minix/drivers/rtl8139/rtl8139.h

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2005-04-21 16:53:53 +02:00
/*
ibm/rtl8139.h
Created: Aug 2003 by Philip Homburg <philip@cs.vu.nl>
*/
#include "../drivers.h"
Basic System Event Framework (SEF) with ping and live update. SYSLIB CHANGES: - SEF must be used by every system process and is thereby part of the system library. - The framework provides a receive() interface (sef_receive) for system processes to automatically catch known system even messages and process them. - SEF provides a default behavior for each type of system event, but allows system processes to register callbacks to override the default behavior. - Custom (local to the process) or predefined (provided by SEF) callback implementations can be registered to SEF. - SEF currently includes support for 2 types of system events: 1. SEF Ping. The event occurs every time RS sends a ping to figure out whether a system process is still alive. The default callback implementation provided by SEF is to notify RS back to let it know the process is alive and kicking. 2. SEF Live update. The event occurs every time RS sends a prepare to update message to let a system process know an update is available and to prepare for it. The live update support is very basic for now. SEF only deals with verifying if the prepare state can be supported by the process, dumping the state for debugging purposes, and providing an event-driven programming model to the process to react to state changes check-in when ready to update. - SEF should be extended in the future to integrate support for more types of system events. Ideally, all the cross-cutting concerns should be integrated into SEF to avoid duplicating code and ease extensibility. Examples include: * PM notify messages primarily used at shutdown. * SYSTEM notify messages primarily used for signals. * CLOCK notify messages used for system alarms. * Debug messages. IS could still be in charge of fkey handling but would forward the debug message to the target process (e.g. PM, if the user requested debug information about PM). SEF would then catch the message and do nothing unless the process has registered an appropriate callback to deal with the event. This simplifies the programming model to print debug information, avoids duplicating code, and reduces the effort to print debug information. SYSTEM PROCESSES CHANGES: - Every system process registers SEF callbacks it needs to override the default system behavior and calls sef_startup() right after being started. - sef_startup() does almost nothing now, but will be extended in the future to support callbacks of its own to let RS control and synchronize with every system process at initialization time. - Every system process calls sef_receive() now rather than receive() directly, to let SEF handle predefined system events. RS CHANGES: - RS supports a basic single-component live update protocol now, as follows: * When an update command is issued (via "service update *"), RS notifies the target system process to prepare for a specific update state. * If the process doesn't respond back in time, the update is aborted. * When the process responds back, RS kills it and marks it for refreshing. * The process is then automatically restarted as for a buggy process and can start running again. * Live update is currently prototyped as a controlled failure.
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#include <stdlib.h>
#include <stdio.h>
#include <string.h>
#include <stddef.h>
#include <minix/com.h>
#include <minix/ds.h>
#include <minix/keymap.h>
#include <minix/syslib.h>
#include <minix/type.h>
#include <minix/sysutil.h>
#include <minix/endpoint.h>
#include <timers.h>
#include <net/hton.h>
#include <net/gen/ether.h>
#include <net/gen/eth_io.h>
#include <ibm/pci.h>
#include <sys/types.h>
#include <fcntl.h>
#include <assert.h>
#include <unistd.h>
#include <sys/ioc_memory.h>
#include "../../kernel/const.h"
#include "../../kernel/config.h"
#include "../../kernel/type.h"
Basic System Event Framework (SEF) with ping and live update. SYSLIB CHANGES: - SEF must be used by every system process and is thereby part of the system library. - The framework provides a receive() interface (sef_receive) for system processes to automatically catch known system even messages and process them. - SEF provides a default behavior for each type of system event, but allows system processes to register callbacks to override the default behavior. - Custom (local to the process) or predefined (provided by SEF) callback implementations can be registered to SEF. - SEF currently includes support for 2 types of system events: 1. SEF Ping. The event occurs every time RS sends a ping to figure out whether a system process is still alive. The default callback implementation provided by SEF is to notify RS back to let it know the process is alive and kicking. 2. SEF Live update. The event occurs every time RS sends a prepare to update message to let a system process know an update is available and to prepare for it. The live update support is very basic for now. SEF only deals with verifying if the prepare state can be supported by the process, dumping the state for debugging purposes, and providing an event-driven programming model to the process to react to state changes check-in when ready to update. - SEF should be extended in the future to integrate support for more types of system events. Ideally, all the cross-cutting concerns should be integrated into SEF to avoid duplicating code and ease extensibility. Examples include: * PM notify messages primarily used at shutdown. * SYSTEM notify messages primarily used for signals. * CLOCK notify messages used for system alarms. * Debug messages. IS could still be in charge of fkey handling but would forward the debug message to the target process (e.g. PM, if the user requested debug information about PM). SEF would then catch the message and do nothing unless the process has registered an appropriate callback to deal with the event. This simplifies the programming model to print debug information, avoids duplicating code, and reduces the effort to print debug information. SYSTEM PROCESSES CHANGES: - Every system process registers SEF callbacks it needs to override the default system behavior and calls sef_startup() right after being started. - sef_startup() does almost nothing now, but will be extended in the future to support callbacks of its own to let RS control and synchronize with every system process at initialization time. - Every system process calls sef_receive() now rather than receive() directly, to let SEF handle predefined system events. RS CHANGES: - RS supports a basic single-component live update protocol now, as follows: * When an update command is issued (via "service update *"), RS notifies the target system process to prepare for a specific update state. * If the process doesn't respond back in time, the update is aborted. * When the process responds back, RS kills it and marks it for refreshing. * The process is then automatically restarted as for a buggy process and can start running again. * Live update is currently prototyped as a controlled failure.
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#define RL_IDR 0x00 /* Ethernet address
* Note: RL_9346CR_EEM_CONFIG mode is
* required the change the ethernet
* address.
* Note: 4-byte write access only.
*/
#define RL_N_TX 4 /* Number of transmit buffers */
#define RL_TSD0 0x010 /* Transmit Status of Descriptor 0 */
#define RL_TSD_CRS 0x80000000 /* Carrier Sense Lost */
#define RL_TSD_TABT 0x40000000 /* Transmit Abort */
#define RL_TSD_OWC 0x20000000 /* Out of Window Collision */
#define RL_TSD_CDH 0x10000000 /* CD Heart Beat */
#define RL_TSD_NCC_M 0x0F000000 /* Number of Collision Count */
#define RL_TSD_RES 0x00C00000 /* Reserved */
#define RL_TSD_ERTXTH_M 0x003F0000 /* Early Tx Threshold */
#define RL_TSD_ERTXTH_S 16 /* shift */
#define RL_TSD_ERTXTH_8 0x00000000 /* 8 bytes */
#define RL_TSD_TOK 0x00008000 /* Transmit OK */
#define RL_TSD_TUN 0x00004000 /* Transmit FIFO Underrun */
#define RL_TSD_OWN 0x00002000 /* Controller (does not) Own Buf. */
#define RL_TSD_SIZE 0x00001FFF /* Descriptor Size */
#define RL_TSAD0 0x20 /* Transmit Start Address of Descriptor 0 */
#define RL_RBSTART 0x30 /* Receive Buffer Start Address */
#define RL_CR 0x37 /* Command Register */
#define RL_CR_RES0 0xE0 /* Reserved */
#define RL_CR_RST 0x10 /* Reset */
#define RL_CR_RE 0x08 /* Receiver Enable */
#define RL_CR_TE 0x04 /* Transmitter Enable *
* Note: start with transmit buffer
* 0 after RL_CR_TE has been reset.
*/
#define RL_CR_RES1 0x02 /* Reserved */
#define RL_CR_BUFE 0x01 /* Receive Buffer Empty */
#define RL_CAPR 0x38 /* Current Address of Packet Read */
#define RL_CAPR_DATA_OFF 0x10 /* Packet Starts at Offset */
#define RL_CBR 0x3A /* Current Buffer Address */
#define RL_IMR 0x3C /* Interrupt Mask Register */
#define RL_IMR_SERR 0x8000 /* System Error */
#define RL_IMR_TIMEOUT 0x4000 /* Time Out */
#define RL_IMR_LENCHG 0x2000 /* Cable Length Change */
#define RL_IMR_RES 0x1F80 /* Reserved */
#define RL_IMR_FOVW 0x0040 /* Rx FIFO Overflow */
#define RL_IMR_PUN 0x0020 /* Packet Underrun / Link Change */
#define RL_IMR_RXOVW 0x0010 /* Rx Buffer Overflow */
#define RL_IMR_TER 0x0008 /* Transmit Error */
#define RL_IMR_TOK 0x0004 /* Transmit OK */
#define RL_IMR_RER 0x0002 /* Receive Error */
#define RL_IMR_ROK 0x0001 /* Receive OK */
#define RL_ISR 0x3E /* Interrupt Status Register */
#define RL_ISR_SERR 0x8000 /* System Error */
#define RL_ISR_TIMEOUT 0x4000 /* Time Out */
#define RL_ISR_LENCHG 0x2000 /* Cable Length Change */
#define RL_ISR_RES 0x1F80 /* Reserved */
#define RL_ISR_FOVW 0x0040 /* Rx FIFO Overflow */
#define RL_ISR_PUN 0x0020 /* Packet Underrun / Link Change */
#define RL_ISR_RXOVW 0x0010 /* Rx Buffer Overflow */
#define RL_ISR_TER 0x0008 /* Transmit Error */
#define RL_ISR_TOK 0x0004 /* Transmit OK */
#define RL_ISR_RER 0x0002 /* Receive Error */
#define RL_ISR_ROK 0x0001 /* Receive OK */
#define RL_TCR 0x40 /* Transmit Configuration Register
* Note: RL_CR_TE has to be set to
* set/change RL_TCR.
*/
#define RL_TCR_RES0 0x80000000 /* Reserved */
#define RL_TCR_HWVER_AM 0x7C000000 /* Hardware Version ID A */
#define RL_TCR_IFG_M 0x03000000 /* Interframe Gap Time */
#define RL_TCR_IFG_STD 0x03000000 /* IEEE 802.3 std */
#if 0
#undef RL_TCR_IFG_STD
#define RL_TCR_IFG_STD 0x00000000
#endif
#define RL_TCR_HWVER_BM 0x00C00000 /* Hardware Version ID B */
#define RL_TCR_HWVER_RTL8139 0x60000000 /* RTL8139 */
#define RL_TCR_HWVER_RTL8139A 0x70000000 /* RTL8139A */
#define RL_TCR_HWVER_RTL8139AG 0x74000000 /* RTL8139A-G */
#define RL_TCR_HWVER_RTL8139B 0x78000000 /* RTL8139B */
#define RL_TCR_HWVER_RTL8130 0x78000000 /* RTL8130 (dup) */
#define RL_TCR_HWVER_RTL8139C 0x74000000 /* RTL8139C (dup) */
#define RL_TCR_HWVER_RTL8100 0x78800000 /* RTL8100 */
#define RL_TCR_HWVER_RTL8100B 0x74400000 /* RTL8100B /
RTL8139D */
#define RL_TCR_HWVER_RTL8139CP 0x74800000 /* RTL8139C+ */
#define RL_TCR_HWVER_RTL8101 0x74C00000 /* RTL8101 */
#define RL_TCR_RES1 0x00380000 /* Reserved */
#define RL_TCR_LBK_M 0x00060000 /* Loopback Test */
#define RL_TCR_LBK_NORMAL 0x00000000 /* Normal */
#define RL_TCR_LBK_LOOKBOCK 0x00060000 /* Loopback Mode */
#define RL_TCR_CRC 0x00010000 /* (Do not) Append CRC */
#define RL_TCR_RES2 0x0000F800 /* Reserved */
#define RL_TCR_MXDMA_M 0x00000700 /* Max DMA Burst Size Tx */
#define RL_TCR_MXDMA_16 0x00000000 /* 16 bytes */
#define RL_TCR_MXDMA_32 0x00000100 /* 32 bytes */
#define RL_TCR_MXDMA_64 0x00000200 /* 64 bytes */
#define RL_TCR_MXDMA_128 0x00000300 /* 128 bytes */
#define RL_TCR_MXDMA_128 0x00000300 /* 128 bytes */
#define RL_TCR_MXDMA_256 0x00000400 /* 256 bytes */
#define RL_TCR_MXDMA_512 0x00000500 /* 512 bytes */
#define RL_TCR_MXDMA_1024 0x00000600 /* 1024 bytes */
#define RL_TCR_MXDMA_2048 0x00000700 /* 2048 bytes */
#define RL_TCR_TXRR_M 0x000000F0 /* Tx Retry Count */
#define RL_TCR_RES3 0x0000000E /* Reserved */
#define RL_TCR_CLRABT 0x00000001 /* Clear Abort */
#define RL_RCR 0x44 /* Receive Configuration Register
* Note: RL_CR_RE has to be set to
* set/change RL_RCR.
*/
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#define RL_RCR_RES0 0xF0000000 /* Reserved */
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#define RL_RCR_ERTH_M 0x0F000000 /* Early Rx Threshold */
#define RL_RCR_ERTH_0 0x00000000 /* No threshold */
#define RL_RCR_ERTH_1 0x01000000 /* 1/16 */
#define RL_RCR_ERTH_2 0x02000000 /* 2/16 */
#define RL_RCR_ERTH_3 0x03000000 /* 3/16 */
#define RL_RCR_ERTH_4 0x04000000 /* 4/16 */
#define RL_RCR_ERTH_5 0x05000000 /* 5/16 */
#define RL_RCR_ERTH_6 0x06000000 /* 6/16 */
#define RL_RCR_ERTH_7 0x07000000 /* 7/16 */
#define RL_RCR_ERTH_8 0x08000000 /* 8/16 */
#define RL_RCR_ERTH_9 0x09000000 /* 9/16 */
#define RL_RCR_ERTH_10 0x0A000000 /* 10/16 */
#define RL_RCR_ERTH_11 0x0B000000 /* 11/16 */
#define RL_RCR_ERTH_12 0x0C000000 /* 12/16 */
#define RL_RCR_ERTH_13 0x0D000000 /* 13/16 */
#define RL_RCR_ERTH_14 0x0E000000 /* 14/16 */
#define RL_RCR_ERTH_15 0x0F000000 /* 15/16 */
#define RL_RCR_RES1 0x00FC0000 /* Reserved */
#define RL_RCR_MULERINT 0x00020000 /* Multiple Early Int Select */
#define RL_RCR_RER8 0x00010000 /* Receive small error packet */
#define RL_RCR_RXFTH_M 0x0000E000 /* Rx FIFO Threshold */
#define RL_RCR_RXFTH_16 0x00000000 /* 16 bytes */
#define RL_RCR_RXFTH_32 0x00002000 /* 32 bytes */
#define RL_RCR_RXFTH_64 0x00004000 /* 64 bytes */
#define RL_RCR_RXFTH_128 0x00006000 /* 128 bytes */
#define RL_RCR_RXFTH_256 0x00008000 /* 256 bytes */
#define RL_RCR_RXFTH_512 0x0000A000 /* 512 bytes */
#define RL_RCR_RXFTH_1024 0x0000C000 /* 1024 bytes */
#define RL_RCR_RXFTH_UNLIM 0x0000E000 /* unlimited */
#define RL_RCR_RBLEM_M 0x00001800 /* Rx Buffer Length */
#define RL_RCR_RBLEN_8K 0x00000000 /* 8KB + 16 bytes */
#define RL_RCR_RBLEN_8K_SIZE (8*1024)
#define RL_RCR_RBLEN_16K 0x00000800 /* 16KB + 16 bytes */
#define RL_RCR_RBLEN_16K_SIZE (16*1024)
#define RL_RCR_RBLEN_32K 0x00001000 /* 32KB + 16 bytes */
#define RL_RCR_RBLEN_32K_SIZE (32*1024)
#define RL_RCR_RBLEN_64K 0x00001800 /* 64KB + 16 bytes */
#define RL_RCR_RBLEN_64K_SIZE (64*1024)
/* Note: the documentation for the RTL8139C(L) or
* for the RTL8139D(L) claims that the buffer should
* be 16 bytes larger. Multiples of 8KB are the
* correct values.
*/
#define RL_RCR_MXDMA_M 0x00000700 /* Rx DMA burst size */
#define RL_RCR_MXDMA_16 0x00000000 /* 16 bytes */
#define RL_RCR_MXDMA_32 0x00000100 /* 32 bytes */
#define RL_RCR_MXDMA_64 0x00000200 /* 64 bytes */
#define RL_RCR_MXDMA_128 0x00000300 /* 128 bytes */
#define RL_RCR_MXDMA_256 0x00000400 /* 256 bytes */
#define RL_RCR_MXDMA_512 0x00000500 /* 512 bytes */
#define RL_RCR_MXDMA_1024 0x00000600 /* 1024 bytes */
#define RL_RCR_MXDMA_UNLIM 0x00000700 /* unlimited */
#define RL_RCR_WRAP 0x00000080 /* (Do not) Wrap on receive */
#define RL_RCR_RES2 0x00000040 /* EEPROM type? */
#define RL_RCR_AER 0x00000020 /* Accept Error Packets */
#define RL_RCR_AR 0x00000010 /* Accept Runt Packets */
#define RL_RCR_AB 0x00000008 /* Accept Broadcast Packets */
#define RL_RCR_AM 0x00000004 /* Accept Multicast Packets */
#define RL_RCR_APM 0x00000002 /* Accept Physical Match Packets */
#define RL_RCR_AAP 0x00000001 /* Accept All Packets */
#define RL_MPC 0x4c /* Missed Packet Counter */
#define RL_9346CR 0x50 /* 93C46 Command Register */
#define RL_9346CR_EEM_M 0xC0 /* Operating Mode */
#define RL_9346CR_EEM_NORMAL 0x00 /* Normal Mode */
#define RL_9346CR_EEM_AUTOLOAD 0x40 /* Load from 93C46 */
#define RL_9346CR_EEM_PROG 0x80 /* 93C46 Programming */
#define RL_9346CR_EEM_CONFIG 0xC0 /* Config Write Enable */
#define RL_9346CR_RES 0x30 /* Reserved */
#define RL_9346CR_EECS 0x08 /* EECS Pin */
#define RL_9346CR_EESK 0x04 /* EESK Pin */
#define RL_9346CR_EEDI 0x02 /* EEDI Pin */
#define RL_9346CR_EEDO 0x01 /* EEDO Pin */
#define RL_CONFIG0 0x51 /* Configuration Register 0 */
#define RL_CONFIG1 0x52 /* Configuration Register 1 */
#define RL_MSR 0x58 /* Media Status Register */
#define RL_MSR_TXFCE 0x80 /* Tx Flow Control Enable */
#define RL_MSR_RXFCE 0x40 /* Rx Flow Control Enable */
#define RL_MSR_RES 0x20 /* Reserved */
#define RL_MSR_AUXSTAT 0x10 /* Aux. Power Present */
#define RL_MSR_SPEED_10 0x08 /* In 10 Mbps mode */
#define RL_MSR_LINKB 0x04 /* link Failed */
#define RL_MSR_TXPF 0x02 /* Sent Pause Packet */
#define RL_MSR_RXPF 0x01 /* Received Pause Packet */
#define RL_CONFIG3 0x59 /* Configuration Register 3 */
#define RL_CONFIG4 0x5A /* Configuration Register 4 */
/* 0x5B */ /* Reserved */
#define RL_REVID 0x5E /* PCI Revision ID */
/* 0x5F */ /* Reserved */
#define RL_TSAD 0x60 /* Transmit Status of All Descriptors */
#define RL_TSAD_TOK3 0x8000 /* TOK bit of Descriptor 3 */
#define RL_TSAD_TOK2 0x4000 /* TOK bit of Descriptor 2 */
#define RL_TSAD_TOK1 0x2000 /* TOK bit of Descriptor 1 */
#define RL_TSAD_TOK0 0x1000 /* TOK bit of Descriptor 0 */
#define RL_TSAD_TUN3 0x0800 /* TUN bit of Descriptor 3 */
#define RL_TSAD_TUN2 0x0400 /* TUN bit of Descriptor 2 */
#define RL_TSAD_TUN1 0x0200 /* TUN bit of Descriptor 1 */
#define RL_TSAD_TUN0 0x0100 /* TUN bit of Descriptor 0 */
#define RL_TSAD_TABT3 0x0080 /* TABT bit of Descriptor 3 */
#define RL_TSAD_TABT2 0x0040 /* TABT bit of Descriptor 2 */
#define RL_TSAD_TABT1 0x0020 /* TABT bit of Descriptor 1 */
#define RL_TSAD_TABT0 0x0010 /* TABT bit of Descriptor 0 */
#define RL_TSAD_OWN3 0x0008 /* OWN bit of Descriptor 3 */
#define RL_TSAD_OWN2 0x0004 /* OWN bit of Descriptor 2 */
#define RL_TSAD_OWN1 0x0002 /* OWN bit of Descriptor 1 */
#define RL_TSAD_OWN0 0x0001 /* OWN bit of Descriptor 0 */
#define RL_BMCR 0x62 /* Basic Mode Control Register (MII_CTRL) */
#define RL_BMSR 0x64 /* Basic Mode Status Register (MII_STATUS) */
#define RL_ANAR 0x66 /* Auto-Neg Advertisement Register (MII_ANA) */
#define RL_ANLPAR 0x68 /* Auto-Neg Link Partner Register (MII_ANLPA) */
#define RL_ANER 0x6a /* Auto-Neg Expansion Register (MII_ANE) */
#define RL_NWAYTR 0x70 /* N-way Test Register */
#define RL_CSCR 0x74 /* CS Configuration Register */
#define RL_CONFIG5 0xD8 /* Configuration Register 5 */
/* Status word in receive buffer */
#define RL_RXS_LEN_M 0xFFFF0000 /* Length Field, Excl. Status word */
#define RL_RXS_LEN_S 16 /* Shift For Length */
#define RL_RXS_MAR 0x00008000 /* Multicast Address Received */
#define RL_RXS_PAR 0x00004000 /* Physical Address Matched */
#define RL_RXS_BAR 0x00002000 /* Broadcast Address Received */
#define RL_RXS_RES_M 0x00001FC0 /* Reserved */
#define RL_RXS_ISE 0x00000020 /* Invalid Symbol Error */
#define RL_RXS_RUNT 0x00000010 /* Runt Packet Received */
#define RL_RXS_LONG 0x00000008 /* Long (>4KB) Packet */
#define RL_RXS_CRC 0x00000004 /* CRC Error */
#define RL_RXS_FAE 0x00000002 /* Frame Alignment Error */
#define RL_RXS_ROK 0x00000001 /* Receive OK */
/* Registers in the Machine Independent Interface (MII) to the PHY.
* IEEE 802.3 (2000 Edition) Clause 22.
*/
#define MII_CTRL 0x0 /* Control Register (basic) */
#define MII_CTRL_RST 0x8000 /* Reset PHY */
#define MII_CTRL_LB 0x4000 /* Enable Loopback Mode */
#define MII_CTRL_SP_LSB 0x2000 /* Speed Selection (LSB) */
#define MII_CTRL_ANE 0x1000 /* Auto Negotiation Enable */
#define MII_CTRL_PD 0x0800 /* Power Down */
#define MII_CTRL_ISO 0x0400 /* Isolate */
#define MII_CTRL_RAN 0x0200 /* Restart Auto-Negotiation Process */
#define MII_CTRL_DM 0x0100 /* Full Duplex */
#define MII_CTRL_CT 0x0080 /* Enable COL Signal Test */
#define MII_CTRL_SP_MSB 0x0040 /* Speed Selection (MSB) */
#define MII_CTRL_SP_10 0x0000 /* 10 Mb/s */
#define MII_CTRL_SP_100 0x2000 /* 100 Mb/s */
#define MII_CTRL_SP_1000 0x0040 /* 1000 Mb/s */
#define MII_CTRL_SP_RES 0x2040 /* Reserved */
#define MII_CTRL_RES 0x003F /* Reserved */
#define MII_STATUS 0x1 /* Status Register (basic) */
#define MII_STATUS_100T4 0x8000 /* 100Base-T4 support */
#define MII_STATUS_100XFD 0x4000 /* 100Base-X FD support */
#define MII_STATUS_100XHD 0x2000 /* 100Base-X HD support */
#define MII_STATUS_10FD 0x1000 /* 10 Mb/s FD support */
#define MII_STATUS_10HD 0x0800 /* 10 Mb/s HD support */
#define MII_STATUS_100T2FD 0x0400 /* 100Base-T2 FD support */
#define MII_STATUS_100T2HD 0x0200 /* 100Base-T2 HD support */
#define MII_STATUS_EXT_STAT 0x0100 /* Supports MII_EXT_STATUS */
#define MII_STATUS_RES 0x0080 /* Reserved */
#define MII_STATUS_MFPS 0x0040 /* MF Preamble Suppression */
#define MII_STATUS_ANC 0x0020 /* Auto-Negotiation Completed */
#define MII_STATUS_RF 0x0010 /* Remote Fault Detected */
#define MII_STATUS_ANA 0x0008 /* Auto-Negotiation Ability */
#define MII_STATUS_LS 0x0004 /* Link Up */
#define MII_STATUS_JD 0x0002 /* Jabber Condition Detected */
#define MII_STATUS_EC 0x0001 /* Ext Register Capabilities */
#define MII_PHYID_H 0x2 /* PHY ID (high) */
#define MII_PHYID_L 0x3 /* PHY ID (low) */
#define MII_ANA 0x4 /* Auto-Negotiation Advertisement */
#define MII_ANA_NP 0x8000 /* Next PAge */
#define MII_ANA_RES 0x4000 /* Reserved */
#define MII_ANA_RF 0x2000 /* Remote Fault */
#define MII_ANA_TAF_M 0x1FE0 /* Technology Ability Field */
#define MII_ANA_TAF_S 5 /* Shift */
#define MII_ANA_TAF_RES 0x1000 /* Reserved */
#define MII_ANA_PAUSE_ASYM 0x0800 /* Asym. Pause */
#define MII_ANA_PAUSE_SYM 0x0400 /* Sym. Pause */
#define MII_ANA_100T4 0x0200 /* 100Base-T4 */
#define MII_ANA_100TXFD 0x0100 /* 100Base-TX FD */
#define MII_ANA_100TXHD 0x0080 /* 100Base-TX HD */
#define MII_ANA_10TFD 0x0040 /* 10Base-T FD */
#define MII_ANA_10THD 0x0020 /* 10Base-T HD */
#define MII_ANA_SEL_M 0x001F /* Selector Field */
#define MII_ANA_SEL_802_3 0x0001 /* 802.3 */
#define MII_ANLPA 0x5 /* Auto-Neg Link Partner Ability Register */
#define MII_ANLPA_NP 0x8000 /* Next Page */
#define MII_ANLPA_ACK 0x4000 /* Acknowledge */
#define MII_ANLPA_RF 0x2000 /* Remote Fault */
#define MII_ANLPA_TAF_M 0x1FC0 /* Technology Ability Field */
#define MII_ANLPA_SEL_M 0x001F /* Selector Field */
#define MII_ANE 0x6 /* Auto-Negotiation Expansion */
#define MII_ANE_RES 0xFFE0 /* Reserved */
#define MII_ANE_PDF 0x0010 /* Parallel Detection Fault */
#define MII_ANE_LPNPA 0x0008 /* Link Partner is Next Page Able */
#define MII_ANE_NPA 0x0002 /* Local Device is Next Page Able */
#define MII_ANE_PR 0x0002 /* New Page has been received */
#define MII_ANE_LPANA 0x0001 /* Link Partner is Auto-Neg.able */
#define MII_ANNPT 0x7 /* Auto-Negotiation Next Page Transmit */
#define MII_ANLPRNP 0x8 /* Auto-Neg Link Partner Received Next Page */
#define MII_MS_CTRL 0x9 /* MASTER-SLAVE Control Register */
#define MII_MS_STATUS 0xA /* MASTER-SLAVE Status Register */
/* 0xB ... 0xE */ /* Reserved */
#define MII_EXT_STATUS 0xF /* Extended Status */
#define MII_ESTAT_1000XFD 0x8000 /* 1000Base-X Full Duplex */
#define MII_ESTAT_1000XHD 0x4000 /* 1000Base-X Half Duplex */
#define MII_ESTAT_1000TFD 0x2000 /* 1000Base-T Full Duplex */
#define MII_ESTAT_1000THD 0x1000 /* 1000Base-T Half Duplex */
#define MII_ESTAT_RES 0x0FFF /* Reserved */
/* 0x10 ... 0x1F */ /* Vendor Specific */
#if 0
34-35 R ERBCR Early Receive (Rx) Byte Count Register
36 R ERSR Early Rx Status Register
7-4 reserved
3 R ERGood Early Rx Good packet
2 R ERBad Early Rx Bad packet
1 R EROVW Early Rx OverWrite
0 R EROK Early Rx OK
51 R/W CONFIG0 Configuration Register 0
7 R SCR Scrambler Mode
6 R PCS PCS Mode
5 R T10 10 Mbps Mode
4-3 R PL[1-0] Select 10 Mbps medium type
2-0 R BS[2-0] Select Boot ROM size
52 R/W CONFIG1 Configuration Register 1
7-6 R/W LEDS[1-0] LED PIN
5 R/W DVRLOAD Driver Load
4 R/W LWACT LWAKE active mode
3 R MEMMAP Memory Mapping
2 R IOMAP I/O Mapping
1 R/W VPD Set to enable Vital Product Data
0 R/W PMEn Power Management Enable
59 R/W CONFIG3 Configuration Register 3
7 R GNTSel Gnt Select
6 R/W PARM_En Parameter Enable
5 R/W Magic Magic Packet
4 R/W LinkUp Link Up
3 reserved
2 R CLKRUN_En CLKRUN Enable
1 reserved
0 R FBtBEn Fast Back to Back Enable
5a R/W CONFIG4 Configuration Register 4
7 R/W RxFIFOAutoClr Auto Clear the Rx FIFO on overflow
6 R/W AnaOff Analog Power Off
5 R/W LongWF Long Wake-up Frame
4 R/W LWPME LANWAKE vs PMEB
3 reserved
2 R/W LWPTN LWAKE pattern
1 reserved
0 R/W PBWakeup Pre-Boot Wakeup
5c-5d R/W MULINT Multiple Interrupt Select
15-12 reserved
11-0 R/W MISR[11-0] Multiple Interrupt Select
68-69 R ANLPAR Auto-Negotiation Link Partnet Register
15 R NP Next Page bit
14 R ACK acknowledge received from link partner
13 R/W RF received remote fault detection capability
12-11 reserved
10 R Pause Flow control is supported
9 R T4 100Base-T4 is supported
8 R/W TXFD 100Base-TX full duplex is supported
7 R/W TX 100Base-TX is supported
6 R/W 10FD 10Base-T full duplex is supported
5 R/W 10 10Base-T is supported
4-0 R/W Selector Binary encoded selector
6a-6b R ANER Auto-Negotiation Expansion Register
15-5 reserved
4 R MLF Multiple link fault occured
3 R LP_NP_ABLE Link partner supports Next Page
2 R NP_ABLE Local node is able to send add. Next Pages
1 R PAGE_RX Link Code Word Page received
0 R LP_NW_ABLE Link partner supports NWay auto-negotiation
70-71 R/W NWAYTR N-way Test Register
15-8 reserved
7 R/W NWLPBK NWay loopback mode
6-4 reserved
3 R ENNWLE LED0 pin indicates linkpulse
2 R FLAGABD Auto-neg experienced ability detect state
1 R FLAGPDF Auto-neg exp. par. detection fault state
0 R FLAGLSC Auto-neg experienced link status check state
74-75 R/W CSCR CS Configuration Register
15 W Testfun Auto-neg speeds up internal timer
14-10 reserved
9 R/W LD Active low TPI link disable signal
8 R/W HEARTBEAT HEART BEAT enable
7 R/W JBEN Enable jabber function
6 R/W F_LINK_100 Force 100 Mbps
5 R/W F_Conect Bypass disconnect function
4 reserved
3 R Con_status Connected link detected
2 R/W Con_status_En Configures LED1 to indicate conn. stat.
1 reserved
0 R/W PASS_SCR Bypass scramble
76-77 reserved
78-7b R/W PHY1_PARM PHY parameter 1
7c-7f R/W TW_PARM Twister parameter
80 R/W PHY2_PARM PHY parameter 2
81-83 reserved
84-8b R/W CRC[0-7] Power Management CRC reg.[0-7] for frame[0-7]
8c-cb R/W Wakeup[0-7] Power Management wakeup frame[0-7] (64 bit)
cc-d3 R/W LSBCRC[0-7] LSB of the mask byte of makeup frame[0-7]
d4-d7 reserved
d8 R/W Config5 Configuration register 5
7 reserved
6 R/W BWF Broadcast Wakeup Frame
5 R/W MWF Multicast Wakeup Frame
4 R/W UWF Unicast Wakeup Frame
3 R/W FifoAddrPtr FIFO Address Pointer
2 R/W LDPS Link Down Power Saving mode
1 R/W LANWake LANWake Signal
0 R/W PME_STS PME_Status bit
d9-ff reserved
#endif
Basic System Event Framework (SEF) with ping and live update. SYSLIB CHANGES: - SEF must be used by every system process and is thereby part of the system library. - The framework provides a receive() interface (sef_receive) for system processes to automatically catch known system even messages and process them. - SEF provides a default behavior for each type of system event, but allows system processes to register callbacks to override the default behavior. - Custom (local to the process) or predefined (provided by SEF) callback implementations can be registered to SEF. - SEF currently includes support for 2 types of system events: 1. SEF Ping. The event occurs every time RS sends a ping to figure out whether a system process is still alive. The default callback implementation provided by SEF is to notify RS back to let it know the process is alive and kicking. 2. SEF Live update. The event occurs every time RS sends a prepare to update message to let a system process know an update is available and to prepare for it. The live update support is very basic for now. SEF only deals with verifying if the prepare state can be supported by the process, dumping the state for debugging purposes, and providing an event-driven programming model to the process to react to state changes check-in when ready to update. - SEF should be extended in the future to integrate support for more types of system events. Ideally, all the cross-cutting concerns should be integrated into SEF to avoid duplicating code and ease extensibility. Examples include: * PM notify messages primarily used at shutdown. * SYSTEM notify messages primarily used for signals. * CLOCK notify messages used for system alarms. * Debug messages. IS could still be in charge of fkey handling but would forward the debug message to the target process (e.g. PM, if the user requested debug information about PM). SEF would then catch the message and do nothing unless the process has registered an appropriate callback to deal with the event. This simplifies the programming model to print debug information, avoids duplicating code, and reduces the effort to print debug information. SYSTEM PROCESSES CHANGES: - Every system process registers SEF callbacks it needs to override the default system behavior and calls sef_startup() right after being started. - sef_startup() does almost nothing now, but will be extended in the future to support callbacks of its own to let RS control and synchronize with every system process at initialization time. - Every system process calls sef_receive() now rather than receive() directly, to let SEF handle predefined system events. RS CHANGES: - RS supports a basic single-component live update protocol now, as follows: * When an update command is issued (via "service update *"), RS notifies the target system process to prepare for a specific update state. * If the process doesn't respond back in time, the update is aborted. * When the process responds back, RS kills it and marks it for refreshing. * The process is then automatically restarted as for a buggy process and can start running again. * Live update is currently prototyped as a controlled failure.
2009-12-21 15:12:21 +01:00
#define tmra_ut timer_t
#define tmra_inittimer(tp) tmr_inittimer(tp)
#define Proc_number(p) proc_number(p)
#define debug 0
#define printW() ((void)0)
#define vm_1phys2bus(p) (p)
#define VERBOSE 1 /* display message during init */
#define RX_BUFSIZE RL_RCR_RBLEN_64K_SIZE
#define RX_BUFBITS RL_RCR_RBLEN_64K
#define N_TX_BUF RL_N_TX
#define RE_PORT_NR 1 /* Minix */
/* I/O vectors are handled IOVEC_NR entries at a time. */
#define IOVEC_NR 16
/* Configuration */
#define RL_ENVVAR "RTLETH"
typedef struct re
{
port_t re_base_port;
int re_irq;
int re_mode;
int re_flags;
int re_client;
int re_link_up;
int re_got_int;
int re_send_int;
int re_report_link;
int re_clear_rx;
int re_need_reset;
int re_tx_alive;
char *re_model;
/* Rx */
phys_bytes re_rx_buf;
char *v_re_rx_buf;
vir_bytes re_read_s;
/* Tx */
int re_tx_head;
int re_tx_tail;
struct
{
int ret_busy;
phys_bytes ret_buf;
char * v_ret_buf;
} re_tx[N_TX_BUF];
u32_t re_ertxth; /* Early Tx Threshold */
/* PCI related */
int re_seen; /* TRUE iff device available */
u8_t re_pcibus;
u8_t re_pcidev;
u8_t re_pcifunc;
/* 'large' items */
int re_hook_id; /* IRQ hook id at kernel */
eth_stat_t re_stat;
ether_addr_t re_address;
message re_rx_mess;
message re_tx_mess;
char re_name[sizeof("rtl8139#n")];
iovec_t re_iovec[IOVEC_NR];
iovec_s_t re_iovec_s[IOVEC_NR];
}
re_t;
#define REM_DISABLED 0x0
#define REM_ENABLED 0x1
#define REF_PACK_SENT 0x001
#define REF_PACK_RECV 0x002
#define REF_SEND_AVAIL 0x004
#define REF_READING 0x010
#define REF_EMPTY 0x000
#define REF_PROMISC 0x040
#define REF_MULTI 0x080
#define REF_BROAD 0x100
#define REF_ENABLED 0x200
2005-04-21 16:53:53 +02:00
/*
* $PchId: rtl8139.h,v 1.1 2003/09/05 10:58:50 philip Exp $
*/