle the right bit in the TPPOLL to tell RTL8180. Stop all rings on error and in rtw_stop. Use the RF chip type, not the RTL8180 revision, to choose between host- and MAC-controlled RF serial I/O. Now the Netgear MA521 works. Remove bogus definition of bit RTW_TPPOLL_FSWINT.
2005-01-16 14:50:43 +03:00
/* Start all queues. */
#define RTW_TPPOLL_ALL (RTW_TPPOLL_BQ | RTW_TPPOLL_HPQ | \
RTW_TPPOLL_NPQ | RTW_TPPOLL_LPQ)
/* Stop all queues. */
#define RTW_TPPOLL_SALL (RTW_TPPOLL_SBQ | RTW_TPPOLL_SHPQ | \
RTW_TPPOLL_SNPQ | RTW_TPPOLL_SLPQ)
#define RTW_CWR 0xdc /* Contention Window Register, 16b, read-only */
/* Contention Window: indicates number of contention windows before Tx
*/
#define RTW_CWR_CW BITS(9,0)
/* Retry Count Register, 16b, read-only */
#define RTW_RETRYCTR 0xde
/* Retry Count: indicates number of retries after Tx */
#define RTW_RETRYCTR_RETRYCT BITS(7,0)
#define RTW_RDSAR 0xe4 /* Receive descriptor Start Address Register,
* 32b, 256-byte alignment.
*/
/* Function Event Register, 32b, Cardbus only. Only valid when
* both RTW_CONFIG3_CARDBEN and RTW_CONFIG3_FUNCREGEN are set.
*/
#define RTW_FER 0xf0
#define RTW_FER_INTR BIT(15) /* set when RTW_FFER_INTR is set */
#define RTW_FER_GWAKE BIT(4) /* General Wakeup */
/* Function Event Mask Register, 32b, Cardbus only. Only valid when
* both RTW_CONFIG3_CARDBEN and RTW_CONFIG3_FUNCREGEN are set.
*/
#define RTW_FEMR 0xf4
#define RTW_FEMR_INTR BIT(15) /* set when RTW_FFER_INTR is set */
#define RTW_FEMR_WKUP BIT(14) /* Wakeup Mask */
#define RTW_FEMR_GWAKE BIT(4) /* General Wakeup */
/* Function Present State Register, 32b, read-only, Cardbus only.
* Only valid when both RTW_CONFIG3_CARDBEN and RTW_CONFIG3_FUNCREGEN
* are set.
*/
#define RTW_FPSR 0xf8
#define RTW_FPSR_INTR BIT(15) /* TBD */
#define RTW_FPSR_GWAKE BIT(4) /* General Wakeup: TBD */
/* Function Force Event Register, 32b, write-only, Cardbus only.
* Only valid when both RTW_CONFIG3_CARDBEN and RTW_CONFIG3_FUNCREGEN
* are set.
*/
#define RTW_FFER 0xfc
#define RTW_FFER_INTR BIT(15) /* TBD */
#define RTW_FFER_GWAKE BIT(4) /* General Wakeup: TBD */
/* Serial EEPROM offsets */
#define RTW_SR_ID 0x00 /* 16b */
#define RTW_SR_VID 0x02 /* 16b */
#define RTW_SR_DID 0x04 /* 16b */
#define RTW_SR_SVID 0x06 /* 16b */
#define RTW_SR_SMID 0x08 /* 16b */
#define RTW_SR_MNGNT 0x0a
#define RTW_SR_MXLAT 0x0b
#define RTW_SR_RFCHIPID 0x0c
#define RTW_SR_CONFIG3 0x0d
#define RTW_SR_MAC 0x0e /* 6 bytes */
#define RTW_SR_CONFIG0 0x14
#define RTW_SR_CONFIG1 0x15
#define RTW_SR_PMC 0x16 /* Power Management Capabilities, 16b */
#define RTW_SR_CONFIG2 0x18
#define RTW_SR_CONFIG4 0x19
#define RTW_SR_ANAPARM 0x1a /* Analog Parameters, 32b */
#define RTW_SR_TESTR 0x1e
#define RTW_SR_CONFIG5 0x1f
#define RTW_SR_TXPOWER1 0x20
#define RTW_SR_TXPOWER2 0x21
#define RTW_SR_TXPOWER3 0x22
#define RTW_SR_TXPOWER4 0x23
#define RTW_SR_TXPOWER5 0x24
#define RTW_SR_TXPOWER6 0x25
#define RTW_SR_TXPOWER7 0x26
#define RTW_SR_TXPOWER8 0x27
#define RTW_SR_TXPOWER9 0x28
#define RTW_SR_TXPOWER10 0x29
#define RTW_SR_TXPOWER11 0x2a
#define RTW_SR_TXPOWER12 0x2b
#define RTW_SR_TXPOWER13 0x2c
#define RTW_SR_TXPOWER14 0x2d
#define RTW_SR_CHANNELPLAN 0x2e /* bitmap of channels to scan */
#define RTW_SR_ENERGYDETTHR 0x2f /* energy-detect threshold */
#define RTW_SR_ENERGYDETTHR_DEFAULT 0x0c /* use this if old SROM */
#define RTW_SR_CISPOINTER 0x30 /* 16b */
#define RTW_SR_RFPARM 0x32 /* RF-specific parameter */
#define RTW_SR_RFPARM_DIGPHY BIT(0) /* 1: digital PHY */
#define RTW_SR_RFPARM_DFLANTB BIT(1) /* 1: antenna B is default */
#define RTW_SR_RFPARM_CS_MASK BITS(2,3) /* carrier-sense type */
#define RTW_SR_VERSION 0x3c /* EEPROM content version, 16b */
#define RTW_SR_CRC 0x3e /* EEPROM content CRC, 16b */
#define RTW_SR_VPD 0x40 /* Vital Product Data, 64 bytes */
#define RTW_SR_CIS 0x80 /* CIS Data, 93c56 only, 128 bytes*/
/*
* RTL8180 Transmit/Receive Descriptors
*/
/* the first descriptor in each ring must be on a 256-byte boundary */
#define RTW_DESC_ALIGNMENT 256
/* Tx descriptor */
struct rtw_txdesc {
uint32_t td_ctl0;
uint32_t td_ctl1;
uint32_t td_buf;
uint32_t td_len;
uint32_t td_next;
uint32_t td_rsvd[3];
};
#define td_stat td_ctl0
#define RTW_TXCTL0_OWN BIT(31) /* 1: ready to Tx */
#define RTW_TXCTL0_RSVD0 BIT(30) /* reserved */
#define RTW_TXCTL0_FS BIT(29) /* first segment */
#define RTW_TXCTL0_LS BIT(28) /* last segment */
#define RTW_TXCTL0_RATE_MASK BITS(27,24) /* Tx rate */
#define RTW_TXCTL0_RATE_1MBPS LSHIFT(0, RTW_TXCTL0_RATE_MASK)
#define RTW_TXCTL0_RATE_2MBPS LSHIFT(1, RTW_TXCTL0_RATE_MASK)
#define RTW_TXCTL0_RATE_5MBPS LSHIFT(2, RTW_TXCTL0_RATE_MASK)
#define RTW_TXCTL0_RATE_11MBPS LSHIFT(3, RTW_TXCTL0_RATE_MASK)
#define RTW_TXCTL0_RTSEN BIT(23) /* RTS Enable */
#define RTW_TXCTL0_RTSRATE_MASK BITS(22,19) /* Tx rate */
#define RTW_TXCTL0_RTSRATE_1MBPS LSHIFT(0, RTW_TXCTL0_RTSRATE_MASK)
#define RTW_TXCTL0_RTSRATE_2MBPS LSHIFT(1, RTW_TXCTL0_RTSRATE_MASK)
#define RTW_TXCTL0_RTSRATE_5MBPS LSHIFT(2, RTW_TXCTL0_RTSRATE_MASK)
#define RTW_TXCTL0_RTSRATE_11MBPS LSHIFT(3, RTW_TXCTL0_RTSRATE_MASK)
#define RTW_TXCTL0_BEACON BIT(18) /* packet is a beacon */
#define RTW_TXCTL0_MOREFRAG BIT(17) /* another fragment follows */
#define RTW_TXCTL0_SPLCP BIT(16) /* add short PLCP preamble
* and header
*/
#define RTW_TXCTL0_KEYID_MASK BITS(15,14) /* default key id */
#define RTW_TXCTL0_RSVD1_MASK BITS(13,12) /* reserved */
#define RTW_TXCTL0_TPKTSIZE_MASK BITS(11,0) /* Tx packet size
* in bytes
*/
#define RTW_TXSTAT_OWN RTW_TXCTL0_OWN
#define RTW_TXSTAT_RSVD0 RTW_TXCTL0_RSVD0
#define RTW_TXSTAT_FS RTW_TXCTL0_FS
#define RTW_TXSTAT_LS RTW_TXCTL0_LS
#define RTW_TXSTAT_RSVD1_MASK BITS(27,16)
#define RTW_TXSTAT_TOK BIT(15)
#define RTW_TXSTAT_RTSRETRY_MASK BITS(14,8) /* RTS retry count */
#define RTW_TXSTAT_DRC_MASK BITS(7,0) /* Data retry count */
#define RTW_TXCTL1_LENGEXT BIT(31) /* supplements _LENGTH
* in packets sent 5.5Mb/s or
* faster
*/
#define RTW_TXCTL1_LENGTH_MASK BITS(30,16) /* PLCP length (microseconds) */
#define RTW_TXCTL1_RTSDUR_MASK BITS(15,0) /* RTS Duration
* (microseconds)
*/
#define RTW_TXLEN_LENGTH_MASK BITS(11,0) /* Tx buffer length in bytes */
/* Rx descriptor */
struct rtw_rxdesc {
uint32_t rd_ctl;
uint32_t rd_rsvd0;
uint32_t rd_buf;
uint32_t rd_rsvd1;
};
#define rd_stat rd_ctl
#define rd_rssi rd_rsvd0
#define rd_tsftl rd_buf /* valid only when RTW_RXSTAT_LS is set */
#define rd_tsfth rd_rsvd1 /* valid only when RTW_RXSTAT_LS is set */
#define RTW_RXCTL_OWN BIT(31) /* 1: owned by NIC */
#define RTW_RXCTL_EOR BIT(30) /* end of ring */
#define RTW_RXCTL_FS BIT(29) /* first segment */
#define RTW_RXCTL_LS BIT(28) /* last segment */
#define RTW_RXCTL_RSVD0_MASK BITS(29,12) /* reserved */
#define RTW_RXCTL_LENGTH_MASK BITS(11,0) /* Rx buffer length */
#define RTW_RXSTAT_OWN RTW_RXCTL_OWN
#define RTW_RXSTAT_EOR RTW_RXCTL_EOR
#define RTW_RXSTAT_FS RTW_RXCTL_FS /* first segment */
#define RTW_RXSTAT_LS RTW_RXCTL_LS /* last segment */
#define RTW_RXSTAT_DMAFAIL BIT(27) /* DMA failure on this pkt */
#define RTW_RXSTAT_BOVF BIT(26) /* buffer overflow XXX means
* FIFO exhausted?
*/
#define RTW_RXSTAT_SPLCP BIT(25) /* Rx'd with short preamble
* and PLCP header
*/
#define RTW_RXSTAT_RSVD1 BIT(24) /* reserved */
#define RTW_RXSTAT_RATE_MASK BITS(23,20) /* Rx rate */
#define RTW_RXSTAT_RATE_1MBPS LSHIFT(0, RTW_RXSTAT_RATE_MASK)
#define RTW_RXSTAT_RATE_2MBPS LSHIFT(1, RTW_RXSTAT_RATE_MASK)
#define RTW_RXSTAT_RATE_5MBPS LSHIFT(2, RTW_RXSTAT_RATE_MASK)
#define RTW_RXSTAT_RATE_11MBPS LSHIFT(3, RTW_RXSTAT_RATE_MASK)
#define RTW_RXSTAT_MIC BIT(19) /* XXX from reference driver */
#define RTW_RXSTAT_MAR BIT(18) /* is multicast */
#define RTW_RXSTAT_PAR BIT(17) /* matches RTL8180's MAC */
#define RTW_RXSTAT_BAR BIT(16) /* is broadcast */
#define RTW_RXSTAT_RES BIT(15) /* error summary. valid when
* RTW_RXSTAT_LS set. indicates
* that either RTW_RXSTAT_CRC32
* or RTW_RXSTAT_ICV is set.
*/
#define RTW_RXSTAT_PWRMGT BIT(14) /* 802.11 PWRMGMT bit is set */
#define RTW_RXSTAT_CRC16 BIT(14) /* XXX CRC16 error, from
* reference driver
*/
#define RTW_RXSTAT_CRC32 BIT(13) /* CRC32 error */
#define RTW_RXSTAT_ICV BIT(12) /* ICV error */
#define RTW_RXSTAT_LENGTH_MASK BITS(11,0) /* frame length, including
* CRC32
*/
/* Convenient status conjunction. */
#define RTW_RXSTAT_ONESEG (RTW_RXSTAT_FS|RTW_RXSTAT_LS)
/* Convenient status disjunctions. */
#define RTW_RXSTAT_IOERROR (RTW_RXSTAT_DMAFAIL|RTW_RXSTAT_BOVF)
#define RTW_RXSTAT_DEBUG (RTW_RXSTAT_SPLCP|RTW_RXSTAT_MAR|\
RTW_RXSTAT_PAR|RTW_RXSTAT_BAR|\
RTW_RXSTAT_PWRMGT|RTW_RXSTAT_CRC32|\
RTW_RXSTAT_ICV)
#define RTW_RXRSSI_VLAN BITS(32,16) /* XXX from reference driver */
/* for Philips RF front-ends */
#define RTW_RXRSSI_RSSI BITS(15,8) /* RF energy at the PHY */
/* for RF front-ends by Intersil, Maxim, RFMD */
#define RTW_RXRSSI_IMR_RSSI BITS(15,9) /* RF energy at the PHY */
#define RTW_RXRSSI_IMR_LNA BIT(8) /* 1: LNA activated */
#define RTW_RXRSSI_SQ BITS(7,0) /* Barker code-lock quality */
#define RTW_READ8(regs, ofs) \
bus_space_read_1((regs)->r_bt, (regs)->r_bh, (ofs))
#define RTW_READ16(regs, ofs) \
bus_space_read_2((regs)->r_bt, (regs)->r_bh, (ofs))
#define RTW_READ(regs, ofs) \
bus_space_read_4((regs)->r_bt, (regs)->r_bh, (ofs))
#define RTW_WRITE8(regs, ofs, val) \
bus_space_write_1((regs)->r_bt, (regs)->r_bh, (ofs), (val))
#define RTW_WRITE16(regs, ofs, val) \
bus_space_write_2((regs)->r_bt, (regs)->r_bh, (ofs), (val))
#define RTW_WRITE(regs, ofs, val) \
bus_space_write_4((regs)->r_bt, (regs)->r_bh, (ofs), (val))
#define RTW_ISSET(regs, reg, mask) \
(RTW_READ((regs), (reg)) & (mask))
#define RTW_CLR(regs, reg, mask) \
RTW_WRITE((regs), (reg), RTW_READ((regs), (reg)) & ~(mask))
/* bus_space(9) lied? */
#ifndef BUS_SPACE_BARRIER_SYNC
#define BUS_SPACE_BARRIER_SYNC (BUS_SPACE_BARRIER_READ|BUS_SPACE_BARRIER_WRITE)
#endif
#ifndef BUS_SPACE_BARRIER_READ_BEFORE_READ
#define BUS_SPACE_BARRIER_READ_BEFORE_READ BUS_SPACE_BARRIER_READ
#endif
#ifndef BUS_SPACE_BARRIER_READ_BEFORE_WRITE
#define BUS_SPACE_BARRIER_READ_BEFORE_WRITE BUS_SPACE_BARRIER_READ
#endif
#ifndef BUS_SPACE_BARRIER_WRITE_BEFORE_READ
#define BUS_SPACE_BARRIER_WRITE_BEFORE_READ BUS_SPACE_BARRIER_WRITE
#endif
#ifndef BUS_SPACE_BARRIER_WRITE_BEFORE_WRITE
#define BUS_SPACE_BARRIER_WRITE_BEFORE_WRITE BUS_SPACE_BARRIER_WRITE
#endif
/*
* Bus barrier
*
* Complete outstanding read and/or write ops on [reg0, reg1]
* ([reg1, reg0]) before starting new ops on the same region. See
* acceptable bus_space_barrier(9) for the flag definitions.
*/
#define RTW_BARRIER(regs, reg0, reg1, flags) \
bus_space_barrier((regs)->r_bh, (regs)->r_bt, \
MIN(reg0, reg1), MAX(reg0, reg1) - MIN(reg0, reg1) + 4, flags)
/*
* Barrier convenience macros.
*/
/* sync */
#define RTW_SYNC(regs, reg0, reg1) \
RTW_BARRIER(regs, reg0, reg1, BUS_SPACE_BARRIER_SYNC)
/* write-before-write */
#define RTW_WBW(regs, reg0, reg1) \
RTW_BARRIER(regs, reg0, reg1, BUS_SPACE_BARRIER_WRITE_BEFORE_WRITE)
/* write-before-read */
#define RTW_WBR(regs, reg0, reg1) \
RTW_BARRIER(regs, reg0, reg1, BUS_SPACE_BARRIER_WRITE_BEFORE_READ)
/* read-before-read */
#define RTW_RBR(regs, reg0, reg1) \
RTW_BARRIER(regs, reg0, reg1, BUS_SPACE_BARRIER_READ_BEFORE_READ)
/* read-before-read */
#define RTW_RBW(regs, reg0, reg1) \
RTW_BARRIER(regs, reg0, reg1, BUS_SPACE_BARRIER_READ_BEFORE_WRITE)
#define RTW_WBRW(regs, reg0, reg1) \
RTW_BARRIER(regs, reg0, reg1, \
BUS_SPACE_BARRIER_WRITE_BEFORE_READ | \
BUS_SPACE_BARRIER_WRITE_BEFORE_WRITE)
/*
* Registers for RTL8180L's built-in baseband modem.
*/
#define RTW_BBP_SYS1 0x00
#define RTW_BBP_TXAGC 0x03 /* guess: transmit auto gain control */
#define RTW_BBP_LNADET 0x04 /* guess: low-noise amplifier activation
* threshold
*/
#define RTW_BBP_IFAGCINI 0x05 /* guess: intermediate frequency (IF)
* auto-gain control (AGC) initial value
*/
#define RTW_BBP_IFAGCLIMIT 0x06 /* guess: IF AGC maximum value */
#define RTW_BBP_IFAGCDET 0x07 /* guess: activation threshold for
* IF AGC loop
*/
#define RTW_BBP_ANTATTEN 0x10 /* guess: antenna & attenuation */
#define RTW_BBP_ANTATTEN_PHILIPS_MAGIC 0x91
#define RTW_BBP_ANTATTEN_INTERSIL_MAGIC 0x92
#define RTW_BBP_ANTATTEN_RFMD_MAGIC 0x93
#define RTW_BBP_ANTATTEN_MAXIM_MAGIC 0xb3
#define RTW_BBP_ANTATTEN_DFLANTB 0x40
#define RTW_BBP_ANTATTEN_CHAN14 0x0c
#define RTW_BBP_TRL 0x11 /* guess: transmit/receive
* switch latency
*/
#define RTW_BBP_SYS2 0x12
#define RTW_BBP_SYS2_ANTDIV 0x80 /* enable antenna diversity */
#define RTW_BBP_SYS2_RATE_MASK BITS(5,4) /* loopback rate?
* 0: 1Mbps
* 1: 2Mbps
* 2: 5.5Mbps
* 3: 11Mbps
*/
#define RTW_BBP_SYS3 0x13
/* carrier-sense threshold */
#define RTW_BBP_SYS3_CSTHRESH_MASK BITS(0,3)
#define RTW_BBP_CHESTLIM 0x19 /* guess: channel energy-detect
* threshold
*/
#define RTW_BBP_CHSQLIM 0x1a /* guess: channel signal-quality
* threshold
*/