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linux_dsm_epyc7002/drivers/tty/rocket_int.h
Greg Kroah-Hartman b24413180f License cleanup: add SPDX GPL-2.0 license identifier to files with no license 
Many source files in the tree are missing licensing information, which
makes it harder for compliance tools to determine the correct license.

By default all files without license information are under the default
license of the kernel, which is GPL version 2.

Update the files which contain no license information with the 'GPL-2.0'
SPDX license identifier.  The SPDX identifier is a legally binding
shorthand, which can be used instead of the full boiler plate text.

This patch is based on work done by Thomas Gleixner and Kate Stewart and
Philippe Ombredanne.

How this work was done:

Patches were generated and checked against linux-4.14-rc6 for a subset of
the use cases:
 - file had no licensing information it it.
 - file was a */uapi/* one with no licensing information in it,
 - file was a */uapi/* one with existing licensing information,

Further patches will be generated in subsequent months to fix up cases
where non-standard license headers were used, and references to license
had to be inferred by heuristics based on keywords.

The analysis to determine which SPDX License Identifier to be applied to
a file was done in a spreadsheet of side by side results from of the
output of two independent scanners (ScanCode & Windriver) producing SPDX
tag:value files created by Philippe Ombredanne.  Philippe prepared the
base worksheet, and did an initial spot review of a few 1000 files.

The 4.13 kernel was the starting point of the analysis with 60,537 files
assessed.  Kate Stewart did a file by file comparison of the scanner
results in the spreadsheet to determine which SPDX license identifier(s)
to be applied to the file. She confirmed any determination that was not
immediately clear with lawyers working with the Linux Foundation.

Criteria used to select files for SPDX license identifier tagging was:
 - Files considered eligible had to be source code files.
 - Make and config files were included as candidates if they contained >5
   lines of source
 - File already had some variant of a license header in it (even if <5
   lines).

All documentation files were explicitly excluded.

The following heuristics were used to determine which SPDX license
identifiers to apply.

 - when both scanners couldn't find any license traces, file was
   considered to have no license information in it, and the top level
   COPYING file license applied.

   For non */uapi/* files that summary was:

   SPDX license identifier                            # files
   ---------------------------------------------------|-------
   GPL-2.0                                              11139

   and resulted in the first patch in this series.

   If that file was a */uapi/* path one, it was "GPL-2.0 WITH
   Linux-syscall-note" otherwise it was "GPL-2.0".  Results of that was:

   SPDX license identifier                            # files
   ---------------------------------------------------|-------
   GPL-2.0 WITH Linux-syscall-note                        930

   and resulted in the second patch in this series.

 - if a file had some form of licensing information in it, and was one
   of the */uapi/* ones, it was denoted with the Linux-syscall-note if
   any GPL family license was found in the file or had no licensing in
   it (per prior point).  Results summary:

   SPDX license identifier                            # files
   ---------------------------------------------------|------
   GPL-2.0 WITH Linux-syscall-note                       270
   GPL-2.0+ WITH Linux-syscall-note                      169
   ((GPL-2.0 WITH Linux-syscall-note) OR BSD-2-Clause)    21
   ((GPL-2.0 WITH Linux-syscall-note) OR BSD-3-Clause)    17
   LGPL-2.1+ WITH Linux-syscall-note                      15
   GPL-1.0+ WITH Linux-syscall-note                       14
   ((GPL-2.0+ WITH Linux-syscall-note) OR BSD-3-Clause)    5
   LGPL-2.0+ WITH Linux-syscall-note                       4
   LGPL-2.1 WITH Linux-syscall-note                        3
   ((GPL-2.0 WITH Linux-syscall-note) OR MIT)              3
   ((GPL-2.0 WITH Linux-syscall-note) AND MIT)             1

   and that resulted in the third patch in this series.

 - when the two scanners agreed on the detected license(s), that became
   the concluded license(s).

 - when there was disagreement between the two scanners (one detected a
   license but the other didn't, or they both detected different
   licenses) a manual inspection of the file occurred.

 - In most cases a manual inspection of the information in the file
   resulted in a clear resolution of the license that should apply (and
   which scanner probably needed to revisit its heuristics).

 - When it was not immediately clear, the license identifier was
   confirmed with lawyers working with the Linux Foundation.

 - If there was any question as to the appropriate license identifier,
   the file was flagged for further research and to be revisited later
   in time.

In total, over 70 hours of logged manual review was done on the
spreadsheet to determine the SPDX license identifiers to apply to the
source files by Kate, Philippe, Thomas and, in some cases, confirmation
by lawyers working with the Linux Foundation.

Kate also obtained a third independent scan of the 4.13 code base from
FOSSology, and compared selected files where the other two scanners
disagreed against that SPDX file, to see if there was new insights.  The
Windriver scanner is based on an older version of FOSSology in part, so
they are related.

Thomas did random spot checks in about 500 files from the spreadsheets
for the uapi headers and agreed with SPDX license identifier in the
files he inspected. For the non-uapi files Thomas did random spot checks
in about 15000 files.

In initial set of patches against 4.14-rc6, 3 files were found to have
copy/paste license identifier errors, and have been fixed to reflect the
correct identifier.

Additionally Philippe spent 10 hours this week doing a detailed manual
inspection and review of the 12,461 patched files from the initial patch
version early this week with:
 - a full scancode scan run, collecting the matched texts, detected
   license ids and scores
 - reviewing anything where there was a license detected (about 500+
   files) to ensure that the applied SPDX license was correct
 - reviewing anything where there was no detection but the patch license
   was not GPL-2.0 WITH Linux-syscall-note to ensure that the applied
   SPDX license was correct

This produced a worksheet with 20 files needing minor correction.  This
worksheet was then exported into 3 different .csv files for the
different types of files to be modified.

These .csv files were then reviewed by Greg.  Thomas wrote a script to
parse the csv files and add the proper SPDX tag to the file, in the
format that the file expected.  This script was further refined by Greg
based on the output to detect more types of files automatically and to
distinguish between header and source .c files (which need different
comment types.)  Finally Greg ran the script using the .csv files to
generate the patches.

Reviewed-by: Kate Stewart <kstewart@linuxfoundation.org>
Reviewed-by: Philippe Ombredanne <pombredanne@nexb.com>
Reviewed-by: Thomas Gleixner <tglx@linutronix.de>
Signed-off-by: Greg Kroah-Hartman <gregkh@linuxfoundation.org>
2017-11-02 11:10:55 +01:00

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/* SPDX-License-Identifier: GPL-2.0 */
/*
* rocket_int.h --- internal header file for rocket.c
*
* Written by Theodore Ts'o, Copyright 1997.
* Copyright 1997 Comtrol Corporation.
*
*/
/*
* Definition of the types in rcktpt_type
*/
#define ROCKET_TYPE_NORMAL 0
#define ROCKET_TYPE_MODEM 1
#define ROCKET_TYPE_MODEMII 2
#define ROCKET_TYPE_MODEMIII 3
#define ROCKET_TYPE_PC104 4
#include <linux/mutex.h>
#include <asm/io.h>
#include <asm/byteorder.h>
typedef unsigned char Byte_t;
typedef unsigned int ByteIO_t;
typedef unsigned int Word_t;
typedef unsigned int WordIO_t;
typedef unsigned int DWordIO_t;
/*
* Note! Normally the Linux I/O macros already take care of
* byte-swapping the I/O instructions. However, all accesses using
* sOutDW aren't really 32-bit accesses, but should be handled in byte
* order. Hence the use of the cpu_to_le32() macro to byte-swap
* things to no-op the byte swapping done by the big-endian outl()
* instruction.
*/
static inline void sOutB(unsigned short port, unsigned char value)
{
#ifdef ROCKET_DEBUG_IO
printk(KERN_DEBUG "sOutB(%x, %x)...\n", port, value);
#endif
outb_p(value, port);
}
static inline void sOutW(unsigned short port, unsigned short value)
{
#ifdef ROCKET_DEBUG_IO
printk(KERN_DEBUG "sOutW(%x, %x)...\n", port, value);
#endif
outw_p(value, port);
}
static inline void out32(unsigned short port, Byte_t *p)
{
u32 value = get_unaligned_le32(p);
#ifdef ROCKET_DEBUG_IO
printk(KERN_DEBUG "out32(%x, %lx)...\n", port, value);
#endif
outl_p(value, port);
}
static inline unsigned char sInB(unsigned short port)
{
return inb_p(port);
}
static inline unsigned short sInW(unsigned short port)
{
return inw_p(port);
}
/* This is used to move arrays of bytes so byte swapping isn't appropriate. */
#define sOutStrW(port, addr, count) if (count) outsw(port, addr, count)
#define sInStrW(port, addr, count) if (count) insw(port, addr, count)
#define CTL_SIZE 8
#define AIOP_CTL_SIZE 4
#define CHAN_AIOP_SIZE 8
#define MAX_PORTS_PER_AIOP 8
#define MAX_AIOPS_PER_BOARD 4
#define MAX_PORTS_PER_BOARD 32
/* Bus type ID */
#define isISA 0
#define isPCI 1
#define isMC 2
/* Controller ID numbers */
#define CTLID_NULL -1 /* no controller exists */
#define CTLID_0001 0x0001 /* controller release 1 */
/* AIOP ID numbers, identifies AIOP type implementing channel */
#define AIOPID_NULL -1 /* no AIOP or channel exists */
#define AIOPID_0001 0x0001 /* AIOP release 1 */
/************************************************************************
Global Register Offsets - Direct Access - Fixed values
************************************************************************/
#define _CMD_REG 0x38 /* Command Register 8 Write */
#define _INT_CHAN 0x39 /* Interrupt Channel Register 8 Read */
#define _INT_MASK 0x3A /* Interrupt Mask Register 8 Read / Write */
#define _UNUSED 0x3B /* Unused 8 */
#define _INDX_ADDR 0x3C /* Index Register Address 16 Write */
#define _INDX_DATA 0x3E /* Index Register Data 8/16 Read / Write */
/************************************************************************
Channel Register Offsets for 1st channel in AIOP - Direct Access
************************************************************************/
#define _TD0 0x00 /* Transmit Data 16 Write */
#define _RD0 0x00 /* Receive Data 16 Read */
#define _CHN_STAT0 0x20 /* Channel Status 8/16 Read / Write */
#define _FIFO_CNT0 0x10 /* Transmit/Receive FIFO Count 16 Read */
#define _INT_ID0 0x30 /* Interrupt Identification 8 Read */
/************************************************************************
Tx Control Register Offsets - Indexed - External - Fixed
************************************************************************/
#define _TX_ENBLS 0x980 /* Tx Processor Enables Register 8 Read / Write */
#define _TXCMP1 0x988 /* Transmit Compare Value #1 8 Read / Write */
#define _TXCMP2 0x989 /* Transmit Compare Value #2 8 Read / Write */
#define _TXREP1B1 0x98A /* Tx Replace Value #1 - Byte 1 8 Read / Write */
#define _TXREP1B2 0x98B /* Tx Replace Value #1 - Byte 2 8 Read / Write */
#define _TXREP2 0x98C /* Transmit Replace Value #2 8 Read / Write */
/************************************************************************
Memory Controller Register Offsets - Indexed - External - Fixed
************************************************************************/
#define _RX_FIFO 0x000 /* Rx FIFO */
#define _TX_FIFO 0x800 /* Tx FIFO */
#define _RXF_OUTP 0x990 /* Rx FIFO OUT pointer 16 Read / Write */
#define _RXF_INP 0x992 /* Rx FIFO IN pointer 16 Read / Write */
#define _TXF_OUTP 0x994 /* Tx FIFO OUT pointer 8 Read / Write */
#define _TXF_INP 0x995 /* Tx FIFO IN pointer 8 Read / Write */
#define _TXP_CNT 0x996 /* Tx Priority Count 8 Read / Write */
#define _TXP_PNTR 0x997 /* Tx Priority Pointer 8 Read / Write */
#define PRI_PEND 0x80 /* Priority data pending (bit7, Tx pri cnt) */
#define TXFIFO_SIZE 255 /* size of Tx FIFO */
#define RXFIFO_SIZE 1023 /* size of Rx FIFO */
/************************************************************************
Tx Priority Buffer - Indexed - External - Fixed
************************************************************************/
#define _TXP_BUF 0x9C0 /* Tx Priority Buffer 32 Bytes Read / Write */
#define TXP_SIZE 0x20 /* 32 bytes */
/************************************************************************
Channel Register Offsets - Indexed - Internal - Fixed
************************************************************************/
#define _TX_CTRL 0xFF0 /* Transmit Control 16 Write */
#define _RX_CTRL 0xFF2 /* Receive Control 8 Write */
#define _BAUD 0xFF4 /* Baud Rate 16 Write */
#define _CLK_PRE 0xFF6 /* Clock Prescaler 8 Write */
#define STMBREAK 0x08 /* BREAK */
#define STMFRAME 0x04 /* framing error */
#define STMRCVROVR 0x02 /* receiver over run error */
#define STMPARITY 0x01 /* parity error */
#define STMERROR (STMBREAK | STMFRAME | STMPARITY)
#define STMBREAKH 0x800 /* BREAK */
#define STMFRAMEH 0x400 /* framing error */
#define STMRCVROVRH 0x200 /* receiver over run error */
#define STMPARITYH 0x100 /* parity error */
#define STMERRORH (STMBREAKH | STMFRAMEH | STMPARITYH)
#define CTS_ACT 0x20 /* CTS input asserted */
#define DSR_ACT 0x10 /* DSR input asserted */
#define CD_ACT 0x08 /* CD input asserted */
#define TXFIFOMT 0x04 /* Tx FIFO is empty */
#define TXSHRMT 0x02 /* Tx shift register is empty */
#define RDA 0x01 /* Rx data available */
#define DRAINED (TXFIFOMT | TXSHRMT) /* indicates Tx is drained */
#define STATMODE 0x8000 /* status mode enable bit */
#define RXFOVERFL 0x2000 /* receive FIFO overflow */
#define RX2MATCH 0x1000 /* receive compare byte 2 match */
#define RX1MATCH 0x0800 /* receive compare byte 1 match */
#define RXBREAK 0x0400 /* received BREAK */
#define RXFRAME 0x0200 /* received framing error */
#define RXPARITY 0x0100 /* received parity error */
#define STATERROR (RXBREAK | RXFRAME | RXPARITY)
#define CTSFC_EN 0x80 /* CTS flow control enable bit */
#define RTSTOG_EN 0x40 /* RTS toggle enable bit */
#define TXINT_EN 0x10 /* transmit interrupt enable */
#define STOP2 0x08 /* enable 2 stop bits (0 = 1 stop) */
#define PARITY_EN 0x04 /* enable parity (0 = no parity) */
#define EVEN_PAR 0x02 /* even parity (0 = odd parity) */
#define DATA8BIT 0x01 /* 8 bit data (0 = 7 bit data) */
#define SETBREAK 0x10 /* send break condition (must clear) */
#define LOCALLOOP 0x08 /* local loopback set for test */
#define SET_DTR 0x04 /* assert DTR */
#define SET_RTS 0x02 /* assert RTS */
#define TX_ENABLE 0x01 /* enable transmitter */
#define RTSFC_EN 0x40 /* RTS flow control enable */
#define RXPROC_EN 0x20 /* receive processor enable */
#define TRIG_NO 0x00 /* Rx FIFO trigger level 0 (no trigger) */
#define TRIG_1 0x08 /* trigger level 1 char */
#define TRIG_1_2 0x10 /* trigger level 1/2 */
#define TRIG_7_8 0x18 /* trigger level 7/8 */
#define TRIG_MASK 0x18 /* trigger level mask */
#define SRCINT_EN 0x04 /* special Rx condition interrupt enable */
#define RXINT_EN 0x02 /* Rx interrupt enable */
#define MCINT_EN 0x01 /* modem change interrupt enable */
#define RXF_TRIG 0x20 /* Rx FIFO trigger level interrupt */
#define TXFIFO_MT 0x10 /* Tx FIFO empty interrupt */
#define SRC_INT 0x08 /* special receive condition interrupt */
#define DELTA_CD 0x04 /* CD change interrupt */
#define DELTA_CTS 0x02 /* CTS change interrupt */
#define DELTA_DSR 0x01 /* DSR change interrupt */
#define REP1W2_EN 0x10 /* replace byte 1 with 2 bytes enable */
#define IGN2_EN 0x08 /* ignore byte 2 enable */
#define IGN1_EN 0x04 /* ignore byte 1 enable */
#define COMP2_EN 0x02 /* compare byte 2 enable */
#define COMP1_EN 0x01 /* compare byte 1 enable */
#define RESET_ALL 0x80 /* reset AIOP (all channels) */
#define TXOVERIDE 0x40 /* Transmit software off override */
#define RESETUART 0x20 /* reset channel's UART */
#define RESTXFCNT 0x10 /* reset channel's Tx FIFO count register */
#define RESRXFCNT 0x08 /* reset channel's Rx FIFO count register */
#define INTSTAT0 0x01 /* AIOP 0 interrupt status */
#define INTSTAT1 0x02 /* AIOP 1 interrupt status */
#define INTSTAT2 0x04 /* AIOP 2 interrupt status */
#define INTSTAT3 0x08 /* AIOP 3 interrupt status */
#define INTR_EN 0x08 /* allow interrupts to host */
#define INT_STROB 0x04 /* strobe and clear interrupt line (EOI) */
/**************************************************************************
MUDBAC remapped for PCI
**************************************************************************/
#define _CFG_INT_PCI 0x40
#define _PCI_INT_FUNC 0x3A
#define PCI_STROB 0x2000 /* bit 13 of int aiop register */
#define INTR_EN_PCI 0x0010 /* allow interrupts to host */
/*
* Definitions for Universal PCI board registers
*/
#define _PCI_9030_INT_CTRL 0x4c /* Offsets from BAR1 */
#define _PCI_9030_GPIO_CTRL 0x54
#define PCI_INT_CTRL_AIOP 0x0001
#define PCI_GPIO_CTRL_8PORT 0x4000
#define _PCI_9030_RING_IND 0xc0 /* Offsets from BAR1 */
#define CHAN3_EN 0x08 /* enable AIOP 3 */
#define CHAN2_EN 0x04 /* enable AIOP 2 */
#define CHAN1_EN 0x02 /* enable AIOP 1 */
#define CHAN0_EN 0x01 /* enable AIOP 0 */
#define FREQ_DIS 0x00
#define FREQ_274HZ 0x60
#define FREQ_137HZ 0x50
#define FREQ_69HZ 0x40
#define FREQ_34HZ 0x30
#define FREQ_17HZ 0x20
#define FREQ_9HZ 0x10
#define PERIODIC_ONLY 0x80 /* only PERIODIC interrupt */
#define CHANINT_EN 0x0100 /* flags to enable/disable channel ints */
#define RDATASIZE 72
#define RREGDATASIZE 52
/*
* AIOP interrupt bits for ISA/PCI boards and UPCI boards.
*/
#define AIOP_INTR_BIT_0 0x0001
#define AIOP_INTR_BIT_1 0x0002
#define AIOP_INTR_BIT_2 0x0004
#define AIOP_INTR_BIT_3 0x0008
#define AIOP_INTR_BITS ( \
AIOP_INTR_BIT_0 \
| AIOP_INTR_BIT_1 \
| AIOP_INTR_BIT_2 \
| AIOP_INTR_BIT_3)
#define UPCI_AIOP_INTR_BIT_0 0x0004
#define UPCI_AIOP_INTR_BIT_1 0x0020
#define UPCI_AIOP_INTR_BIT_2 0x0100
#define UPCI_AIOP_INTR_BIT_3 0x0800
#define UPCI_AIOP_INTR_BITS ( \
UPCI_AIOP_INTR_BIT_0 \
| UPCI_AIOP_INTR_BIT_1 \
| UPCI_AIOP_INTR_BIT_2 \
| UPCI_AIOP_INTR_BIT_3)
/* Controller level information structure */
typedef struct {
int CtlID;
int CtlNum;
int BusType;
int boardType;
int isUPCI;
WordIO_t PCIIO;
WordIO_t PCIIO2;
ByteIO_t MBaseIO;
ByteIO_t MReg1IO;
ByteIO_t MReg2IO;
ByteIO_t MReg3IO;
Byte_t MReg2;
Byte_t MReg3;
int NumAiop;
int AltChanRingIndicator;
ByteIO_t UPCIRingInd;
WordIO_t AiopIO[AIOP_CTL_SIZE];
ByteIO_t AiopIntChanIO[AIOP_CTL_SIZE];
int AiopID[AIOP_CTL_SIZE];
int AiopNumChan[AIOP_CTL_SIZE];
Word_t *AiopIntrBits;
} CONTROLLER_T;
typedef CONTROLLER_T CONTROLLER_t;
/* Channel level information structure */
typedef struct {
CONTROLLER_T *CtlP;
int AiopNum;
int ChanID;
int ChanNum;
int rtsToggle;
ByteIO_t Cmd;
ByteIO_t IntChan;
ByteIO_t IntMask;
DWordIO_t IndexAddr;
WordIO_t IndexData;
WordIO_t TxRxData;
WordIO_t ChanStat;
WordIO_t TxRxCount;
ByteIO_t IntID;
Word_t TxFIFO;
Word_t TxFIFOPtrs;
Word_t RxFIFO;
Word_t RxFIFOPtrs;
Word_t TxPrioCnt;
Word_t TxPrioPtr;
Word_t TxPrioBuf;
Byte_t R[RREGDATASIZE];
Byte_t BaudDiv[4];
Byte_t TxControl[4];
Byte_t RxControl[4];
Byte_t TxEnables[4];
Byte_t TxCompare[4];
Byte_t TxReplace1[4];
Byte_t TxReplace2[4];
} CHANNEL_T;
typedef CHANNEL_T CHANNEL_t;
typedef CHANNEL_T *CHANPTR_T;
#define InterfaceModeRS232 0x00
#define InterfaceModeRS422 0x08
#define InterfaceModeRS485 0x10
#define InterfaceModeRS232T 0x18
/***************************************************************************
Function: sClrBreak
Purpose: Stop sending a transmit BREAK signal
Call: sClrBreak(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sClrBreak(ChP) \
do { \
(ChP)->TxControl[3] &= ~SETBREAK; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sClrDTR
Purpose: Clr the DTR output
Call: sClrDTR(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sClrDTR(ChP) \
do { \
(ChP)->TxControl[3] &= ~SET_DTR; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sClrRTS
Purpose: Clr the RTS output
Call: sClrRTS(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sClrRTS(ChP) \
do { \
if ((ChP)->rtsToggle) break; \
(ChP)->TxControl[3] &= ~SET_RTS; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sClrTxXOFF
Purpose: Clear any existing transmit software flow control off condition
Call: sClrTxXOFF(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sClrTxXOFF(ChP) \
do { \
sOutB((ChP)->Cmd,TXOVERIDE | (Byte_t)(ChP)->ChanNum); \
sOutB((ChP)->Cmd,(Byte_t)(ChP)->ChanNum); \
} while (0)
/***************************************************************************
Function: sCtlNumToCtlPtr
Purpose: Convert a controller number to controller structure pointer
Call: sCtlNumToCtlPtr(CtlNum)
int CtlNum; Controller number
Return: CONTROLLER_T *: Ptr to controller structure
*/
#define sCtlNumToCtlPtr(CTLNUM) &sController[CTLNUM]
/***************************************************************************
Function: sControllerEOI
Purpose: Strobe the MUDBAC's End Of Interrupt bit.
Call: sControllerEOI(CtlP)
CONTROLLER_T *CtlP; Ptr to controller structure
*/
#define sControllerEOI(CTLP) sOutB((CTLP)->MReg2IO,(CTLP)->MReg2 | INT_STROB)
/***************************************************************************
Function: sPCIControllerEOI
Purpose: Strobe the PCI End Of Interrupt bit.
For the UPCI boards, toggle the AIOP interrupt enable bit
(this was taken from the Windows driver).
Call: sPCIControllerEOI(CtlP)
CONTROLLER_T *CtlP; Ptr to controller structure
*/
#define sPCIControllerEOI(CTLP) \
do { \
if ((CTLP)->isUPCI) { \
Word_t w = sInW((CTLP)->PCIIO); \
sOutW((CTLP)->PCIIO, (w ^ PCI_INT_CTRL_AIOP)); \
sOutW((CTLP)->PCIIO, w); \
} \
else { \
sOutW((CTLP)->PCIIO, PCI_STROB); \
} \
} while (0)
/***************************************************************************
Function: sDisAiop
Purpose: Disable I/O access to an AIOP
Call: sDisAiop(CltP)
CONTROLLER_T *CtlP; Ptr to controller structure
int AiopNum; Number of AIOP on controller
*/
#define sDisAiop(CTLP,AIOPNUM) \
do { \
(CTLP)->MReg3 &= sBitMapClrTbl[AIOPNUM]; \
sOutB((CTLP)->MReg3IO,(CTLP)->MReg3); \
} while (0)
/***************************************************************************
Function: sDisCTSFlowCtl
Purpose: Disable output flow control using CTS
Call: sDisCTSFlowCtl(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sDisCTSFlowCtl(ChP) \
do { \
(ChP)->TxControl[2] &= ~CTSFC_EN; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sDisIXANY
Purpose: Disable IXANY Software Flow Control
Call: sDisIXANY(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sDisIXANY(ChP) \
do { \
(ChP)->R[0x0e] = 0x86; \
out32((ChP)->IndexAddr,&(ChP)->R[0x0c]); \
} while (0)
/***************************************************************************
Function: DisParity
Purpose: Disable parity
Call: sDisParity(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: Function sSetParity() can be used in place of functions sEnParity(),
sDisParity(), sSetOddParity(), and sSetEvenParity().
*/
#define sDisParity(ChP) \
do { \
(ChP)->TxControl[2] &= ~PARITY_EN; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sDisRTSToggle
Purpose: Disable RTS toggle
Call: sDisRTSToggle(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sDisRTSToggle(ChP) \
do { \
(ChP)->TxControl[2] &= ~RTSTOG_EN; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
(ChP)->rtsToggle = 0; \
} while (0)
/***************************************************************************
Function: sDisRxFIFO
Purpose: Disable Rx FIFO
Call: sDisRxFIFO(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sDisRxFIFO(ChP) \
do { \
(ChP)->R[0x32] = 0x0a; \
out32((ChP)->IndexAddr,&(ChP)->R[0x30]); \
} while (0)
/***************************************************************************
Function: sDisRxStatusMode
Purpose: Disable the Rx status mode
Call: sDisRxStatusMode(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: This takes the channel out of the receive status mode. All
subsequent reads of receive data using sReadRxWord() will return
two data bytes.
*/
#define sDisRxStatusMode(ChP) sOutW((ChP)->ChanStat,0)
/***************************************************************************
Function: sDisTransmit
Purpose: Disable transmit
Call: sDisTransmit(ChP)
CHANNEL_T *ChP; Ptr to channel structure
This disables movement of Tx data from the Tx FIFO into the 1 byte
Tx buffer. Therefore there could be up to a 2 byte latency
between the time sDisTransmit() is called and the transmit buffer
and transmit shift register going completely empty.
*/
#define sDisTransmit(ChP) \
do { \
(ChP)->TxControl[3] &= ~TX_ENABLE; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sDisTxSoftFlowCtl
Purpose: Disable Tx Software Flow Control
Call: sDisTxSoftFlowCtl(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sDisTxSoftFlowCtl(ChP) \
do { \
(ChP)->R[0x06] = 0x8a; \
out32((ChP)->IndexAddr,&(ChP)->R[0x04]); \
} while (0)
/***************************************************************************
Function: sEnAiop
Purpose: Enable I/O access to an AIOP
Call: sEnAiop(CltP)
CONTROLLER_T *CtlP; Ptr to controller structure
int AiopNum; Number of AIOP on controller
*/
#define sEnAiop(CTLP,AIOPNUM) \
do { \
(CTLP)->MReg3 |= sBitMapSetTbl[AIOPNUM]; \
sOutB((CTLP)->MReg3IO,(CTLP)->MReg3); \
} while (0)
/***************************************************************************
Function: sEnCTSFlowCtl
Purpose: Enable output flow control using CTS
Call: sEnCTSFlowCtl(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sEnCTSFlowCtl(ChP) \
do { \
(ChP)->TxControl[2] |= CTSFC_EN; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sEnIXANY
Purpose: Enable IXANY Software Flow Control
Call: sEnIXANY(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sEnIXANY(ChP) \
do { \
(ChP)->R[0x0e] = 0x21; \
out32((ChP)->IndexAddr,&(ChP)->R[0x0c]); \
} while (0)
/***************************************************************************
Function: EnParity
Purpose: Enable parity
Call: sEnParity(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: Function sSetParity() can be used in place of functions sEnParity(),
sDisParity(), sSetOddParity(), and sSetEvenParity().
Warnings: Before enabling parity odd or even parity should be chosen using
functions sSetOddParity() or sSetEvenParity().
*/
#define sEnParity(ChP) \
do { \
(ChP)->TxControl[2] |= PARITY_EN; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sEnRTSToggle
Purpose: Enable RTS toggle
Call: sEnRTSToggle(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: This function will disable RTS flow control and clear the RTS
line to allow operation of RTS toggle.
*/
#define sEnRTSToggle(ChP) \
do { \
(ChP)->RxControl[2] &= ~RTSFC_EN; \
out32((ChP)->IndexAddr,(ChP)->RxControl); \
(ChP)->TxControl[2] |= RTSTOG_EN; \
(ChP)->TxControl[3] &= ~SET_RTS; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
(ChP)->rtsToggle = 1; \
} while (0)
/***************************************************************************
Function: sEnRxFIFO
Purpose: Enable Rx FIFO
Call: sEnRxFIFO(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sEnRxFIFO(ChP) \
do { \
(ChP)->R[0x32] = 0x08; \
out32((ChP)->IndexAddr,&(ChP)->R[0x30]); \
} while (0)
/***************************************************************************
Function: sEnRxProcessor
Purpose: Enable the receive processor
Call: sEnRxProcessor(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: This function is used to start the receive processor. When
the channel is in the reset state the receive processor is not
running. This is done to prevent the receive processor from
executing invalid microcode instructions prior to the
downloading of the microcode.
Warnings: This function must be called after valid microcode has been
downloaded to the AIOP, and it must not be called before the
microcode has been downloaded.
*/
#define sEnRxProcessor(ChP) \
do { \
(ChP)->RxControl[2] |= RXPROC_EN; \
out32((ChP)->IndexAddr,(ChP)->RxControl); \
} while (0)
/***************************************************************************
Function: sEnRxStatusMode
Purpose: Enable the Rx status mode
Call: sEnRxStatusMode(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: This places the channel in the receive status mode. All subsequent
reads of receive data using sReadRxWord() will return a data byte
in the low word and a status byte in the high word.
*/
#define sEnRxStatusMode(ChP) sOutW((ChP)->ChanStat,STATMODE)
/***************************************************************************
Function: sEnTransmit
Purpose: Enable transmit
Call: sEnTransmit(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sEnTransmit(ChP) \
do { \
(ChP)->TxControl[3] |= TX_ENABLE; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sEnTxSoftFlowCtl
Purpose: Enable Tx Software Flow Control
Call: sEnTxSoftFlowCtl(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sEnTxSoftFlowCtl(ChP) \
do { \
(ChP)->R[0x06] = 0xc5; \
out32((ChP)->IndexAddr,&(ChP)->R[0x04]); \
} while (0)
/***************************************************************************
Function: sGetAiopIntStatus
Purpose: Get the AIOP interrupt status
Call: sGetAiopIntStatus(CtlP,AiopNum)
CONTROLLER_T *CtlP; Ptr to controller structure
int AiopNum; AIOP number
Return: Byte_t: The AIOP interrupt status. Bits 0 through 7
represent channels 0 through 7 respectively. If a
bit is set that channel is interrupting.
*/
#define sGetAiopIntStatus(CTLP,AIOPNUM) sInB((CTLP)->AiopIntChanIO[AIOPNUM])
/***************************************************************************
Function: sGetAiopNumChan
Purpose: Get the number of channels supported by an AIOP
Call: sGetAiopNumChan(CtlP,AiopNum)
CONTROLLER_T *CtlP; Ptr to controller structure
int AiopNum; AIOP number
Return: int: The number of channels supported by the AIOP
*/
#define sGetAiopNumChan(CTLP,AIOPNUM) (CTLP)->AiopNumChan[AIOPNUM]
/***************************************************************************
Function: sGetChanIntID
Purpose: Get a channel's interrupt identification byte
Call: sGetChanIntID(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: Byte_t: The channel interrupt ID. Can be any
combination of the following flags:
RXF_TRIG: Rx FIFO trigger level interrupt
TXFIFO_MT: Tx FIFO empty interrupt
SRC_INT: Special receive condition interrupt
DELTA_CD: CD change interrupt
DELTA_CTS: CTS change interrupt
DELTA_DSR: DSR change interrupt
*/
#define sGetChanIntID(ChP) (sInB((ChP)->IntID) & (RXF_TRIG | TXFIFO_MT | SRC_INT | DELTA_CD | DELTA_CTS | DELTA_DSR))
/***************************************************************************
Function: sGetChanNum
Purpose: Get the number of a channel within an AIOP
Call: sGetChanNum(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: int: Channel number within AIOP, or NULLCHAN if channel does
not exist.
*/
#define sGetChanNum(ChP) (ChP)->ChanNum
/***************************************************************************
Function: sGetChanStatus
Purpose: Get the channel status
Call: sGetChanStatus(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: Word_t: The channel status. Can be any combination of
the following flags:
LOW BYTE FLAGS
CTS_ACT: CTS input asserted
DSR_ACT: DSR input asserted
CD_ACT: CD input asserted
TXFIFOMT: Tx FIFO is empty
TXSHRMT: Tx shift register is empty
RDA: Rx data available
HIGH BYTE FLAGS
STATMODE: status mode enable bit
RXFOVERFL: receive FIFO overflow
RX2MATCH: receive compare byte 2 match
RX1MATCH: receive compare byte 1 match
RXBREAK: received BREAK
RXFRAME: received framing error
RXPARITY: received parity error
Warnings: This function will clear the high byte flags in the Channel
Status Register.
*/
#define sGetChanStatus(ChP) sInW((ChP)->ChanStat)
/***************************************************************************
Function: sGetChanStatusLo
Purpose: Get the low byte only of the channel status
Call: sGetChanStatusLo(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: Byte_t: The channel status low byte. Can be any combination
of the following flags:
CTS_ACT: CTS input asserted
DSR_ACT: DSR input asserted
CD_ACT: CD input asserted
TXFIFOMT: Tx FIFO is empty
TXSHRMT: Tx shift register is empty
RDA: Rx data available
*/
#define sGetChanStatusLo(ChP) sInB((ByteIO_t)(ChP)->ChanStat)
/**********************************************************************
* Get RI status of channel
* Defined as a function in rocket.c -aes
*/
#if 0
#define sGetChanRI(ChP) ((ChP)->CtlP->AltChanRingIndicator ? \
(sInB((ByteIO_t)((ChP)->ChanStat+8)) & DSR_ACT) : \
(((ChP)->CtlP->boardType == ROCKET_TYPE_PC104) ? \
(!(sInB((ChP)->CtlP->AiopIO[3]) & sBitMapSetTbl[(ChP)->ChanNum])) : \
0))
#endif
/***************************************************************************
Function: sGetControllerIntStatus
Purpose: Get the controller interrupt status
Call: sGetControllerIntStatus(CtlP)
CONTROLLER_T *CtlP; Ptr to controller structure
Return: Byte_t: The controller interrupt status in the lower 4
bits. Bits 0 through 3 represent AIOP's 0
through 3 respectively. If a bit is set that
AIOP is interrupting. Bits 4 through 7 will
always be cleared.
*/
#define sGetControllerIntStatus(CTLP) (sInB((CTLP)->MReg1IO) & 0x0f)
/***************************************************************************
Function: sPCIGetControllerIntStatus
Purpose: Get the controller interrupt status
Call: sPCIGetControllerIntStatus(CtlP)
CONTROLLER_T *CtlP; Ptr to controller structure
Return: unsigned char: The controller interrupt status in the lower 4
bits and bit 4. Bits 0 through 3 represent AIOP's 0
through 3 respectively. Bit 4 is set if the int
was generated from periodic. If a bit is set the
AIOP is interrupting.
*/
#define sPCIGetControllerIntStatus(CTLP) \
((CTLP)->isUPCI ? \
(sInW((CTLP)->PCIIO2) & UPCI_AIOP_INTR_BITS) : \
((sInW((CTLP)->PCIIO) >> 8) & AIOP_INTR_BITS))
/***************************************************************************
Function: sGetRxCnt
Purpose: Get the number of data bytes in the Rx FIFO
Call: sGetRxCnt(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: int: The number of data bytes in the Rx FIFO.
Comments: Byte read of count register is required to obtain Rx count.
*/
#define sGetRxCnt(ChP) sInW((ChP)->TxRxCount)
/***************************************************************************
Function: sGetTxCnt
Purpose: Get the number of data bytes in the Tx FIFO
Call: sGetTxCnt(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: Byte_t: The number of data bytes in the Tx FIFO.
Comments: Byte read of count register is required to obtain Tx count.
*/
#define sGetTxCnt(ChP) sInB((ByteIO_t)(ChP)->TxRxCount)
/*****************************************************************************
Function: sGetTxRxDataIO
Purpose: Get the I/O address of a channel's TxRx Data register
Call: sGetTxRxDataIO(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Return: WordIO_t: I/O address of a channel's TxRx Data register
*/
#define sGetTxRxDataIO(ChP) (ChP)->TxRxData
/***************************************************************************
Function: sInitChanDefaults
Purpose: Initialize a channel structure to it's default state.
Call: sInitChanDefaults(ChP)
CHANNEL_T *ChP; Ptr to the channel structure
Comments: This function must be called once for every channel structure
that exists before any other SSCI calls can be made.
*/
#define sInitChanDefaults(ChP) \
do { \
(ChP)->CtlP = NULLCTLPTR; \
(ChP)->AiopNum = NULLAIOP; \
(ChP)->ChanID = AIOPID_NULL; \
(ChP)->ChanNum = NULLCHAN; \
} while (0)
/***************************************************************************
Function: sResetAiopByNum
Purpose: Reset the AIOP by number
Call: sResetAiopByNum(CTLP,AIOPNUM)
CONTROLLER_T CTLP; Ptr to controller structure
AIOPNUM; AIOP index
*/
#define sResetAiopByNum(CTLP,AIOPNUM) \
do { \
sOutB((CTLP)->AiopIO[(AIOPNUM)]+_CMD_REG,RESET_ALL); \
sOutB((CTLP)->AiopIO[(AIOPNUM)]+_CMD_REG,0x0); \
} while (0)
/***************************************************************************
Function: sSendBreak
Purpose: Send a transmit BREAK signal
Call: sSendBreak(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSendBreak(ChP) \
do { \
(ChP)->TxControl[3] |= SETBREAK; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetBaud
Purpose: Set baud rate
Call: sSetBaud(ChP,Divisor)
CHANNEL_T *ChP; Ptr to channel structure
Word_t Divisor; 16 bit baud rate divisor for channel
*/
#define sSetBaud(ChP,DIVISOR) \
do { \
(ChP)->BaudDiv[2] = (Byte_t)(DIVISOR); \
(ChP)->BaudDiv[3] = (Byte_t)((DIVISOR) >> 8); \
out32((ChP)->IndexAddr,(ChP)->BaudDiv); \
} while (0)
/***************************************************************************
Function: sSetData7
Purpose: Set data bits to 7
Call: sSetData7(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSetData7(ChP) \
do { \
(ChP)->TxControl[2] &= ~DATA8BIT; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetData8
Purpose: Set data bits to 8
Call: sSetData8(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSetData8(ChP) \
do { \
(ChP)->TxControl[2] |= DATA8BIT; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetDTR
Purpose: Set the DTR output
Call: sSetDTR(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSetDTR(ChP) \
do { \
(ChP)->TxControl[3] |= SET_DTR; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetEvenParity
Purpose: Set even parity
Call: sSetEvenParity(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: Function sSetParity() can be used in place of functions sEnParity(),
sDisParity(), sSetOddParity(), and sSetEvenParity().
Warnings: This function has no effect unless parity is enabled with function
sEnParity().
*/
#define sSetEvenParity(ChP) \
do { \
(ChP)->TxControl[2] |= EVEN_PAR; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetOddParity
Purpose: Set odd parity
Call: sSetOddParity(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: Function sSetParity() can be used in place of functions sEnParity(),
sDisParity(), sSetOddParity(), and sSetEvenParity().
Warnings: This function has no effect unless parity is enabled with function
sEnParity().
*/
#define sSetOddParity(ChP) \
do { \
(ChP)->TxControl[2] &= ~EVEN_PAR; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetRTS
Purpose: Set the RTS output
Call: sSetRTS(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSetRTS(ChP) \
do { \
if ((ChP)->rtsToggle) break; \
(ChP)->TxControl[3] |= SET_RTS; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetRxTrigger
Purpose: Set the Rx FIFO trigger level
Call: sSetRxProcessor(ChP,Level)
CHANNEL_T *ChP; Ptr to channel structure
Byte_t Level; Number of characters in Rx FIFO at which the
interrupt will be generated. Can be any of the following flags:
TRIG_NO: no trigger
TRIG_1: 1 character in FIFO
TRIG_1_2: FIFO 1/2 full
TRIG_7_8: FIFO 7/8 full
Comments: An interrupt will be generated when the trigger level is reached
only if function sEnInterrupt() has been called with flag
RXINT_EN set. The RXF_TRIG flag in the Interrupt Idenfification
register will be set whenever the trigger level is reached
regardless of the setting of RXINT_EN.
*/
#define sSetRxTrigger(ChP,LEVEL) \
do { \
(ChP)->RxControl[2] &= ~TRIG_MASK; \
(ChP)->RxControl[2] |= LEVEL; \
out32((ChP)->IndexAddr,(ChP)->RxControl); \
} while (0)
/***************************************************************************
Function: sSetStop1
Purpose: Set stop bits to 1
Call: sSetStop1(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSetStop1(ChP) \
do { \
(ChP)->TxControl[2] &= ~STOP2; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetStop2
Purpose: Set stop bits to 2
Call: sSetStop2(ChP)
CHANNEL_T *ChP; Ptr to channel structure
*/
#define sSetStop2(ChP) \
do { \
(ChP)->TxControl[2] |= STOP2; \
out32((ChP)->IndexAddr,(ChP)->TxControl); \
} while (0)
/***************************************************************************
Function: sSetTxXOFFChar
Purpose: Set the Tx XOFF flow control character
Call: sSetTxXOFFChar(ChP,Ch)
CHANNEL_T *ChP; Ptr to channel structure
Byte_t Ch; The value to set the Tx XOFF character to
*/
#define sSetTxXOFFChar(ChP,CH) \
do { \
(ChP)->R[0x07] = (CH); \
out32((ChP)->IndexAddr,&(ChP)->R[0x04]); \
} while (0)
/***************************************************************************
Function: sSetTxXONChar
Purpose: Set the Tx XON flow control character
Call: sSetTxXONChar(ChP,Ch)
CHANNEL_T *ChP; Ptr to channel structure
Byte_t Ch; The value to set the Tx XON character to
*/
#define sSetTxXONChar(ChP,CH) \
do { \
(ChP)->R[0x0b] = (CH); \
out32((ChP)->IndexAddr,&(ChP)->R[0x08]); \
} while (0)
/***************************************************************************
Function: sStartRxProcessor
Purpose: Start a channel's receive processor
Call: sStartRxProcessor(ChP)
CHANNEL_T *ChP; Ptr to channel structure
Comments: This function is used to start a Rx processor after it was
stopped with sStopRxProcessor() or sStopSWInFlowCtl(). It
will restart both the Rx processor and software input flow control.
*/
#define sStartRxProcessor(ChP) out32((ChP)->IndexAddr,&(ChP)->R[0])
/***************************************************************************
Function: sWriteTxByte
Purpose: Write a transmit data byte to a channel.
ByteIO_t io: Channel transmit register I/O address. This can
be obtained with sGetTxRxDataIO().
Byte_t Data; The transmit data byte.
Warnings: This function writes the data byte without checking to see if
sMaxTxSize is exceeded in the Tx FIFO.
*/
#define sWriteTxByte(IO,DATA) sOutB(IO,DATA)
/*
* Begin Linux specific definitions for the Rocketport driver
*
* This code is Copyright Theodore Ts'o, 1995-1997
*/
struct r_port {
int magic;
struct tty_port port;
int line;
int flags; /* Don't yet match the ASY_ flags!! */
unsigned int board:3;
unsigned int aiop:2;
unsigned int chan:3;
CONTROLLER_t *ctlp;
CHANNEL_t channel;
int intmask;
int xmit_fifo_room; /* room in xmit fifo */
unsigned char *xmit_buf;
int xmit_head;
int xmit_tail;
int xmit_cnt;
int cd_status;
int ignore_status_mask;
int read_status_mask;
int cps;
spinlock_t slock;
struct mutex write_mtx;
};
#define RPORT_MAGIC 0x525001
#define NUM_BOARDS 8
#define MAX_RP_PORTS (32*NUM_BOARDS)
/*
* The size of the xmit buffer is 1 page, or 4096 bytes
*/
#define XMIT_BUF_SIZE 4096
/* number of characters left in xmit buffer before we ask for more */
#define WAKEUP_CHARS 256
/*
* Assigned major numbers for the Comtrol Rocketport
*/
#define TTY_ROCKET_MAJOR 46
#define CUA_ROCKET_MAJOR 47
#ifdef PCI_VENDOR_ID_RP
#undef PCI_VENDOR_ID_RP
#undef PCI_DEVICE_ID_RP8OCTA
#undef PCI_DEVICE_ID_RP8INTF
#undef PCI_DEVICE_ID_RP16INTF
#undef PCI_DEVICE_ID_RP32INTF
#undef PCI_DEVICE_ID_URP8OCTA
#undef PCI_DEVICE_ID_URP8INTF
#undef PCI_DEVICE_ID_URP16INTF
#undef PCI_DEVICE_ID_CRP16INTF
#undef PCI_DEVICE_ID_URP32INTF
#endif
/* Comtrol PCI Vendor ID */
#define PCI_VENDOR_ID_RP 0x11fe
/* Comtrol Device ID's */
#define PCI_DEVICE_ID_RP32INTF 0x0001 /* Rocketport 32 port w/external I/F */
#define PCI_DEVICE_ID_RP8INTF 0x0002 /* Rocketport 8 port w/external I/F */
#define PCI_DEVICE_ID_RP16INTF 0x0003 /* Rocketport 16 port w/external I/F */
#define PCI_DEVICE_ID_RP4QUAD 0x0004 /* Rocketport 4 port w/quad cable */
#define PCI_DEVICE_ID_RP8OCTA 0x0005 /* Rocketport 8 port w/octa cable */
#define PCI_DEVICE_ID_RP8J 0x0006 /* Rocketport 8 port w/RJ11 connectors */
#define PCI_DEVICE_ID_RP4J 0x0007 /* Rocketport 4 port w/RJ11 connectors */
#define PCI_DEVICE_ID_RP8SNI 0x0008 /* Rocketport 8 port w/ DB78 SNI (Siemens) connector */
#define PCI_DEVICE_ID_RP16SNI 0x0009 /* Rocketport 16 port w/ DB78 SNI (Siemens) connector */
#define PCI_DEVICE_ID_RPP4 0x000A /* Rocketport Plus 4 port */
#define PCI_DEVICE_ID_RPP8 0x000B /* Rocketport Plus 8 port */
#define PCI_DEVICE_ID_RP6M 0x000C /* RocketModem 6 port */
#define PCI_DEVICE_ID_RP4M 0x000D /* RocketModem 4 port */
#define PCI_DEVICE_ID_RP2_232 0x000E /* Rocketport Plus 2 port RS232 */
#define PCI_DEVICE_ID_RP2_422 0x000F /* Rocketport Plus 2 port RS422 */
/* Universal PCI boards */
#define PCI_DEVICE_ID_URP32INTF 0x0801 /* Rocketport UPCI 32 port w/external I/F */
#define PCI_DEVICE_ID_URP8INTF 0x0802 /* Rocketport UPCI 8 port w/external I/F */
#define PCI_DEVICE_ID_URP16INTF 0x0803 /* Rocketport UPCI 16 port w/external I/F */
#define PCI_DEVICE_ID_URP8OCTA 0x0805 /* Rocketport UPCI 8 port w/octa cable */
#define PCI_DEVICE_ID_UPCI_RM3_8PORT 0x080C /* Rocketmodem III 8 port */
#define PCI_DEVICE_ID_UPCI_RM3_4PORT 0x080D /* Rocketmodem III 4 port */
/* Compact PCI device */
#define PCI_DEVICE_ID_CRP16INTF 0x0903 /* Rocketport Compact PCI 16 port w/external I/F */
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