scsi: in2000: remove from tree

The driver has not seen any maintainer activity or other work that
wasn't tree wide conversion or clenaups in the entire history of
the git tree.

Signed-off-by: Christoph Hellwig <hch@lst.de>
Reviewed-by: Hannes Reinicke <hare@suse.de>
Signed-off-by: Martin K. Petersen <martin.petersen@oracle.com>

4 files changed, 0 insertions, 2727 deletions

diff --git a/drivers/scsi/Kconfig b/drivers/scsi/Kconfig
index 15c6e9f2162d..543005b00546 100644
--- a/drivers/scsi/Kconfig
+++ b/drivers/scsi/Kconfig
@@ -500,18 +500,6 @@ config SCSI_ADVANSYS
 	  To compile this driver as a module, choose M here: the
 	  module will be called advansys.
 
-config SCSI_IN2000
-	tristate "Always IN2000 SCSI support"
-	depends on ISA && SCSI
-	help
-	  This is support for an ISA bus SCSI host adapter.  You'll find more
-	  information in <file:Documentation/scsi/in2000.txt>. If it doesn't work
-	  out of the box, you may have to change the jumpers for IRQ or
-	  address selection.
-
-	  To compile this driver as a module, choose M here: the
-	  module will be called in2000.
-
 config SCSI_ARCMSR
 	tristate "ARECA (ARC11xx/12xx/13xx/16xx) SATA/SAS RAID Host Adapter"
 	depends on PCI && SCSI
diff --git a/drivers/scsi/Makefile b/drivers/scsi/Makefile
index d870cc51d0bb..07bf799bf8a9 100644
--- a/drivers/scsi/Makefile
+++ b/drivers/scsi/Makefile
@@ -75,7 +75,6 @@ obj-$(CONFIG_SCSI_PM8001)	+= pm8001/
 obj-$(CONFIG_SCSI_ISCI)		+= isci/
 obj-$(CONFIG_SCSI_IPS)		+= ips.o
 obj-$(CONFIG_SCSI_FUTURE_DOMAIN)+= fdomain.o
-obj-$(CONFIG_SCSI_IN2000)	+= in2000.o
 obj-$(CONFIG_SCSI_GENERIC_NCR5380) += g_NCR5380.o
 obj-$(CONFIG_SCSI_GENERIC_NCR5380_MMIO) += g_NCR5380_mmio.o
 obj-$(CONFIG_SCSI_NCR53C406A)	+= NCR53c406a.o
diff --git a/drivers/scsi/in2000.c b/drivers/scsi/in2000.c
deleted file mode 100644
index 3882d9f519c8..000000000000
--- a/drivers/scsi/in2000.c
+++ /dev/null
@@ -1,2302 +0,0 @@
-/*
- *    in2000.c -  Linux device driver for the
- *                Always IN2000 ISA SCSI card.
- *
- * Copyright (c) 1996 John Shifflett, GeoLog Consulting
- *    john@geolog.com
- *    jshiffle@netcom.com
- *
- * This program is free software; you can redistribute it and/or modify
- * it under the terms of the GNU General Public License as published by
- * the Free Software Foundation; either version 2, or (at your option)
- * any later version.
- *
- * This program is distributed in the hope that it will be useful,
- * but WITHOUT ANY WARRANTY; without even the implied warranty of
- * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
- * GNU General Public License for more details.
- *
- * For the avoidance of doubt the "preferred form" of this code is one which
- * is in an open non patent encumbered format. Where cryptographic key signing
- * forms part of the process of creating an executable the information
- * including keys needed to generate an equivalently functional executable
- * are deemed to be part of the source code.
- *
- * Drew Eckhardt's excellent 'Generic NCR5380' sources provided
- * much of the inspiration and some of the code for this driver.
- * The Linux IN2000 driver distributed in the Linux kernels through
- * version 1.2.13 was an extremely valuable reference on the arcane
- * (and still mysterious) workings of the IN2000's fifo. It also
- * is where I lifted in2000_biosparam(), the gist of the card
- * detection scheme, and other bits of code. Many thanks to the
- * talented and courageous people who wrote, contributed to, and
- * maintained that driver (including Brad McLean, Shaun Savage,
- * Bill Earnest, Larry Doolittle, Roger Sunshine, John Luckey,
- * Matt Postiff, Peter Lu, zerucha@shell.portal.com, and Eric
- * Youngdale). I should also mention the driver written by
- * Hamish Macdonald for the (GASP!) Amiga A2091 card, included
- * in the Linux-m68k distribution; it gave me a good initial
- * understanding of the proper way to run a WD33c93 chip, and I
- * ended up stealing lots of code from it.
- *
- * _This_ driver is (I feel) an improvement over the old one in
- * several respects:
- *    -  All problems relating to the data size of a SCSI request are
- *          gone (as far as I know). The old driver couldn't handle
- *          swapping to partitions because that involved 4k blocks, nor
- *          could it deal with the st.c tape driver unmodified, because
- *          that usually involved 4k - 32k blocks. The old driver never
- *          quite got away from a morbid dependence on 2k block sizes -
- *          which of course is the size of the card's fifo.
- *
- *    -  Target Disconnection/Reconnection is now supported. Any
- *          system with more than one device active on the SCSI bus
- *          will benefit from this. The driver defaults to what I'm
- *          calling 'adaptive disconnect' - meaning that each command
- *          is evaluated individually as to whether or not it should
- *          be run with the option to disconnect/reselect (if the
- *          device chooses), or as a "SCSI-bus-hog".
- *
- *    -  Synchronous data transfers are now supported. Because there
- *          are a few devices (and many improperly terminated systems)
- *          that choke when doing sync, the default is sync DISABLED
- *          for all devices. This faster protocol can (and should!)
- *          be enabled on selected devices via the command-line.
- *
- *    -  Runtime operating parameters can now be specified through
- *       either the LILO or the 'insmod' command line. For LILO do:
- *          "in2000=blah,blah,blah"
- *       and with insmod go like:
- *          "insmod /usr/src/linux/modules/in2000.o setup_strings=blah,blah"
- *       The defaults should be good for most people. See the comment
- *       for 'setup_strings' below for more details.
- *
- *    -  The old driver relied exclusively on what the Western Digital
- *          docs call "Combination Level 2 Commands", which are a great
- *          idea in that the CPU is relieved of a lot of interrupt
- *          overhead. However, by accepting a certain (user-settable)
- *          amount of additional interrupts, this driver achieves
- *          better control over the SCSI bus, and data transfers are
- *          almost as fast while being much easier to define, track,
- *          and debug.
- *
- *    -  You can force detection of a card whose BIOS has been disabled.
- *
- *    -  Multiple IN2000 cards might almost be supported. I've tried to
- *       keep it in mind, but have no way to test...
- *
- *
- * TODO:
- *       tagged queuing. multiple cards.
- *
- *
- * NOTE:
- *       When using this or any other SCSI driver as a module, you'll
- *       find that with the stock kernel, at most _two_ SCSI hard
- *       drives will be linked into the device list (ie, usable).
- *       If your IN2000 card has more than 2 disks on its bus, you
- *       might want to change the define of 'SD_EXTRA_DEVS' in the
- *       'hosts.h' file from 2 to whatever is appropriate. It took
- *       me a while to track down this surprisingly obscure and
- *       undocumented little "feature".
- *
- *
- * People with bug reports, wish-lists, complaints, comments,
- * or improvements are asked to pah-leeez email me (John Shifflett)
- * at john@geolog.com or jshiffle@netcom.com! I'm anxious to get
- * this thing into as good a shape as possible, and I'm positive
- * there are lots of lurking bugs and "Stupid Places".
- *
- * Updated for Linux 2.5 by Alan Cox <alan@lxorguk.ukuu.org.uk>
- *	- Using new_eh handler
- *	- Hopefully got all the locking right again
- *	See "FIXME" notes for items that could do with more work
- */
-
-#include <linux/module.h>
-#include <linux/blkdev.h>
-#include <linux/interrupt.h>
-#include <linux/string.h>
-#include <linux/delay.h>
-#include <linux/proc_fs.h>
-#include <linux/ioport.h>
-#include <linux/stat.h>
-
-#include <asm/io.h>
-
-#include "scsi.h"
-#include <scsi/scsi_host.h>
-
-#define IN2000_VERSION    "1.33-2.5"
-#define IN2000_DATE       "2002/11/03"
-
-#include "in2000.h"
-
-
-/*
- * 'setup_strings' is a single string used to pass operating parameters and
- * settings from the kernel/module command-line to the driver. 'setup_args[]'
- * is an array of strings that define the compile-time default values for
- * these settings. If Linux boots with a LILO or insmod command-line, those
- * settings are combined with 'setup_args[]'. Note that LILO command-lines
- * are prefixed with "in2000=" while insmod uses a "setup_strings=" prefix.
- * The driver recognizes the following keywords (lower case required) and
- * arguments:
- *
- * -  ioport:addr    -Where addr is IO address of a (usually ROM-less) card.
- * -  noreset        -No optional args. Prevents SCSI bus reset at boot time.
- * -  nosync:x       -x is a bitmask where the 1st 7 bits correspond with
- *                    the 7 possible SCSI devices (bit 0 for device #0, etc).
- *                    Set a bit to PREVENT sync negotiation on that device.
- *                    The driver default is sync DISABLED on all devices.
- * -  period:ns      -ns is the minimum # of nanoseconds in a SCSI data transfer
- *                    period. Default is 500; acceptable values are 250 - 1000.
- * -  disconnect:x   -x = 0 to never allow disconnects, 2 to always allow them.
- *                    x = 1 does 'adaptive' disconnects, which is the default
- *                    and generally the best choice.
- * -  debug:x        -If 'DEBUGGING_ON' is defined, x is a bitmask that causes
- *                    various types of debug output to printed - see the DB_xxx
- *                    defines in in2000.h
- * -  proc:x         -If 'PROC_INTERFACE' is defined, x is a bitmask that
- *                    determines how the /proc interface works and what it
- *                    does - see the PR_xxx defines in in2000.h
- *
- * Syntax Notes:
- * -  Numeric arguments can be decimal or the '0x' form of hex notation. There
- *    _must_ be a colon between a keyword and its numeric argument, with no
- *    spaces.
- * -  Keywords are separated by commas, no spaces, in the standard kernel
- *    command-line manner.
- * -  A keyword in the 'nth' comma-separated command-line member will overwrite
- *    the 'nth' element of setup_args[]. A blank command-line member (in
- *    other words, a comma with no preceding keyword) will _not_ overwrite
- *    the corresponding setup_args[] element.
- *
- * A few LILO examples (for insmod, use 'setup_strings' instead of 'in2000'):
- * -  in2000=ioport:0x220,noreset
- * -  in2000=period:250,disconnect:2,nosync:0x03
- * -  in2000=debug:0x1e
- * -  in2000=proc:3
- */
-
-/* Normally, no defaults are specified... */
-static char *setup_args[] = { "", "", "", "", "", "", "", "", "" };
-
-/* filled in by 'insmod' */
-static char *setup_strings;
-
-module_param(setup_strings, charp, 0);
-
-static inline uchar read_3393(struct IN2000_hostdata *hostdata, uchar reg_num)
-{
-	write1_io(reg_num, IO_WD_ADDR);
-	return read1_io(IO_WD_DATA);
-}
-
-
-#define READ_AUX_STAT() read1_io(IO_WD_ASR)
-
-
-static inline void write_3393(struct IN2000_hostdata *hostdata, uchar reg_num, uchar value)
-{
-	write1_io(reg_num, IO_WD_ADDR);
-	write1_io(value, IO_WD_DATA);
-}
-
-
-static inline void write_3393_cmd(struct IN2000_hostdata *hostdata, uchar cmd)
-{
-/*   while (READ_AUX_STAT() & ASR_CIP)
-      printk("|");*/
-	write1_io(WD_COMMAND, IO_WD_ADDR);
-	write1_io(cmd, IO_WD_DATA);
-}
-
-
-static uchar read_1_byte(struct IN2000_hostdata *hostdata)
-{
-	uchar asr, x = 0;
-
-	write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_POLLED);
-	write_3393_cmd(hostdata, WD_CMD_TRANS_INFO | 0x80);
-	do {
-		asr = READ_AUX_STAT();
-		if (asr & ASR_DBR)
-			x = read_3393(hostdata, WD_DATA);
-	} while (!(asr & ASR_INT));
-	return x;
-}
-
-
-static void write_3393_count(struct IN2000_hostdata *hostdata, unsigned long value)
-{
-	write1_io(WD_TRANSFER_COUNT_MSB, IO_WD_ADDR);
-	write1_io((value >> 16), IO_WD_DATA);
-	write1_io((value >> 8), IO_WD_DATA);
-	write1_io(value, IO_WD_DATA);
-}
-
-
-static unsigned long read_3393_count(struct IN2000_hostdata *hostdata)
-{
-	unsigned long value;
-
-	write1_io(WD_TRANSFER_COUNT_MSB, IO_WD_ADDR);
-	value = read1_io(IO_WD_DATA) << 16;
-	value |= read1_io(IO_WD_DATA) << 8;
-	value |= read1_io(IO_WD_DATA);
-	return value;
-}
-
-
-/* The 33c93 needs to be told which direction a command transfers its
- * data; we use this function to figure it out. Returns true if there
- * will be a DATA_OUT phase with this command, false otherwise.
- * (Thanks to Joerg Dorchain for the research and suggestion.)
- */
-static int is_dir_out(Scsi_Cmnd * cmd)
-{
-	switch (cmd->cmnd[0]) {
-	case WRITE_6:
-	case WRITE_10:
-	case WRITE_12:
-	case WRITE_LONG:
-	case WRITE_SAME:
-	case WRITE_BUFFER:
-	case WRITE_VERIFY:
-	case WRITE_VERIFY_12:
-	case COMPARE:
-	case COPY:
-	case COPY_VERIFY:
-	case SEARCH_EQUAL:
-	case SEARCH_HIGH:
-	case SEARCH_LOW:
-	case SEARCH_EQUAL_12:
-	case SEARCH_HIGH_12:
-	case SEARCH_LOW_12:
-	case FORMAT_UNIT:
-	case REASSIGN_BLOCKS:
-	case RESERVE:
-	case MODE_SELECT:
-	case MODE_SELECT_10:
-	case LOG_SELECT:
-	case SEND_DIAGNOSTIC:
-	case CHANGE_DEFINITION:
-	case UPDATE_BLOCK:
-	case SET_WINDOW:
-	case MEDIUM_SCAN:
-	case SEND_VOLUME_TAG:
-	case 0xea:
-		return 1;
-	default:
-		return 0;
-	}
-}
-
-
-
-static struct sx_period sx_table[] = {
-	{1, 0x20},
-	{252, 0x20},
-	{376, 0x30},
-	{500, 0x40},
-	{624, 0x50},
-	{752, 0x60},
-	{876, 0x70},
-	{1000, 0x00},
-	{0, 0}
-};
-
-static int round_period(unsigned int period)
-{
-	int x;
-
-	for (x = 1; sx_table[x].period_ns; x++) {
-		if ((period <= sx_table[x - 0].period_ns) && (period > sx_table[x - 1].period_ns)) {
-			return x;
-		}
-	}
-	return 7;
-}
-
-static uchar calc_sync_xfer(unsigned int period, unsigned int offset)
-{
-	uchar result;
-
-	period *= 4;		/* convert SDTR code to ns */
-	result = sx_table[round_period(period)].reg_value;
-	result |= (offset < OPTIMUM_SX_OFF) ? offset : OPTIMUM_SX_OFF;
-	return result;
-}
-
-
-
-static void in2000_execute(struct Scsi_Host *instance);
-
-static int in2000_queuecommand_lck(Scsi_Cmnd * cmd, void (*done) (Scsi_Cmnd *))
-{
-	struct Scsi_Host *instance;
-	struct IN2000_hostdata *hostdata;
-	Scsi_Cmnd *tmp;
-
-	instance = cmd->device->host;
-	hostdata = (struct IN2000_hostdata *) instance->hostdata;
-
-	DB(DB_QUEUE_COMMAND, scmd_printk(KERN_DEBUG, cmd, "Q-%02x(", cmd->cmnd[0]))
-
-/* Set up a few fields in the Scsi_Cmnd structure for our own use:
- *  - host_scribble is the pointer to the next cmd in the input queue
- *  - scsi_done points to the routine we call when a cmd is finished
- *  - result is what you'd expect
- */
-	    cmd->host_scribble = NULL;
-	cmd->scsi_done = done;
-	cmd->result = 0;
-
-/* We use the Scsi_Pointer structure that's included with each command
- * as a scratchpad (as it's intended to be used!). The handy thing about
- * the SCp.xxx fields is that they're always associated with a given
- * cmd, and are preserved across disconnect-reselect. This means we
- * can pretty much ignore SAVE_POINTERS and RESTORE_POINTERS messages
- * if we keep all the critical pointers and counters in SCp:
- *  - SCp.ptr is the pointer into the RAM buffer
- *  - SCp.this_residual is the size of that buffer
- *  - SCp.buffer points to the current scatter-gather buffer
- *  - SCp.buffers_residual tells us how many S.G. buffers there are
- *  - SCp.have_data_in helps keep track of >2048 byte transfers
- *  - SCp.sent_command is not used
- *  - SCp.phase records this command's SRCID_ER bit setting
- */
-
-	if (scsi_bufflen(cmd)) {
-		cmd->SCp.buffer = scsi_sglist(cmd);
-		cmd->SCp.buffers_residual = scsi_sg_count(cmd) - 1;
-		cmd->SCp.ptr = sg_virt(cmd->SCp.buffer);
-		cmd->SCp.this_residual = cmd->SCp.buffer->length;
-	} else {
-		cmd->SCp.buffer = NULL;
-		cmd->SCp.buffers_residual = 0;
-		cmd->SCp.ptr = NULL;
-		cmd->SCp.this_residual = 0;
-	}
-	cmd->SCp.have_data_in = 0;
-
-/* We don't set SCp.phase here - that's done in in2000_execute() */
-
-/* WD docs state that at the conclusion of a "LEVEL2" command, the
- * status byte can be retrieved from the LUN register. Apparently,
- * this is the case only for *uninterrupted* LEVEL2 commands! If
- * there are any unexpected phases entered, even if they are 100%
- * legal (different devices may choose to do things differently),
- * the LEVEL2 command sequence is exited. This often occurs prior
- * to receiving the status byte, in which case the driver does a
- * status phase interrupt and gets the status byte on its own.
- * While such a command can then be "resumed" (ie restarted to
- * finish up as a LEVEL2 command), the LUN register will NOT be
- * a valid status byte at the command's conclusion, and we must
- * use the byte obtained during the earlier interrupt. Here, we
- * preset SCp.Status to an illegal value (0xff) so that when
- * this command finally completes, we can tell where the actual
- * status byte is stored.
- */
-
-	cmd->SCp.Status = ILLEGAL_STATUS_BYTE;
-
-/* We need to disable interrupts before messing with the input
- * queue and calling in2000_execute().
- */
-
-	/*
-	 * Add the cmd to the end of 'input_Q'. Note that REQUEST_SENSE
-	 * commands are added to the head of the queue so that the desired
-	 * sense data is not lost before REQUEST_SENSE executes.
-	 */
-
-	if (!(hostdata->input_Q) || (cmd->cmnd[0] == REQUEST_SENSE)) {
-		cmd->host_scribble = (uchar *) hostdata->input_Q;
-		hostdata->input_Q = cmd;
-	} else {		/* find the end of the queue */
-		for (tmp = (Scsi_Cmnd *) hostdata->input_Q; tmp->host_scribble; tmp = (Scsi_Cmnd *) tmp->host_scribble);
-		tmp->host_scribble = (uchar *) cmd;
-	}
-
-/* We know that there's at least one command in 'input_Q' now.
- * Go see if any of them are runnable!
- */
-
-	in2000_execute(cmd->device->host);
-
-	DB(DB_QUEUE_COMMAND, printk(")Q "))
-	    return 0;
-}
-
-static DEF_SCSI_QCMD(in2000_queuecommand)
-
-
-
-/*
- * This routine attempts to start a scsi command. If the host_card is
- * already connected, we give up immediately. Otherwise, look through
- * the input_Q, using the first command we find that's intended
- * for a currently non-busy target/lun.
- * Note that this function is always called with interrupts already
- * disabled (either from in2000_queuecommand() or in2000_intr()).
- */
-static void in2000_execute(struct Scsi_Host *instance)
-{
-	struct IN2000_hostdata *hostdata;
-	Scsi_Cmnd *cmd, *prev;
-	int i;
-	unsigned short *sp;
-	unsigned short f;
-	unsigned short flushbuf[16];
-
-
-	hostdata = (struct IN2000_hostdata *) instance->hostdata;
-
-	DB(DB_EXECUTE, printk("EX("))
-
-	    if (hostdata->selecting || hostdata->connected) {
-
-		DB(DB_EXECUTE, printk(")EX-0 "))
-
-		    return;
-	}
-
-	/*
-	 * Search through the input_Q for a command destined
-	 * for an idle target/lun.
-	 */
-
-	cmd = (Scsi_Cmnd *) hostdata->input_Q;
-	prev = NULL;
-	while (cmd) {
-		if (!(hostdata->busy[cmd->device->id] & (1 << cmd->device->lun)))
-			break;
-		prev = cmd;
-		cmd = (Scsi_Cmnd *) cmd->host_scribble;
-	}
-
-	/* quit if queue empty or all possible targets are busy */
-
-	if (!cmd) {
-
-		DB(DB_EXECUTE, printk(")EX-1 "))
-
-		    return;
-	}
-
-	/*  remove command from queue */
-
-	if (prev)
-		prev->host_scribble = cmd->host_scribble;
-	else
-		hostdata->input_Q = (Scsi_Cmnd *) cmd->host_scribble;
-
-#ifdef PROC_STATISTICS
-	hostdata->cmd_cnt[cmd->device->id]++;
-#endif
-
-/*
- * Start the selection process
- */
-
-	if (is_dir_out(cmd))
-		write_3393(hostdata, WD_DESTINATION_ID, cmd->device->id);
-	else
-		write_3393(hostdata, WD_DESTINATION_ID, cmd->device->id | DSTID_DPD);
-
-/* Now we need to figure out whether or not this command is a good
- * candidate for disconnect/reselect. We guess to the best of our
- * ability, based on a set of hierarchical rules. When several
- * devices are operating simultaneously, disconnects are usually
- * an advantage. In a single device system, or if only 1 device
- * is being accessed, transfers usually go faster if disconnects
- * are not allowed:
- *
- * + Commands should NEVER disconnect if hostdata->disconnect =
- *   DIS_NEVER (this holds for tape drives also), and ALWAYS
- *   disconnect if hostdata->disconnect = DIS_ALWAYS.
- * + Tape drive commands should always be allowed to disconnect.
- * + Disconnect should be allowed if disconnected_Q isn't empty.
- * + Commands should NOT disconnect if input_Q is empty.
- * + Disconnect should be allowed if there are commands in input_Q
- *   for a different target/lun. In this case, the other commands
- *   should be made disconnect-able, if not already.
- *
- * I know, I know - this code would flunk me out of any
- * "C Programming 101" class ever offered. But it's easy
- * to change around and experiment with for now.
- */
-
-	cmd->SCp.phase = 0;	/* assume no disconnect */
-	if (hostdata->disconnect == DIS_NEVER)
-		goto no;
-	if (hostdata->disconnect == DIS_ALWAYS)
-		goto yes;
-	if (cmd->device->type == 1)	/* tape drive? */
-		goto yes;
-	if (hostdata->disconnected_Q)	/* other commands disconnected? */
-		goto yes;
-	if (!(hostdata->input_Q))	/* input_Q empty? */
-		goto no;
-	for (prev = (Scsi_Cmnd *) hostdata->input_Q; prev; prev = (Scsi_Cmnd *) prev->host_scribble) {
-		if ((prev->device->id != cmd->device->id) || (prev->device->lun != cmd->device->lun)) {
-			for (prev = (Scsi_Cmnd *) hostdata->input_Q; prev; prev = (Scsi_Cmnd *) prev->host_scribble)
-				prev->SCp.phase = 1;
-			goto yes;
-		}
-	}
-	goto no;
-
-      yes:
-	cmd->SCp.phase = 1;
-
-#ifdef PROC_STATISTICS
-	hostdata->disc_allowed_cnt[cmd->device->id]++;
-#endif
-
-      no:
-	write_3393(hostdata, WD_SOURCE_ID, ((cmd->SCp.phase) ? SRCID_ER : 0));
-
-	write_3393(hostdata, WD_TARGET_LUN, cmd->device->lun);
-	write_3393(hostdata, WD_SYNCHRONOUS_TRANSFER, hostdata->sync_xfer[cmd->device->id]);
-	hostdata->busy[cmd->device->id] |= (1 << cmd->device->lun);
-
-	if ((hostdata->level2 <= L2_NONE) || (hostdata->sync_stat[cmd->device->id] == SS_UNSET)) {
-
-		/*
-		 * Do a 'Select-With-ATN' command. This will end with
-		 * one of the following interrupts:
-		 *    CSR_RESEL_AM:  failure - can try again later.
-		 *    CSR_TIMEOUT:   failure - give up.
-		 *    CSR_SELECT:    success - proceed.
-		 */
-
-		hostdata->selecting = cmd;
-
-/* Every target has its own synchronous transfer setting, kept in
- * the sync_xfer array, and a corresponding status byte in sync_stat[].
- * Each target's sync_stat[] entry is initialized to SS_UNSET, and its
- * sync_xfer[] entry is initialized to the default/safe value. SS_UNSET
- * means that the parameters are undetermined as yet, and that we
- * need to send an SDTR message to this device after selection is
- * complete. We set SS_FIRST to tell the interrupt routine to do so,
- * unless we don't want to even _try_ synchronous transfers: In this
- * case we set SS_SET to make the defaults final.
- */
-		if (hostdata->sync_stat[cmd->device->id] == SS_UNSET) {
-			if (hostdata->sync_off & (1 << cmd->device->id))
-				hostdata->sync_stat[cmd->device->id] = SS_SET;
-			else
-				hostdata->sync_stat[cmd->device->id] = SS_FIRST;
-		}
-		hostdata->state = S_SELECTING;
-		write_3393_count(hostdata, 0);	/* this guarantees a DATA_PHASE interrupt */
-		write_3393_cmd(hostdata, WD_CMD_SEL_ATN);
-	}
-
-	else {
-
-		/*
-		 * Do a 'Select-With-ATN-Xfer' command. This will end with
-		 * one of the following interrupts:
-		 *    CSR_RESEL_AM:  failure - can try again later.
-		 *    CSR_TIMEOUT:   failure - give up.
-		 *    anything else: success - proceed.
-		 */
-
-		hostdata->connected = cmd;
-		write_3393(hostdata, WD_COMMAND_PHASE, 0);
-
-		/* copy command_descriptor_block into WD chip
-		 * (take advantage of auto-incrementing)
-		 */
-
-		write1_io(WD_CDB_1, IO_WD_ADDR);
-		for (i = 0; i < cmd->cmd_len; i++)
-			write1_io(cmd->cmnd[i], IO_WD_DATA);
-
-		/* The wd33c93 only knows about Group 0, 1, and 5 commands when
-		 * it's doing a 'select-and-transfer'. To be safe, we write the
-		 * size of the CDB into the OWN_ID register for every case. This
-		 * way there won't be problems with vendor-unique, audio, etc.
-		 */
-
-		write_3393(hostdata, WD_OWN_ID, cmd->cmd_len);
-
-		/* When doing a non-disconnect command, we can save ourselves a DATA
-		 * phase interrupt later by setting everything up now. With writes we
-		 * need to pre-fill the fifo; if there's room for the 32 flush bytes,
-		 * put them in there too - that'll avoid a fifo interrupt. Reads are
-		 * somewhat simpler.
-		 * KLUDGE NOTE: It seems that you can't completely fill the fifo here:
-		 * This results in the IO_FIFO_COUNT register rolling over to zero,
-		 * and apparently the gate array logic sees this as empty, not full,
-		 * so the 3393 chip is never signalled to start reading from the
-		 * fifo. Or maybe it's seen as a permanent fifo interrupt condition.
-		 * Regardless, we fix this by temporarily pretending that the fifo
-		 * is 16 bytes smaller. (I see now that the old driver has a comment
-		 * about "don't fill completely" in an analogous place - must be the
-		 * same deal.) This results in CDROM, swap partitions, and tape drives
-		 * needing an extra interrupt per write command - I think we can live
-		 * with that!
-		 */
-
-		if (!(cmd->SCp.phase)) {
-			write_3393_count(hostdata, cmd->SCp.this_residual);
-			write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_BUS);
-			write1_io(0, IO_FIFO_WRITE);	/* clear fifo counter, write mode */
-
-			if (is_dir_out(cmd)) {
-				hostdata->fifo = FI_FIFO_WRITING;
-				if ((i = cmd->SCp.this_residual) > (IN2000_FIFO_SIZE - 16))
-					i = IN2000_FIFO_SIZE - 16;
-				cmd->SCp.have_data_in = i;	/* this much data in fifo */
-				i >>= 1;	/* Gulp. Assuming modulo 2. */
-				sp = (unsigned short *) cmd->SCp.ptr;
-				f = hostdata->io_base + IO_FIFO;
-
-#ifdef FAST_WRITE_IO
-
-				FAST_WRITE2_IO();
-#else
-				while (i--)
-					write2_io(*sp++, IO_FIFO);
-
-#endif
-
-				/* Is there room for the flush bytes? */
-
-				if (cmd->SCp.have_data_in <= ((IN2000_FIFO_SIZE - 16) - 32)) {
-					sp = flushbuf;
-					i = 16;
-
-#ifdef FAST_WRITE_IO
-
-					FAST_WRITE2_IO();
-#else
-					while (i--)
-						write2_io(0, IO_FIFO);
-
-#endif
-
-				}
-			}
-
-			else {
-				write1_io(0, IO_FIFO_READ);	/* put fifo in read mode */
-				hostdata->fifo = FI_FIFO_READING;
-				cmd->SCp.have_data_in = 0;	/* nothing transferred yet */
-			}
-
-		} else {
-			write_3393_count(hostdata, 0);	/* this guarantees a DATA_PHASE interrupt */
-		}
-		hostdata->state = S_RUNNING_LEVEL2;
-		write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-	}
-
-	/*
-	 * Since the SCSI bus can handle only 1 connection at a time,
-	 * we get out of here now. If the selection fails, or when
-	 * the command disconnects, we'll come back to this routine
-	 * to search the input_Q again...
-	 */
-
-	DB(DB_EXECUTE, printk("%s)EX-2 ", (cmd->SCp.phase) ? "d:" : ""))
-
-}
-
-
-
-static void transfer_pio(uchar * buf, int cnt, int data_in_dir, struct IN2000_hostdata *hostdata)
-{
-	uchar asr;
-
-	DB(DB_TRANSFER, printk("(%p,%d,%s)", buf, cnt, data_in_dir ? "in" : "out"))
-
-	    write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_POLLED);
-	write_3393_count(hostdata, cnt);
-	write_3393_cmd(hostdata, WD_CMD_TRANS_INFO);
-	if (data_in_dir) {
-		do {
-			asr = READ_AUX_STAT();
-			if (asr & ASR_DBR)
-				*buf++ = read_3393(hostdata, WD_DATA);
-		} while (!(asr & ASR_INT));
-	} else {
-		do {
-			asr = READ_AUX_STAT();
-			if (asr & ASR_DBR)
-				write_3393(hostdata, WD_DATA, *buf++);
-		} while (!(asr & ASR_INT));
-	}
-
-	/* Note: we are returning with the interrupt UN-cleared.
-	 * Since (presumably) an entire I/O operation has
-	 * completed, the bus phase is probably different, and
-	 * the interrupt routine will discover this when it
-	 * responds to the uncleared int.
-	 */
-
-}
-
-
-
-static void transfer_bytes(Scsi_Cmnd * cmd, int data_in_dir)
-{
-	struct IN2000_hostdata *hostdata;
-	unsigned short *sp;
-	unsigned short f;
-	int i;
-
-	hostdata = (struct IN2000_hostdata *) cmd->device->host->hostdata;
-
-/* Normally, you'd expect 'this_residual' to be non-zero here.
- * In a series of scatter-gather transfers, however, this
- * routine will usually be called with 'this_residual' equal
- * to 0 and 'buffers_residual' non-zero. This means that a
- * previous transfer completed, clearing 'this_residual', and
- * now we need to setup the next scatter-gather buffer as the
- * source or destination for THIS transfer.
- */
-	if (!cmd->SCp.this_residual && cmd->SCp.buffers_residual) {
-		++cmd->SCp.buffer;
-		--cmd->SCp.buffers_residual;
-		cmd->SCp.this_residual = cmd->SCp.buffer->length;
-		cmd->SCp.ptr = sg_virt(cmd->SCp.buffer);
-	}
-
-/* Set up hardware registers */
-
-	write_3393(hostdata, WD_SYNCHRONOUS_TRANSFER, hostdata->sync_xfer[cmd->device->id]);
-	write_3393_count(hostdata, cmd->SCp.this_residual);
-	write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_BUS);
-	write1_io(0, IO_FIFO_WRITE);	/* zero counter, assume write */
-
-/* Reading is easy. Just issue the command and return - we'll
- * get an interrupt later when we have actual data to worry about.
- */
-
-	if (data_in_dir) {
-		write1_io(0, IO_FIFO_READ);
-		if ((hostdata->level2 >= L2_DATA) || (hostdata->level2 == L2_BASIC && cmd->SCp.phase == 0)) {
-			write_3393(hostdata, WD_COMMAND_PHASE, 0x45);
-			write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-			hostdata->state = S_RUNNING_LEVEL2;
-		} else
-			write_3393_cmd(hostdata, WD_CMD_TRANS_INFO);
-		hostdata->fifo = FI_FIFO_READING;
-		cmd->SCp.have_data_in = 0;
-		return;
-	}
-
-/* Writing is more involved - we'll start the WD chip and write as
- * much data to the fifo as we can right now. Later interrupts will
- * write any bytes that don't make it at this stage.
- */
-
-	if ((hostdata->level2 >= L2_DATA) || (hostdata->level2 == L2_BASIC && cmd->SCp.phase == 0)) {
-		write_3393(hostdata, WD_COMMAND_PHASE, 0x45);
-		write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-		hostdata->state = S_RUNNING_LEVEL2;
-	} else
-		write_3393_cmd(hostdata, WD_CMD_TRANS_INFO);
-	hostdata->fifo = FI_FIFO_WRITING;
-	sp = (unsigned short *) cmd->SCp.ptr;
-
-	if ((i = cmd->SCp.this_residual) > IN2000_FIFO_SIZE)
-		i = IN2000_FIFO_SIZE;
-	cmd->SCp.have_data_in = i;
-	i >>= 1;		/* Gulp. We assume this_residual is modulo 2 */
-	f = hostdata->io_base + IO_FIFO;
-
-#ifdef FAST_WRITE_IO
-
-	FAST_WRITE2_IO();
-#else
-	while (i--)
-		write2_io(*sp++, IO_FIFO);
-
-#endif
-
-}
-
-
-/* We need to use spin_lock_irqsave() & spin_unlock_irqrestore() in this
- * function in order to work in an SMP environment. (I'd be surprised
- * if the driver is ever used by anyone on a real multi-CPU motherboard,
- * but it _does_ need to be able to compile and run in an SMP kernel.)
- */
-
-static irqreturn_t in2000_intr(int irqnum, void *dev_id)
-{
-	struct Scsi_Host *instance = dev_id;
-	struct IN2000_hostdata *hostdata;
-	Scsi_Cmnd *patch, *cmd;
-	uchar asr, sr, phs, id, lun, *ucp, msg;
-	int i, j;
-	unsigned long length;
-	unsigned short *sp;
-	unsigned short f;
-	unsigned long flags;
-
-	hostdata = (struct IN2000_hostdata *) instance->hostdata;
-
-/* Get the spin_lock and disable further ints, for SMP */
-
-	spin_lock_irqsave(instance->host_lock, flags);
-
-#ifdef PROC_STATISTICS
-	hostdata->int_cnt++;
-#endif
-
-/* The IN2000 card has 2 interrupt sources OR'ed onto its IRQ line - the
- * WD3393 chip and the 2k fifo (which is actually a dual-port RAM combined
- * with a big logic array, so it's a little different than what you might
- * expect). As far as I know, there's no reason that BOTH can't be active
- * at the same time, but there's a problem: while we can read the 3393
- * to tell if _it_ wants an interrupt, I don't know of a way to ask the
- * fifo the same question. The best we can do is check the 3393 and if
- * it _isn't_ the source of the interrupt, then we can be pretty sure
- * that the fifo is the culprit.
- *  UPDATE: I have it on good authority (Bill Earnest) that bit 0 of the
- *          IO_FIFO_COUNT register mirrors the fifo interrupt state. I
- *          assume that bit clear means interrupt active. As it turns
- *          out, the driver really doesn't need to check for this after
- *          all, so my remarks above about a 'problem' can safely be
- *          ignored. The way the logic is set up, there's no advantage
- *          (that I can see) to worrying about it.
- *
- * It seems that the fifo interrupt signal is negated when we extract
- * bytes during read or write bytes during write.
- *  - fifo will interrupt when data is moving from it to the 3393, and
- *    there are 31 (or less?) bytes left to go. This is sort of short-
- *    sighted: what if you don't WANT to do more? In any case, our
- *    response is to push more into the fifo - either actual data or
- *    dummy bytes if need be. Note that we apparently have to write at
- *    least 32 additional bytes to the fifo after an interrupt in order
- *    to get it to release the ones it was holding on to - writing fewer
- *    than 32 will result in another fifo int.
- *  UPDATE: Again, info from Bill Earnest makes this more understandable:
- *          32 bytes = two counts of the fifo counter register. He tells
- *          me that the fifo interrupt is a non-latching signal derived
- *          from a straightforward boolean interpretation of the 7
- *          highest bits of the fifo counter and the fifo-read/fifo-write
- *          state. Who'd a thought?
- */
-
-	write1_io(0, IO_LED_ON);
-	asr = READ_AUX_STAT();
-	if (!(asr & ASR_INT)) {	/* no WD33c93 interrupt? */
-
-/* Ok. This is definitely a FIFO-only interrupt.
- *
- * If FI_FIFO_READING is set, there are up to 2048 bytes waiting to be read,
- * maybe more to come from the SCSI bus. Read as many as we can out of the
- * fifo and into memory at the location of SCp.ptr[SCp.have_data_in], and
- * update have_data_in afterwards.
- *
- * If we have FI_FIFO_WRITING, the FIFO has almost run out of bytes to move
- * into the WD3393 chip (I think the interrupt happens when there are 31
- * bytes left, but it may be fewer...). The 3393 is still waiting, so we
- * shove some more into the fifo, which gets things moving again. If the
- * original SCSI command specified more than 2048 bytes, there may still
- * be some of that data left: fine - use it (from SCp.ptr[SCp.have_data_in]).
- * Don't forget to update have_data_in. If we've already written out the
- * entire buffer, feed 32 dummy bytes to the fifo - they're needed to
- * push out the remaining real data.
- *    (Big thanks to Bill Earnest for getting me out of the mud in here.)
- */
-
-		cmd = (Scsi_Cmnd *) hostdata->connected;	/* assume we're connected */
-		CHECK_NULL(cmd, "fifo_int")
-
-		    if (hostdata->fifo == FI_FIFO_READING) {
-
-			DB(DB_FIFO, printk("{R:%02x} ", read1_io(IO_FIFO_COUNT)))
-
-			    sp = (unsigned short *) (cmd->SCp.ptr + cmd->SCp.have_data_in);
-			i = read1_io(IO_FIFO_COUNT) & 0xfe;
-			i <<= 2;	/* # of words waiting in the fifo */
-			f = hostdata->io_base + IO_FIFO;
-
-#ifdef FAST_READ_IO
-
-			FAST_READ2_IO();
-#else
-			while (i--)
-				*sp++ = read2_io(IO_FIFO);
-
-#endif
-
-			i = sp - (unsigned short *) (cmd->SCp.ptr + cmd->SCp.have_data_in);
-			i <<= 1;
-			cmd->SCp.have_data_in += i;
-		}
-
-		else if (hostdata->fifo == FI_FIFO_WRITING) {
-
-			DB(DB_FIFO, printk("{W:%02x} ", read1_io(IO_FIFO_COUNT)))
-
-/* If all bytes have been written to the fifo, flush out the stragglers.
- * Note that while writing 16 dummy words seems arbitrary, we don't
- * have another choice that I can see. What we really want is to read
- * the 3393 transfer count register (that would tell us how many bytes
- * needed flushing), but the TRANSFER_INFO command hasn't completed
- * yet (not enough bytes!) and that register won't be accessible. So,
- * we use 16 words - a number obtained through trial and error.
- *  UPDATE: Bill says this is exactly what Always does, so there.
- *          More thanks due him for help in this section.
- */
-			    if (cmd->SCp.this_residual == cmd->SCp.have_data_in) {
-				i = 16;
-				while (i--)	/* write 32 dummy bytes */
-					write2_io(0, IO_FIFO);
-			}
-
-/* If there are still bytes left in the SCSI buffer, write as many as we
- * can out to the fifo.
- */
-
-			else {
-				sp = (unsigned short *) (cmd->SCp.ptr + cmd->SCp.have_data_in);
-				i = cmd->SCp.this_residual - cmd->SCp.have_data_in;	/* bytes yet to go */
-				j = read1_io(IO_FIFO_COUNT) & 0xfe;
-				j <<= 2;	/* how many words the fifo has room for */
-				if ((j << 1) > i)
-					j = (i >> 1);
-				while (j--)
-					write2_io(*sp++, IO_FIFO);
-
-				i = sp - (unsigned short *) (cmd->SCp.ptr + cmd->SCp.have_data_in);
-				i <<= 1;
-				cmd->SCp.have_data_in += i;
-			}
-		}
-
-		else {
-			printk("*** Spurious FIFO interrupt ***");
-		}
-
-		write1_io(0, IO_LED_OFF);
-
-/* release the SMP spin_lock and restore irq state */
-		spin_unlock_irqrestore(instance->host_lock, flags);
-		return IRQ_HANDLED;
-	}
-
-/* This interrupt was triggered by the WD33c93 chip. The fifo interrupt
- * may also be asserted, but we don't bother to check it: we get more
- * detailed info from FIFO_READING and FIFO_WRITING (see below).
- */
-
-	cmd = (Scsi_Cmnd *) hostdata->connected;	/* assume we're connected */
-	sr = read_3393(hostdata, WD_SCSI_STATUS);	/* clear the interrupt */
-	phs = read_3393(hostdata, WD_COMMAND_PHASE);
-
-	if (!cmd && (sr != CSR_RESEL_AM && sr != CSR_TIMEOUT && sr != CSR_SELECT)) {
-		printk("\nNR:wd-intr-1\n");
-		write1_io(0, IO_LED_OFF);
-
-/* release the SMP spin_lock and restore irq state */
-		spin_unlock_irqrestore(instance->host_lock, flags);
-		return IRQ_HANDLED;
-	}
-
-	DB(DB_INTR, printk("{%02x:%02x-", asr, sr))
-
-/* After starting a FIFO-based transfer, the next _WD3393_ interrupt is
- * guaranteed to be in response to the completion of the transfer.
- * If we were reading, there's probably data in the fifo that needs
- * to be copied into RAM - do that here. Also, we have to update
- * 'this_residual' and 'ptr' based on the contents of the
- * TRANSFER_COUNT register, in case the device decided to do an
- * intermediate disconnect (a device may do this if it has to
- * do a seek,  or just to be nice and let other devices have
- * some bus time during long transfers).
- * After doing whatever is necessary with the fifo, we go on and
- * service the WD3393 interrupt normally.
- */
-	    if (hostdata->fifo == FI_FIFO_READING) {
-
-/* buffer index = start-of-buffer + #-of-bytes-already-read */
-
-		sp = (unsigned short *) (cmd->SCp.ptr + cmd->SCp.have_data_in);
-
-/* bytes remaining in fifo = (total-wanted - #-not-got) - #-already-read */
-
-		i = (cmd->SCp.this_residual - read_3393_count(hostdata)) - cmd->SCp.have_data_in;
-		i >>= 1;	/* Gulp. We assume this will always be modulo 2 */
-		f = hostdata->io_base + IO_FIFO;
-
-#ifdef FAST_READ_IO
-
-		FAST_READ2_IO();
-#else
-		while (i--)
-			*sp++ = read2_io(IO_FIFO);
-
-#endif
-
-		hostdata->fifo = FI_FIFO_UNUSED;
-		length = cmd->SCp.this_residual;
-		cmd->SCp.this_residual = read_3393_count(hostdata);
-		cmd->SCp.ptr += (length - cmd->SCp.this_residual);
-
-		DB(DB_TRANSFER, printk("(%p,%d)", cmd->SCp.ptr, cmd->SCp.this_residual))
-
-	}
-
-	else if (hostdata->fifo == FI_FIFO_WRITING) {
-		hostdata->fifo = FI_FIFO_UNUSED;
-		length = cmd->SCp.this_residual;
-		cmd->SCp.this_residual = read_3393_count(hostdata);
-		cmd->SCp.ptr += (length - cmd->SCp.this_residual);
-
-		DB(DB_TRANSFER, printk("(%p,%d)", cmd->SCp.ptr, cmd->SCp.this_residual))
-
-	}
-
-/* Respond to the specific WD3393 interrupt - there are quite a few! */
-
-	switch (sr) {
-
-	case CSR_TIMEOUT:
-		DB(DB_INTR, printk("TIMEOUT"))
-
-		    if (hostdata->state == S_RUNNING_LEVEL2)
-			hostdata->connected = NULL;
-		else {
-			cmd = (Scsi_Cmnd *) hostdata->selecting;	/* get a valid cmd */
-			CHECK_NULL(cmd, "csr_timeout")
-			    hostdata->selecting = NULL;
-		}
-
-		cmd->result = DID_NO_CONNECT << 16;
-		hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-		hostdata->state = S_UNCONNECTED;
-		cmd->scsi_done(cmd);
-
-/* We are not connected to a target - check to see if there
- * are commands waiting to be executed.
- */
-
-		in2000_execute(instance);
-		break;
-
-
-/* Note: this interrupt should not occur in a LEVEL2 command */
-
-	case CSR_SELECT:
-		DB(DB_INTR, printk("SELECT"))
-		    hostdata->connected = cmd = (Scsi_Cmnd *) hostdata->selecting;
-		CHECK_NULL(cmd, "csr_select")
-		    hostdata->selecting = NULL;
-
-		/* construct an IDENTIFY message with correct disconnect bit */
-
-		hostdata->outgoing_msg[0] = (0x80 | 0x00 | cmd->device->lun);
-		if (cmd->SCp.phase)
-			hostdata->outgoing_msg[0] |= 0x40;
-
-		if (hostdata->sync_stat[cmd->device->id] == SS_FIRST) {
-#ifdef SYNC_DEBUG
-			printk(" sending SDTR ");
-#endif
-
-			hostdata->sync_stat[cmd->device->id] = SS_WAITING;
-
-			/* tack on a 2nd message to ask about synchronous transfers */
-
-			hostdata->outgoing_msg[1] = EXTENDED_MESSAGE;
-			hostdata->outgoing_msg[2] = 3;
-			hostdata->outgoing_msg[3] = EXTENDED_SDTR;
-			hostdata->outgoing_msg[4] = OPTIMUM_SX_PER / 4;
-			hostdata->outgoing_msg[5] = OPTIMUM_SX_OFF;
-			hostdata->outgoing_len = 6;
-		} else
-			hostdata->outgoing_len = 1;
-
-		hostdata->state = S_CONNECTED;
-		break;
-
-
-	case CSR_XFER_DONE | PHS_DATA_IN:
-	case CSR_UNEXP | PHS_DATA_IN:
-	case CSR_SRV_REQ | PHS_DATA_IN:
-		DB(DB_INTR, printk("IN-%d.%d", cmd->SCp.this_residual, cmd->SCp.buffers_residual))
-		    transfer_bytes(cmd, DATA_IN_DIR);
-		if (hostdata->state != S_RUNNING_LEVEL2)
-			hostdata->state = S_CONNECTED;
-		break;
-
-
-	case CSR_XFER_DONE | PHS_DATA_OUT:
-	case CSR_UNEXP | PHS_DATA_OUT:
-	case CSR_SRV_REQ | PHS_DATA_OUT:
-		DB(DB_INTR, printk("OUT-%d.%d", cmd->SCp.this_residual, cmd->SCp.buffers_residual))
-		    transfer_bytes(cmd, DATA_OUT_DIR);
-		if (hostdata->state != S_RUNNING_LEVEL2)
-			hostdata->state = S_CONNECTED;
-		break;
-
-
-/* Note: this interrupt should not occur in a LEVEL2 command */
-
-	case CSR_XFER_DONE | PHS_COMMAND:
-	case CSR_UNEXP | PHS_COMMAND:
-	case CSR_SRV_REQ | PHS_COMMAND:
-		DB(DB_INTR, printk("CMND-%02x", cmd->cmnd[0]))
-		    transfer_pio(cmd->cmnd, cmd->cmd_len, DATA_OUT_DIR, hostdata);
-		hostdata->state = S_CONNECTED;
-		break;
-
-
-	case CSR_XFER_DONE | PHS_STATUS:
-	case CSR_UNEXP | PHS_STATUS:
-	case CSR_SRV_REQ | PHS_STATUS:
-		DB(DB_INTR, printk("STATUS="))
-
-		    cmd->SCp.Status = read_1_byte(hostdata);
-		DB(DB_INTR, printk("%02x", cmd->SCp.Status))
-		    if (hostdata->level2 >= L2_BASIC) {
-			sr = read_3393(hostdata, WD_SCSI_STATUS);	/* clear interrupt */
-			hostdata->state = S_RUNNING_LEVEL2;
-			write_3393(hostdata, WD_COMMAND_PHASE, 0x50);
-			write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-		} else {
-			hostdata->state = S_CONNECTED;
-		}
-		break;
-
-
-	case CSR_XFER_DONE | PHS_MESS_IN:
-	case CSR_UNEXP | PHS_MESS_IN:
-	case CSR_SRV_REQ | PHS_MESS_IN:
-		DB(DB_INTR, printk("MSG_IN="))
-
-		    msg = read_1_byte(hostdata);
-		sr = read_3393(hostdata, WD_SCSI_STATUS);	/* clear interrupt */
-
-		hostdata->incoming_msg[hostdata->incoming_ptr] = msg;
-		if (hostdata->incoming_msg[0] == EXTENDED_MESSAGE)
-			msg = EXTENDED_MESSAGE;
-		else
-			hostdata->incoming_ptr = 0;
-
-		cmd->SCp.Message = msg;
-		switch (msg) {
-
-		case COMMAND_COMPLETE:
-			DB(DB_INTR, printk("CCMP"))
-			    write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-			hostdata->state = S_PRE_CMP_DISC;
-			break;
-
-		case SAVE_POINTERS:
-			DB(DB_INTR, printk("SDP"))
-			    write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-			hostdata->state = S_CONNECTED;
-			break;
-
-		case RESTORE_POINTERS:
-			DB(DB_INTR, printk("RDP"))
-			    if (hostdata->level2 >= L2_BASIC) {
-				write_3393(hostdata, WD_COMMAND_PHASE, 0x45);
-				write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-				hostdata->state = S_RUNNING_LEVEL2;
-			} else {
-				write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-				hostdata->state = S_CONNECTED;
-			}
-			break;
-
-		case DISCONNECT:
-			DB(DB_INTR, printk("DIS"))
-			    cmd->device->disconnect = 1;
-			write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-			hostdata->state = S_PRE_TMP_DISC;
-			break;
-
-		case MESSAGE_REJECT:
-			DB(DB_INTR, printk("REJ"))
-#ifdef SYNC_DEBUG
-			    printk("-REJ-");
-#endif
-			if (hostdata->sync_stat[cmd->device->id] == SS_WAITING)
-				hostdata->sync_stat[cmd->device->id] = SS_SET;
-			write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-			hostdata->state = S_CONNECTED;
-			break;
-
-		case EXTENDED_MESSAGE:
-			DB(DB_INTR, printk("EXT"))
-
-			    ucp = hostdata->incoming_msg;
-
-#ifdef SYNC_DEBUG
-			printk("%02x", ucp[hostdata->incoming_ptr]);
-#endif
-			/* Is this the last byte of the extended message? */
-
-			if ((hostdata->incoming_ptr >= 2) && (hostdata->incoming_ptr == (ucp[1] + 1))) {
-
-				switch (ucp[2]) {	/* what's the EXTENDED code? */
-				case EXTENDED_SDTR:
-					id = calc_sync_xfer(ucp[3], ucp[4]);
-					if (hostdata->sync_stat[cmd->device->id] != SS_WAITING) {
-
-/* A device has sent an unsolicited SDTR message; rather than go
- * through the effort of decoding it and then figuring out what
- * our reply should be, we're just gonna say that we have a
- * synchronous fifo depth of 0. This will result in asynchronous
- * transfers - not ideal but so much easier.
- * Actually, this is OK because it assures us that if we don't
- * specifically ask for sync transfers, we won't do any.
- */
-
-						write_3393_cmd(hostdata, WD_CMD_ASSERT_ATN);	/* want MESS_OUT */
-						hostdata->outgoing_msg[0] = EXTENDED_MESSAGE;
-						hostdata->outgoing_msg[1] = 3;
-						hostdata->outgoing_msg[2] = EXTENDED_SDTR;
-						hostdata->outgoing_msg[3] = hostdata->default_sx_per / 4;
-						hostdata->outgoing_msg[4] = 0;
-						hostdata->outgoing_len = 5;
-						hostdata->sync_xfer[cmd->device->id] = calc_sync_xfer(hostdata->default_sx_per / 4, 0);
-					} else {
-						hostdata->sync_xfer[cmd->device->id] = id;
-					}
-#ifdef SYNC_DEBUG
-					printk("sync_xfer=%02x", hostdata->sync_xfer[cmd->device->id]);
-#endif
-					hostdata->sync_stat[cmd->device->id] = SS_SET;
-					write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-					hostdata->state = S_CONNECTED;
-					break;
-				case EXTENDED_WDTR:
-					write_3393_cmd(hostdata, WD_CMD_ASSERT_ATN);	/* want MESS_OUT */
-					printk("sending WDTR ");
-					hostdata->outgoing_msg[0] = EXTENDED_MESSAGE;
-					hostdata->outgoing_msg[1] = 2;
-					hostdata->outgoing_msg[2] = EXTENDED_WDTR;
-					hostdata->outgoing_msg[3] = 0;	/* 8 bit transfer width */
-					hostdata->outgoing_len = 4;
-					write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-					hostdata->state = S_CONNECTED;
-					break;
-				default:
-					write_3393_cmd(hostdata, WD_CMD_ASSERT_ATN);	/* want MESS_OUT */
-					printk("Rejecting Unknown Extended Message(%02x). ", ucp[2]);
-					hostdata->outgoing_msg[0] = MESSAGE_REJECT;
-					hostdata->outgoing_len = 1;
-					write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-					hostdata->state = S_CONNECTED;
-					break;
-				}
-				hostdata->incoming_ptr = 0;
-			}
-
-			/* We need to read more MESS_IN bytes for the extended message */
-
-			else {
-				hostdata->incoming_ptr++;
-				write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-				hostdata->state = S_CONNECTED;
-			}
-			break;
-
-		default:
-			printk("Rejecting Unknown Message(%02x) ", msg);
-			write_3393_cmd(hostdata, WD_CMD_ASSERT_ATN);	/* want MESS_OUT */
-			hostdata->outgoing_msg[0] = MESSAGE_REJECT;
-			hostdata->outgoing_len = 1;
-			write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-			hostdata->state = S_CONNECTED;
-		}
-		break;
-
-
-/* Note: this interrupt will occur only after a LEVEL2 command */
-
-	case CSR_SEL_XFER_DONE:
-
-/* Make sure that reselection is enabled at this point - it may
- * have been turned off for the command that just completed.
- */
-
-		write_3393(hostdata, WD_SOURCE_ID, SRCID_ER);
-		if (phs == 0x60) {
-			DB(DB_INTR, printk("SX-DONE"))
-			    cmd->SCp.Message = COMMAND_COMPLETE;
-			lun = read_3393(hostdata, WD_TARGET_LUN);
-			DB(DB_INTR, printk(":%d.%d", cmd->SCp.Status, lun))
-			    hostdata->connected = NULL;
-			hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-			hostdata->state = S_UNCONNECTED;
-			if (cmd->SCp.Status == ILLEGAL_STATUS_BYTE)
-				cmd->SCp.Status = lun;
-			if (cmd->cmnd[0] == REQUEST_SENSE && cmd->SCp.Status != GOOD)
-				cmd->result = (cmd->result & 0x00ffff) | (DID_ERROR << 16);
-			else
-				cmd->result = cmd->SCp.Status | (cmd->SCp.Message << 8);
-			cmd->scsi_done(cmd);
-
-/* We are no longer connected to a target - check to see if
- * there are commands waiting to be executed.
- */
-
-			in2000_execute(instance);
-		} else {
-			printk("%02x:%02x:%02x: Unknown SEL_XFER_DONE phase!!---", asr, sr, phs);
-		}
-		break;
-
-
-/* Note: this interrupt will occur only after a LEVEL2 command */
-
-	case CSR_SDP:
-		DB(DB_INTR, printk("SDP"))
-		    hostdata->state = S_RUNNING_LEVEL2;
-		write_3393(hostdata, WD_COMMAND_PHASE, 0x41);
-		write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-		break;
-
-
-	case CSR_XFER_DONE | PHS_MESS_OUT:
-	case CSR_UNEXP | PHS_MESS_OUT:
-	case CSR_SRV_REQ | PHS_MESS_OUT:
-		DB(DB_INTR, printk("MSG_OUT="))
-
-/* To get here, we've probably requested MESSAGE_OUT and have
- * already put the correct bytes in outgoing_msg[] and filled
- * in outgoing_len. We simply send them out to the SCSI bus.
- * Sometimes we get MESSAGE_OUT phase when we're not expecting
- * it - like when our SDTR message is rejected by a target. Some
- * targets send the REJECT before receiving all of the extended
- * message, and then seem to go back to MESSAGE_OUT for a byte
- * or two. Not sure why, or if I'm doing something wrong to
- * cause this to happen. Regardless, it seems that sending
- * NOP messages in these situations results in no harm and
- * makes everyone happy.
- */
-		    if (hostdata->outgoing_len == 0) {
-			hostdata->outgoing_len = 1;
-			hostdata->outgoing_msg[0] = NOP;
-		}
-		transfer_pio(hostdata->outgoing_msg, hostdata->outgoing_len, DATA_OUT_DIR, hostdata);
-		DB(DB_INTR, printk("%02x", hostdata->outgoing_msg[0]))
-		    hostdata->outgoing_len = 0;
-		hostdata->state = S_CONNECTED;
-		break;
-
-
-	case CSR_UNEXP_DISC:
-
-/* I think I've seen this after a request-sense that was in response
- * to an error condition, but not sure. We certainly need to do
- * something when we get this interrupt - the question is 'what?'.
- * Let's think positively, and assume some command has finished
- * in a legal manner (like a command that provokes a request-sense),
- * so we treat it as a normal command-complete-disconnect.
- */
-
-
-/* Make sure that reselection is enabled at this point - it may
- * have been turned off for the command that just completed.
- */
-
-		write_3393(hostdata, WD_SOURCE_ID, SRCID_ER);
-		if (cmd == NULL) {
-			printk(" - Already disconnected! ");
-			hostdata->state = S_UNCONNECTED;
-
-/* release the SMP spin_lock and restore irq state */
-			spin_unlock_irqrestore(instance->host_lock, flags);
-			return IRQ_HANDLED;
-		}
-		DB(DB_INTR, printk("UNEXP_DISC"))
-		    hostdata->connected = NULL;
-		hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-		hostdata->state = S_UNCONNECTED;
-		if (cmd->cmnd[0] == REQUEST_SENSE && cmd->SCp.Status != GOOD)
-			cmd->result = (cmd->result & 0x00ffff) | (DID_ERROR << 16);
-		else
-			cmd->result = cmd->SCp.Status | (cmd->SCp.Message << 8);
-		cmd->scsi_done(cmd);
-
-/* We are no longer connected to a target - check to see if
- * there are commands waiting to be executed.
- */
-
-		in2000_execute(instance);
-		break;
-
-
-	case CSR_DISC:
-
-/* Make sure that reselection is enabled at this point - it may
- * have been turned off for the command that just completed.
- */
-
-		write_3393(hostdata, WD_SOURCE_ID, SRCID_ER);
-		DB(DB_INTR, printk("DISC"))
-		    if (cmd == NULL) {
-			printk(" - Already disconnected! ");
-			hostdata->state = S_UNCONNECTED;
-		}
-		switch (hostdata->state) {
-		case S_PRE_CMP_DISC:
-			hostdata->connected = NULL;
-			hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-			hostdata->state = S_UNCONNECTED;
-			DB(DB_INTR, printk(":%d", cmd->SCp.Status))
-			    if (cmd->cmnd[0] == REQUEST_SENSE && cmd->SCp.Status != GOOD)
-				cmd->result = (cmd->result & 0x00ffff) | (DID_ERROR << 16);
-			else
-				cmd->result = cmd->SCp.Status | (cmd->SCp.Message << 8);
-			cmd->scsi_done(cmd);
-			break;
-		case S_PRE_TMP_DISC:
-		case S_RUNNING_LEVEL2:
-			cmd->host_scribble = (uchar *) hostdata->disconnected_Q;
-			hostdata->disconnected_Q = cmd;
-			hostdata->connected = NULL;
-			hostdata->state = S_UNCONNECTED;
-
-#ifdef PROC_STATISTICS
-			hostdata->disc_done_cnt[cmd->device->id]++;
-#endif
-
-			break;
-		default:
-			printk("*** Unexpected DISCONNECT interrupt! ***");
-			hostdata->state = S_UNCONNECTED;
-		}
-
-/* We are no longer connected to a target - check to see if
- * there are commands waiting to be executed.
- */
-
-		in2000_execute(instance);
-		break;
-
-
-	case CSR_RESEL_AM:
-		DB(DB_INTR, printk("RESEL"))
-
-		    /* First we have to make sure this reselection didn't */
-		    /* happen during Arbitration/Selection of some other device. */
-		    /* If yes, put losing command back on top of input_Q. */
-		    if (hostdata->level2 <= L2_NONE) {
-
-			if (hostdata->selecting) {
-				cmd = (Scsi_Cmnd *) hostdata->selecting;
-				hostdata->selecting = NULL;
-				hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-				cmd->host_scribble = (uchar *) hostdata->input_Q;
-				hostdata->input_Q = cmd;
-			}
-		}
-
-		else {
-
-			if (cmd) {
-				if (phs == 0x00) {
-					hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-					cmd->host_scribble = (uchar *) hostdata->input_Q;
-					hostdata->input_Q = cmd;
-				} else {
-					printk("---%02x:%02x:%02x-TROUBLE: Intrusive ReSelect!---", asr, sr, phs);
-					while (1)
-						printk("\r");
-				}
-			}
-
-		}
-
-		/* OK - find out which device reselected us. */
-
-		id = read_3393(hostdata, WD_SOURCE_ID);
-		id &= SRCID_MASK;
-
-		/* and extract the lun from the ID message. (Note that we don't
-		 * bother to check for a valid message here - I guess this is
-		 * not the right way to go, but....)
-		 */
-
-		lun = read_3393(hostdata, WD_DATA);
-		if (hostdata->level2 < L2_RESELECT)
-			write_3393_cmd(hostdata, WD_CMD_NEGATE_ACK);
-		lun &= 7;
-
-		/* Now we look for the command that's reconnecting. */
-
-		cmd = (Scsi_Cmnd *) hostdata->disconnected_Q;
-		patch = NULL;
-		while (cmd) {
-			if (id == cmd->device->id && lun == cmd->device->lun)
-				break;
-			patch = cmd;
-			cmd = (Scsi_Cmnd *) cmd->host_scribble;
-		}
-
-		/* Hmm. Couldn't find a valid command.... What to do? */
-
-		if (!cmd) {
-			printk("---TROUBLE: target %d.%d not in disconnect queue---", id, lun);
-			break;
-		}
-
-		/* Ok, found the command - now start it up again. */
-
-		if (patch)
-			patch->host_scribble = cmd->host_scribble;
-		else
-			hostdata->disconnected_Q = (Scsi_Cmnd *) cmd->host_scribble;
-		hostdata->connected = cmd;
-
-		/* We don't need to worry about 'initialize_SCp()' or 'hostdata->busy[]'
-		 * because these things are preserved over a disconnect.
-		 * But we DO need to fix the DPD bit so it's correct for this command.
-		 */
-
-		if (is_dir_out(cmd))
-			write_3393(hostdata, WD_DESTINATION_ID, cmd->device->id);
-		else
-			write_3393(hostdata, WD_DESTINATION_ID, cmd->device->id | DSTID_DPD);
-		if (hostdata->level2 >= L2_RESELECT) {
-			write_3393_count(hostdata, 0);	/* we want a DATA_PHASE interrupt */
-			write_3393(hostdata, WD_COMMAND_PHASE, 0x45);
-			write_3393_cmd(hostdata, WD_CMD_SEL_ATN_XFER);
-			hostdata->state = S_RUNNING_LEVEL2;
-		} else
-			hostdata->state = S_CONNECTED;
-
-		    break;
-
-	default:
-		printk("--UNKNOWN INTERRUPT:%02x:%02x:%02x--", asr, sr, phs);
-	}
-
-	write1_io(0, IO_LED_OFF);
-
-	DB(DB_INTR, printk("} "))
-
-/* release the SMP spin_lock and restore irq state */
-	    spin_unlock_irqrestore(instance->host_lock, flags);
-	return IRQ_HANDLED;
-}
-
-
-
-#define RESET_CARD         0
-#define RESET_CARD_AND_BUS 1
-#define B_FLAG 0x80
-
-/*
- *	Caller must hold instance lock!
- */
-
-static int reset_hardware(struct Scsi_Host *instance, int type)
-{
-	struct IN2000_hostdata *hostdata;
-	int qt, x;
-
-	hostdata = (struct IN2000_hostdata *) instance->hostdata;
-
-	write1_io(0, IO_LED_ON);
-	if (type == RESET_CARD_AND_BUS) {
-		write1_io(0, IO_CARD_RESET);
-		x = read1_io(IO_HARDWARE);
-	}
-	x = read_3393(hostdata, WD_SCSI_STATUS);	/* clear any WD intrpt */
-	write_3393(hostdata, WD_OWN_ID, instance->this_id | OWNID_EAF | OWNID_RAF | OWNID_FS_8);
-	write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_POLLED);
-	write_3393(hostdata, WD_SYNCHRONOUS_TRANSFER, calc_sync_xfer(hostdata->default_sx_per / 4, DEFAULT_SX_OFF));
-
-	write1_io(0, IO_FIFO_WRITE);	/* clear fifo counter */
-	write1_io(0, IO_FIFO_READ);	/* start fifo out in read mode */
-	write_3393(hostdata, WD_COMMAND, WD_CMD_RESET);
-	/* FIXME: timeout ?? */
-	while (!(READ_AUX_STAT() & ASR_INT))
-		cpu_relax();	/* wait for RESET to complete */
-
-	x = read_3393(hostdata, WD_SCSI_STATUS);	/* clear interrupt */
-
-	write_3393(hostdata, WD_QUEUE_TAG, 0xa5);	/* any random number */
-	qt = read_3393(hostdata, WD_QUEUE_TAG);
-	if (qt == 0xa5) {
-		x |= B_FLAG;
-		write_3393(hostdata, WD_QUEUE_TAG, 0);
-	}
-	write_3393(hostdata, WD_TIMEOUT_PERIOD, TIMEOUT_PERIOD_VALUE);
-	write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_POLLED);
-	write1_io(0, IO_LED_OFF);
-	return x;
-}
-
-
-
-static int in2000_bus_reset(Scsi_Cmnd * cmd)
-{
-	struct Scsi_Host *instance;
-	struct IN2000_hostdata *hostdata;
-	int x;
-	unsigned long flags;
-
-	instance = cmd->device->host;
-	hostdata = (struct IN2000_hostdata *) instance->hostdata;
-
-	printk(KERN_WARNING "scsi%d: Reset. ", instance->host_no);
-
-	spin_lock_irqsave(instance->host_lock, flags);
-
-	/* do scsi-reset here */
-	reset_hardware(instance, RESET_CARD_AND_BUS);
-	for (x = 0; x < 8; x++) {
-		hostdata->busy[x] = 0;
-		hostdata->sync_xfer[x] = calc_sync_xfer(DEFAULT_SX_PER / 4, DEFAULT_SX_OFF);
-		hostdata->sync_stat[x] = SS_UNSET;	/* using default sync values */
-	}
-	hostdata->input_Q = NULL;
-	hostdata->selecting = NULL;
-	hostdata->connected = NULL;
-	hostdata->disconnected_Q = NULL;
-	hostdata->state = S_UNCONNECTED;
-	hostdata->fifo = FI_FIFO_UNUSED;
-	hostdata->incoming_ptr = 0;
-	hostdata->outgoing_len = 0;
-
-	cmd->result = DID_RESET << 16;
-
-	spin_unlock_irqrestore(instance->host_lock, flags);
-	return SUCCESS;
-}
-
-static int __in2000_abort(Scsi_Cmnd * cmd)
-{
-	struct Scsi_Host *instance;
-	struct IN2000_hostdata *hostdata;
-	Scsi_Cmnd *tmp, *prev;
-	uchar sr, asr;
-	unsigned long timeout;
-
-	instance = cmd->device->host;
-	hostdata = (struct IN2000_hostdata *) instance->hostdata;
-
-	printk(KERN_DEBUG "scsi%d: Abort-", instance->host_no);
-	printk("(asr=%02x,count=%ld,resid=%d,buf_resid=%d,have_data=%d,FC=%02x)- ", READ_AUX_STAT(), read_3393_count(hostdata), cmd->SCp.this_residual, cmd->SCp.buffers_residual, cmd->SCp.have_data_in, read1_io(IO_FIFO_COUNT));
-
-/*
- * Case 1 : If the command hasn't been issued yet, we simply remove it
- *     from the inout_Q.
- */
-
-	tmp = (Scsi_Cmnd *) hostdata->input_Q;
-	prev = NULL;
-	while (tmp) {
-		if (tmp == cmd) {
-			if (prev)
-				prev->host_scribble = cmd->host_scribble;
-			cmd->host_scribble = NULL;
-			cmd->result = DID_ABORT << 16;
-			printk(KERN_WARNING "scsi%d: Abort - removing command from input_Q. ", instance->host_no);
-			cmd->scsi_done(cmd);
-			return SUCCESS;
-		}
-		prev = tmp;
-		tmp = (Scsi_Cmnd *) tmp->host_scribble;
-	}
-
-/*
- * Case 2 : If the command is connected, we're going to fail the abort
- *     and let the high level SCSI driver retry at a later time or
- *     issue a reset.
- *
- *     Timeouts, and therefore aborted commands, will be highly unlikely
- *     and handling them cleanly in this situation would make the common
- *     case of noresets less efficient, and would pollute our code.  So,
- *     we fail.
- */
-
-	if (hostdata->connected == cmd) {
-
-		printk(KERN_WARNING "scsi%d: Aborting connected command - ", instance->host_no);
-
-		printk("sending wd33c93 ABORT command - ");
-		write_3393(hostdata, WD_CONTROL, CTRL_IDI | CTRL_EDI | CTRL_POLLED);
-		write_3393_cmd(hostdata, WD_CMD_ABORT);
-
-/* Now we have to attempt to flush out the FIFO... */
-
-		printk("flushing fifo - ");
-		timeout = 1000000;
-		do {
-			asr = READ_AUX_STAT();
-			if (asr & ASR_DBR)
-				read_3393(hostdata, WD_DATA);
-		} while (!(asr & ASR_INT) && timeout-- > 0);
-		sr = read_3393(hostdata, WD_SCSI_STATUS);
-		printk("asr=%02x, sr=%02x, %ld bytes un-transferred (timeout=%ld) - ", asr, sr, read_3393_count(hostdata), timeout);
-
-		/*
-		 * Abort command processed.
-		 * Still connected.
-		 * We must disconnect.
-		 */
-
-		printk("sending wd33c93 DISCONNECT command - ");
-		write_3393_cmd(hostdata, WD_CMD_DISCONNECT);
-
-		timeout = 1000000;
-		asr = READ_AUX_STAT();
-		while ((asr & ASR_CIP) && timeout-- > 0)
-			asr = READ_AUX_STAT();
-		sr = read_3393(hostdata, WD_SCSI_STATUS);
-		printk("asr=%02x, sr=%02x.", asr, sr);
-
-		hostdata->busy[cmd->device->id] &= ~(1 << cmd->device->lun);
-		hostdata->connected = NULL;
-		hostdata->state = S_UNCONNECTED;
-		cmd->result = DID_ABORT << 16;
-		cmd->scsi_done(cmd);
-
-		in2000_execute(instance);
-
-		return SUCCESS;
-	}
-
-/*
- * Case 3: If the command is currently disconnected from the bus,
- * we're not going to expend much effort here: Let's just return
- * an ABORT_SNOOZE and hope for the best...
- */
-
-	for (tmp = (Scsi_Cmnd *) hostdata->disconnected_Q; tmp; tmp = (Scsi_Cmnd *) tmp->host_scribble)
-		if (cmd == tmp) {
-			printk(KERN_DEBUG "scsi%d: unable to abort disconnected command.\n", instance->host_no);
-			return FAILED;
-		}
-
-/*
- * Case 4 : If we reached this point, the command was not found in any of
- *     the queues.
- *
- * We probably reached this point because of an unlikely race condition
- * between the command completing successfully and the abortion code,
- * so we won't panic, but we will notify the user in case something really
- * broke.
- */
-
-	in2000_execute(instance);
-
-	printk("scsi%d: warning : SCSI command probably completed successfully" "         before abortion. ", instance->host_no);
-	return SUCCESS;
-}
-
-static int in2000_abort(Scsi_Cmnd * cmd)
-{
-	int rc;
-
-	spin_lock_irq(cmd->device->host->host_lock);
-	rc = __in2000_abort(cmd);
-	spin_unlock_irq(cmd->device->host->host_lock);
-
-	return rc;
-}
-
-
-#define MAX_IN2000_HOSTS 3
-#define MAX_SETUP_ARGS ARRAY_SIZE(setup_args)
-#define SETUP_BUFFER_SIZE 200
-static char setup_buffer[SETUP_BUFFER_SIZE];
-static char setup_used[MAX_SETUP_ARGS];
-static int done_setup = 0;
-
-static void __init in2000_setup(char *str, int *ints)
-{
-	int i;
-	char *p1, *p2;
-
-	strlcpy(setup_buffer, str, SETUP_BUFFER_SIZE);
-	p1 = setup_buffer;
-	i = 0;
-	while (*p1 && (i < MAX_SETUP_ARGS)) {
-		p2 = strchr(p1, ',');
-		if (p2) {
-			*p2 = '\0';
-			if (p1 != p2)
-				setup_args[i] = p1;
-			p1 = p2 + 1;
-			i++;
-		} else {
-			setup_args[i] = p1;
-			break;
-		}
-	}
-	for (i = 0; i < MAX_SETUP_ARGS; i++)
-		setup_used[i] = 0;
-	done_setup = 1;
-}
-
-
-/* check_setup_args() returns index if key found, 0 if not
- */
-
-static int __init check_setup_args(char *key, int *val, char *buf)
-{
-	int x;
-	char *cp;
-
-	for (x = 0; x < MAX_SETUP_ARGS; x++) {
-		if (setup_used[x])
-			continue;
-		if (!strncmp(setup_args[x], key, strlen(key)))
-			break;
-	}
-	if (x == MAX_SETUP_ARGS)
-		return 0;
-	setup_used[x] = 1;
-	cp = setup_args[x] + strlen(key);
-	*val = -1;
-	if (*cp != ':')
-		return ++x;
-	cp++;
-	if ((*cp >= '0') && (*cp <= '9')) {
-		*val = simple_strtoul(cp, NULL, 0);
-	}
-	return ++x;
-}
-
-
-
-/* The "correct" (ie portable) way to access memory-mapped hardware
- * such as the IN2000 EPROM and dip switch is through the use of
- * special macros declared in 'asm/io.h'. We use readb() and readl()
- * when reading from the card's BIOS area in in2000_detect().
- */
-static u32 bios_tab[] in2000__INITDATA = {
-	0xc8000,
-	0xd0000,
-	0xd8000,
-	0
-};
-
-static unsigned short base_tab[] in2000__INITDATA = {
-	0x220,
-	0x200,
-	0x110,
-	0x100,
-};
-
-static int int_tab[] in2000__INITDATA = {
-	15,
-	14,
-	11,
-	10
-};
-
-static int probe_bios(u32 addr, u32 *s1, uchar *switches)
-{
-	void __iomem *p = ioremap(addr, 0x34);
-	if (!p)
-		return 0;
-	*s1 = readl(p + 0x10);
-	if (*s1 == 0x41564f4e || readl(p + 0x30) == 0x61776c41) {
-		/* Read the switch image that's mapped into EPROM space */
-		*switches = ~readb(p + 0x20);
-		iounmap(p);
-		return 1;
-	}
-	iounmap(p);
-	return 0;
-}
-
-static int __init in2000_detect(struct scsi_host_template * tpnt)
-{
-	struct Scsi_Host *instance;
-	struct IN2000_hostdata *hostdata;
-	int detect_count;
-	int bios;
-	int x;
-	unsigned short base;
-	uchar switches;
-	uchar hrev;
-	unsigned long flags;
-	int val;
-	char buf[32];
-
-/* Thanks to help from Bill Earnest, probing for IN2000 cards is a
- * pretty straightforward and fool-proof operation. There are 3
- * possible locations for the IN2000 EPROM in memory space - if we
- * find a BIOS signature, we can read the dip switch settings from
- * the byte at BIOS+32 (shadowed in by logic on the card). From 2
- * of the switch bits we get the card's address in IO space. There's
- * an image of the dip switch there, also, so we have a way to back-
- * check that this really is an IN2000 card. Very nifty. Use the
- * 'ioport:xx' command-line parameter if your BIOS EPROM is absent
- * or disabled.
- */
-
-	if (!done_setup && setup_strings)
-		in2000_setup(setup_strings, NULL);
-
-	detect_count = 0;
-	for (bios = 0; bios_tab[bios]; bios++) {
-		u32 s1 = 0;
-		if (check_setup_args("ioport", &val, buf)) {
-			base = val;
-			switches = ~inb(base + IO_SWITCHES) & 0xff;
-			printk("Forcing IN2000 detection at IOport 0x%x ", base);
-			bios = 2;
-		}
-/*
- * There have been a couple of BIOS versions with different layouts
- * for the obvious ID strings. We look for the 2 most common ones and
- * hope that they cover all the cases...
- */
-		else if (probe_bios(bios_tab[bios], &s1, &switches)) {
-			printk("Found IN2000 BIOS at 0x%x ", (unsigned int) bios_tab[bios]);
-
-/* Find out where the IO space is */
-
-			x = switches & (SW_ADDR0 | SW_ADDR1);
-			base = base_tab[x];
-
-/* Check for the IN2000 signature in IO space. */
-
-			x = ~inb(base + IO_SWITCHES) & 0xff;
-			if (x != switches) {
-				printk("Bad IO signature: %02x vs %02x.\n", x, switches);
-				continue;
-			}
-		} else
-			continue;
-
-/* OK. We have a base address for the IO ports - run a few safety checks */
-
-		if (!(switches & SW_BIT7)) {	/* I _think_ all cards do this */
-			printk("There is no IN-2000 SCSI card at IOport 0x%03x!\n", base);
-			continue;
-		}
-
-/* Let's assume any hardware version will work, although the driver
- * has only been tested on 0x21, 0x22, 0x25, 0x26, and 0x27. We'll
- * print out the rev number for reference later, but accept them all.
- */
-
-		hrev = inb(base + IO_HARDWARE);
-
-		/* Bit 2 tells us if interrupts are disabled */
-		if (switches & SW_DISINT) {
-			printk("The IN-2000 SCSI card at IOport 0x%03x ", base);
-			printk("is not configured for interrupt operation!\n");
-			printk("This driver requires an interrupt: cancelling detection.\n");
-			continue;
-		}
-
-/* Ok. We accept that there's an IN2000 at ioaddr 'base'. Now
- * initialize it.
- */
-
-		tpnt->proc_name = "in2000";
-		instance = scsi_register(tpnt, sizeof(struct IN2000_hostdata));
-		if (instance == NULL)
-			continue;
-		detect_count++;
-		hostdata = (struct IN2000_hostdata *) instance->hostdata;
-		instance->io_port = hostdata->io_base = base;
-		hostdata->dip_switch = switches;
-		hostdata->hrev = hrev;
-
-		write1_io(0, IO_FIFO_WRITE);	/* clear fifo counter */
-		write1_io(0, IO_FIFO_READ);	/* start fifo out in read mode */
-		write1_io(0, IO_INTR_MASK);	/* allow all ints */
-		x = int_tab[(switches & (SW_INT0 | SW_INT1)) >> SW_INT_SHIFT];
-		if (request_irq(x, in2000_intr, 0, "in2000", instance)) {
-			printk("in2000_detect: Unable to allocate IRQ.\n");
-			detect_count--;
-			continue;
-		}
-		instance->irq = x;
-		instance->n_io_port = 13;
-		request_region(base, 13, "in2000");	/* lock in this IO space for our use */
-
-		for (x = 0; x < 8; x++) {
-			hostdata->busy[x] = 0;
-			hostdata->sync_xfer[x] = calc_sync_xfer(DEFAULT_SX_PER / 4, DEFAULT_SX_OFF);
-			hostdata->sync_stat[x] = SS_UNSET;	/* using default sync values */
-#ifdef PROC_STATISTICS
-			hostdata->cmd_cnt[x] = 0;
-			hostdata->disc_allowed_cnt[x] = 0;
-			hostdata->disc_done_cnt[x] = 0;
-#endif
-		}
-		hostdata->input_Q = NULL;
-		hostdata->selecting = NULL;
-		hostdata->connected = NULL;
-		hostdata->disconnected_Q = NULL;
-		hostdata->state = S_UNCONNECTED;
-		hostdata->fifo = FI_FIFO_UNUSED;
-		hostdata->level2 = L2_BASIC;
-		hostdata->disconnect = DIS_ADAPTIVE;
-		hostdata->args = DEBUG_DEFAULTS;
-		hostdata->incoming_ptr = 0;
-		hostdata->outgoing_len = 0;
-		hostdata->default_sx_per = DEFAULT_SX_PER;
-
-/* Older BIOS's had a 'sync on/off' switch - use its setting */
-
-		if (s1 == 0x41564f4e && (switches & SW_SYNC_DOS5))
-			hostdata->sync_off = 0x00;	/* sync defaults to on */
-		else
-			hostdata->sync_off = 0xff;	/* sync defaults to off */
-
-#ifdef PROC_INTERFACE
-		hostdata->proc = PR_VERSION | PR_INFO | PR_STATISTICS | PR_CONNECTED | PR_INPUTQ | PR_DISCQ | PR_STOP;
-#ifdef PROC_STATISTICS
-		hostdata->int_cnt = 0;
-#endif
-#endif
-
-		if (check_setup_args("nosync", &val, buf))
-			hostdata->sync_off = val;
-
-		if (check_setup_args("period", &val, buf))
-			hostdata->default_sx_per = sx_table[round_period((unsigned int) val)].period_ns;
-
-		if (check_setup_args("disconnect", &val, buf)) {
-			if ((val >= DIS_NEVER) && (val <= DIS_ALWAYS))
-				hostdata->disconnect = val;
-			else
-				hostdata->disconnect = DIS_ADAPTIVE;
-		}
-
-		if (check_setup_args("noreset", &val, buf))
-			hostdata->args ^= A_NO_SCSI_RESET;
-
-		if (check_setup_args("level2", &val, buf))
-			hostdata->level2 = val;
-
-		if (check_setup_args("debug", &val, buf))
-			hostdata->args = (val & DB_MASK);
-
-#ifdef PROC_INTERFACE
-		if (check_setup_args("proc", &val, buf))
-			hostdata->proc = val;
-#endif
-
-
-		/* FIXME: not strictly needed I think but the called code expects
-		   to be locked */
-		spin_lock_irqsave(instance->host_lock, flags);
-		x = reset_hardware(instance, (hostdata->args & A_NO_SCSI_RESET) ? RESET_CARD : RESET_CARD_AND_BUS);
-		spin_unlock_irqrestore(instance->host_lock, flags);
-
-		hostdata->microcode = read_3393(hostdata, WD_CDB_1);
-		if (x & 0x01) {
-			if (x & B_FLAG)
-				hostdata->chip = C_WD33C93B;
-			else
-				hostdata->chip = C_WD33C93A;
-		} else
-			hostdata->chip = C_WD33C93;
-
-		printk("dip_switch=%02x irq=%d ioport=%02x floppy=%s sync/DOS5=%s ", (switches & 0x7f), instance->irq, hostdata->io_base, (switches & SW_FLOPPY) ? "Yes" : "No", (switches & SW_SYNC_DOS5) ? "Yes" : "No");
-		printk("hardware_ver=%02x chip=%s microcode=%02x\n", hrev, (hostdata->chip == C_WD33C93) ? "WD33c93" : (hostdata->chip == C_WD33C93A) ? "WD33c93A" : (hostdata->chip == C_WD33C93B) ? "WD33c93B" : "unknown", hostdata->microcode);
-#ifdef DEBUGGING_ON
-		printk("setup_args = ");
-		for (x = 0; x < MAX_SETUP_ARGS; x++)
-			printk("%s,", setup_args[x]);
-		printk("\n");
-#endif
-		if (hostdata->sync_off == 0xff)
-			printk("Sync-transfer DISABLED on all devices: ENABLE from command-line\n");
-		printk("IN2000 driver version %s - %s\n", IN2000_VERSION, IN2000_DATE);
-	}
-
-	return detect_count;
-}
-
-static int in2000_release(struct Scsi_Host *shost)
-{
-	if (shost->irq)
-		free_irq(shost->irq, shost);
-	if (shost->io_port && shost->n_io_port)
-		release_region(shost->io_port, shost->n_io_port);
-	return 0;
-}
-
-/* NOTE: I lifted this function straight out of the old driver,
- *       and have not tested it. Presumably it does what it's
- *       supposed to do...
- */
-
-static int in2000_biosparam(struct scsi_device *sdev, struct block_device *bdev, sector_t capacity, int *iinfo)
-{
-	int size;
-
-	size = capacity;
-	iinfo[0] = 64;
-	iinfo[1] = 32;
-	iinfo[2] = size >> 11;
-
-/* This should approximate the large drive handling that the DOS ASPI manager
-   uses.  Drives very near the boundaries may not be handled correctly (i.e.
-   near 2.0 Gb and 4.0 Gb) */
-
-	if (iinfo[2] > 1024) {
-		iinfo[0] = 64;
-		iinfo[1] = 63;
-		iinfo[2] = (unsigned long) capacity / (iinfo[0] * iinfo[1]);
-	}
-	if (iinfo[2] > 1024) {
-		iinfo[0] = 128;
-		iinfo[1] = 63;
-		iinfo[2] = (unsigned long) capacity / (iinfo[0] * iinfo[1]);
-	}
-	if (iinfo[2] > 1024) {
-		iinfo[0] = 255;
-		iinfo[1] = 63;
-		iinfo[2] = (unsigned long) capacity / (iinfo[0] * iinfo[1]);
-	}
-	return 0;
-}
-
-
-static int in2000_write_info(struct Scsi_Host *instance, char *buf, int len)
-{
-
-#ifdef PROC_INTERFACE
-
-	char *bp;
-	struct IN2000_hostdata *hd;
-	int x, i;
-
-	hd = (struct IN2000_hostdata *) instance->hostdata;
-
-	buf[len] = '\0';
-	bp = buf;
-	if (!strncmp(bp, "debug:", 6)) {
-		bp += 6;
-		hd->args = simple_strtoul(bp, NULL, 0) & DB_MASK;
-	} else if (!strncmp(bp, "disconnect:", 11)) {
-		bp += 11;
-		x = simple_strtoul(bp, NULL, 0);
-		if (x < DIS_NEVER || x > DIS_ALWAYS)
-			x = DIS_ADAPTIVE;
-		hd->disconnect = x;
-	} else if (!strncmp(bp, "period:", 7)) {
-		bp += 7;
-		x = simple_strtoul(bp, NULL, 0);
-		hd->default_sx_per = sx_table[round_period((unsigned int) x)].period_ns;
-	} else if (!strncmp(bp, "resync:", 7)) {
-		bp += 7;
-		x = simple_strtoul(bp, NULL, 0);
-		for (i = 0; i < 7; i++)
-			if (x & (1 << i))
-				hd->sync_stat[i] = SS_UNSET;
-	} else if (!strncmp(bp, "proc:", 5)) {
-		bp += 5;
-		hd->proc = simple_strtoul(bp, NULL, 0);
-	} else if (!strncmp(bp, "level2:", 7)) {
-		bp += 7;
-		hd->level2 = simple_strtoul(bp, NULL, 0);
-	}
-#endif
-	return len;
-}
-
-static int in2000_show_info(struct seq_file *m, struct Scsi_Host *instance)
-{
-
-#ifdef PROC_INTERFACE
-	unsigned long flags;
-	struct IN2000_hostdata *hd;
-	Scsi_Cmnd *cmd;
-	int x;
-
-	hd = (struct IN2000_hostdata *) instance->hostdata;
-
-	spin_lock_irqsave(instance->host_lock, flags);
-	if (hd->proc & PR_VERSION)
-		seq_printf(m, "\nVersion %s - %s.", IN2000_VERSION, IN2000_DATE);
-
-	if (hd->proc & PR_INFO) {
-		seq_printf(m, "\ndip_switch=%02x: irq=%d io=%02x floppy=%s sync/DOS5=%s", (hd->dip_switch & 0x7f), instance->irq, hd->io_base, (hd->dip_switch & 0x40) ? "Yes" : "No", (hd->dip_switch & 0x20) ? "Yes" : "No");
-		seq_puts(m, "\nsync_xfer[] =       ");
-		for (x = 0; x < 7; x++)
-			seq_printf(m, "\t%02x", hd->sync_xfer[x]);
-		seq_puts(m, "\nsync_stat[] =       ");
-		for (x = 0; x < 7; x++)
-			seq_printf(m, "\t%02x", hd->sync_stat[x]);
-	}
-#ifdef PROC_STATISTICS
-	if (hd->proc & PR_STATISTICS) {
-		seq_puts(m, "\ncommands issued:    ");
-		for (x = 0; x < 7; x++)
-			seq_printf(m, "\t%ld", hd->cmd_cnt[x]);
-		seq_puts(m, "\ndisconnects allowed:");
-		for (x = 0; x < 7; x++)
-			seq_printf(m, "\t%ld", hd->disc_allowed_cnt[x]);
-		seq_puts(m, "\ndisconnects done:   ");
-		for (x = 0; x < 7; x++)
-			seq_printf(m, "\t%ld", hd->disc_done_cnt[x]);
-		seq_printf(m, "\ninterrupts:      \t%ld", hd->int_cnt);
-	}
-#endif
-	if (hd->proc & PR_CONNECTED) {
-		seq_puts(m, "\nconnected:     ");
-		if (hd->connected) {
-			cmd = (Scsi_Cmnd *) hd->connected;
-			seq_printf(m, " %d:%llu(%02x)", cmd->device->id, cmd->device->lun, cmd->cmnd[0]);
-		}
-	}
-	if (hd->proc & PR_INPUTQ) {
-		seq_puts(m, "\ninput_Q:       ");
-		cmd = (Scsi_Cmnd *) hd->input_Q;
-		while (cmd) {
-			seq_printf(m, " %d:%llu(%02x)", cmd->device->id, cmd->device->lun, cmd->cmnd[0]);
-			cmd = (Scsi_Cmnd *) cmd->host_scribble;
-		}
-	}
-	if (hd->proc & PR_DISCQ) {
-		seq_puts(m, "\ndisconnected_Q:");
-		cmd = (Scsi_Cmnd *) hd->disconnected_Q;
-		while (cmd) {
-			seq_printf(m, " %d:%llu(%02x)", cmd->device->id, cmd->device->lun, cmd->cmnd[0]);
-			cmd = (Scsi_Cmnd *) cmd->host_scribble;
-		}
-	}
-	if (hd->proc & PR_TEST) {
-		;		/* insert your own custom function here */
-	}
-	seq_putc(m, '\n');
-	spin_unlock_irqrestore(instance->host_lock, flags);
-#endif				/* PROC_INTERFACE */
-	return 0;
-}
-
-MODULE_LICENSE("GPL");
-
-
-static struct scsi_host_template driver_template = {
-	.proc_name       		= "in2000",
-	.write_info       		= in2000_write_info,
-	.show_info       		= in2000_show_info,
-	.name            		= "Always IN2000",
-	.detect          		= in2000_detect, 
-	.release			= in2000_release,
-	.queuecommand    		= in2000_queuecommand,
-	.eh_abort_handler		= in2000_abort,
-	.eh_bus_reset_handler		= in2000_bus_reset,
-	.bios_param      		= in2000_biosparam, 
-	.can_queue       		= IN2000_CAN_Q,
-	.this_id         		= IN2000_HOST_ID,
-	.sg_tablesize    		= IN2000_SG,
-	.cmd_per_lun     		= IN2000_CPL,
-	.use_clustering  		= DISABLE_CLUSTERING,
-};
-#include "scsi_module.c"
diff --git a/drivers/scsi/in2000.h b/drivers/scsi/in2000.h
deleted file mode 100644
index 5821e1fbce08..000000000000
--- a/drivers/scsi/in2000.h
+++ /dev/null
@@ -1,412 +0,0 @@
-/*
- *    in2000.h -  Linux device driver definitions for the
- *                Always IN2000 ISA SCSI card.
- *
- *    IMPORTANT: This file is for version 1.33 - 26/Aug/1998
- *
- * Copyright (c) 1996 John Shifflett, GeoLog Consulting
- *    john@geolog.com
- *    jshiffle@netcom.com
- *
- * This program is free software; you can redistribute it and/or modify
- * it under the terms of the GNU General Public License as published by
- * the Free Software Foundation; either version 2, or (at your option)
- * any later version.
- *
- * This program is distributed in the hope that it will be useful,
- * but WITHOUT ANY WARRANTY; without even the implied warranty of
- * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
- * GNU General Public License for more details.
- *
- */
-
-#ifndef IN2000_H
-#define IN2000_H
-
-#include <asm/io.h>
-
-#define PROC_INTERFACE     /* add code for /proc/scsi/in2000/xxx interface */
-#ifdef  PROC_INTERFACE
-#define PROC_STATISTICS    /* add code for keeping various real time stats */
-#endif
-
-#define SYNC_DEBUG         /* extra info on sync negotiation printed */
-#define DEBUGGING_ON       /* enable command-line debugging bitmask */
-#define DEBUG_DEFAULTS 0   /* default bitmask - change from command-line */
-
-#ifdef __i386__
-#define FAST_READ_IO       /* No problems with these on my machine */
-#define FAST_WRITE_IO
-#endif
-
-#ifdef DEBUGGING_ON
-#define DB(f,a) if (hostdata->args & (f)) a;
-#define CHECK_NULL(p,s) /* if (!(p)) {printk("\n"); while (1) printk("NP:%s\r",(s));} */
-#else
-#define DB(f,a)
-#define CHECK_NULL(p,s)
-#endif
-
-#define uchar unsigned char
-
-#define read1_io(a)     (inb(hostdata->io_base+(a)))
-#define read2_io(a)     (inw(hostdata->io_base+(a)))
-#define write1_io(b,a)  (outb((b),hostdata->io_base+(a)))
-#define write2_io(w,a)  (outw((w),hostdata->io_base+(a)))
-
-#ifdef __i386__
-/* These inline assembly defines are derived from a patch
- * sent to me by Bill Earnest. He's done a lot of very
- * valuable thinking, testing, and coding during his effort
- * to squeeze more speed out of this driver. I really think
- * that we are doing IO at close to the maximum now with
- * the fifo. (And yes, insw uses 'edi' while outsw uses
- * 'esi'. Thanks Bill!)
- */
-
-#define FAST_READ2_IO()    \
-({ \
-int __dummy_1,__dummy_2; \
-   __asm__ __volatile__ ("\n \
-   cld                    \n \
-   orl %%ecx, %%ecx       \n \
-   jz 1f                  \n \
-   rep                    \n \
-   insw (%%dx),%%es:(%%edi) \n \
-1: "                       \
-   : "=D" (sp) ,"=c" (__dummy_1) ,"=d" (__dummy_2)  /* output */   \
-   : "2" (f), "0" (sp), "1" (i)  /* input */    \
-   );       /* trashed */ \
-})
-
-#define FAST_WRITE2_IO()   \
-({ \
-int __dummy_1,__dummy_2; \
-   __asm__ __volatile__ ("\n \
-   cld                    \n \
-   orl %%ecx, %%ecx       \n \
-   jz 1f                  \n \
-   rep                    \n \
-   outsw %%ds:(%%esi),(%%dx) \n \
-1: "                       \
-   : "=S" (sp) ,"=c" (__dummy_1) ,"=d" (__dummy_2)/* output */   \
-   : "2" (f), "0" (sp), "1" (i)  /* input */    \
-   );       /* trashed */ \
-})
-#endif
-
-/* IN2000 io_port offsets */
-#define IO_WD_ASR       0x00     /* R - 3393 auxstat reg */
-#define     ASR_INT        0x80
-#define     ASR_LCI        0x40
-#define     ASR_BSY        0x20
-#define     ASR_CIP        0x10
-#define     ASR_PE         0x02
-#define     ASR_DBR        0x01
-#define IO_WD_ADDR      0x00     /* W - 3393 address reg */
-#define IO_WD_DATA      0x01     /* R/W - rest of 3393 regs */
-#define IO_FIFO         0x02     /* R/W - in2000 dual-port fifo (16 bits) */
-#define IN2000_FIFO_SIZE   2048  /*    fifo capacity in bytes */
-#define IO_CARD_RESET   0x03     /* W - in2000 start master reset */
-#define IO_FIFO_COUNT   0x04     /* R - in2000 fifo counter */
-#define IO_FIFO_WRITE   0x05     /* W - clear fifo counter, start write */
-#define IO_FIFO_READ    0x07     /* W - start fifo read */
-#define IO_LED_OFF      0x08     /* W - turn off in2000 activity LED */
-#define IO_SWITCHES     0x08     /* R - read in2000 dip switch */
-#define     SW_ADDR0       0x01  /*    bit 0 = bit 0 of index to io addr */
-#define     SW_ADDR1       0x02  /*    bit 1 = bit 1 of index io addr */
-#define     SW_DISINT      0x04  /*    bit 2 true if ints disabled */
-#define     SW_INT0        0x08  /*    bit 3 = bit 0 of index to interrupt */
-#define     SW_INT1        0x10  /*    bit 4 = bit 1 of index to interrupt */
-#define     SW_INT_SHIFT   3     /*    shift right this amount to right justify int bits */
-#define     SW_SYNC_DOS5   0x20  /*    bit 5 used by Always BIOS */
-#define     SW_FLOPPY      0x40  /*    bit 6 true if floppy enabled */
-#define     SW_BIT7        0x80  /*    bit 7 hardwired true (ground) */
-#define IO_LED_ON       0x09     /* W - turn on in2000 activity LED */
-#define IO_HARDWARE     0x0a     /* R - read in2000 hardware rev, stop reset */
-#define IO_INTR_MASK    0x0c     /* W - in2000 interrupt mask reg */
-#define     IMASK_WD       0x01  /*    WD33c93 interrupt mask */
-#define     IMASK_FIFO     0x02  /*    FIFO interrupt mask */
-
-/* wd register names */
-#define WD_OWN_ID    0x00
-#define WD_CONTROL   0x01
-#define WD_TIMEOUT_PERIOD  0x02
-#define WD_CDB_1     0x03
-#define WD_CDB_2     0x04
-#define WD_CDB_3     0x05
-#define WD_CDB_4     0x06
-#define WD_CDB_5     0x07
-#define WD_CDB_6     0x08
-#define WD_CDB_7     0x09
-#define WD_CDB_8     0x0a
-#define WD_CDB_9     0x0b
-#define WD_CDB_10    0x0c
-#define WD_CDB_11    0x0d
-#define WD_CDB_12    0x0e
-#define WD_TARGET_LUN      0x0f
-#define WD_COMMAND_PHASE   0x10
-#define WD_SYNCHRONOUS_TRANSFER  0x11
-#define WD_TRANSFER_COUNT_MSB 0x12
-#define WD_TRANSFER_COUNT  0x13
-#define WD_TRANSFER_COUNT_LSB 0x14
-#define WD_DESTINATION_ID  0x15
-#define WD_SOURCE_ID    0x16
-#define WD_SCSI_STATUS     0x17
-#define WD_COMMAND      0x18
-#define WD_DATA      0x19
-#define WD_QUEUE_TAG    0x1a
-#define WD_AUXILIARY_STATUS   0x1f
-
-/* WD commands */
-#define WD_CMD_RESET    0x00
-#define WD_CMD_ABORT    0x01
-#define WD_CMD_ASSERT_ATN  0x02
-#define WD_CMD_NEGATE_ACK  0x03
-#define WD_CMD_DISCONNECT  0x04
-#define WD_CMD_RESELECT    0x05
-#define WD_CMD_SEL_ATN     0x06
-#define WD_CMD_SEL      0x07
-#define WD_CMD_SEL_ATN_XFER   0x08
-#define WD_CMD_SEL_XFER    0x09
-#define WD_CMD_RESEL_RECEIVE  0x0a
-#define WD_CMD_RESEL_SEND  0x0b
-#define WD_CMD_WAIT_SEL_RECEIVE 0x0c
-#define WD_CMD_TRANS_ADDR  0x18
-#define WD_CMD_TRANS_INFO  0x20
-#define WD_CMD_TRANSFER_PAD   0x21
-#define WD_CMD_SBT_MODE    0x80
-
-/* SCSI Bus Phases */
-#define PHS_DATA_OUT    0x00
-#define PHS_DATA_IN     0x01
-#define PHS_COMMAND     0x02
-#define PHS_STATUS      0x03
-#define PHS_MESS_OUT    0x06
-#define PHS_MESS_IN     0x07
-
-/* Command Status Register definitions */
-
-  /* reset state interrupts */
-#define CSR_RESET    0x00
-#define CSR_RESET_AF    0x01
-
-  /* successful completion interrupts */
-#define CSR_RESELECT    0x10
-#define CSR_SELECT      0x11
-#define CSR_SEL_XFER_DONE  0x16
-#define CSR_XFER_DONE      0x18
-
-  /* paused or aborted interrupts */
-#define CSR_MSGIN    0x20
-#define CSR_SDP         0x21
-#define CSR_SEL_ABORT      0x22
-#define CSR_RESEL_ABORT    0x25
-#define CSR_RESEL_ABORT_AM 0x27
-#define CSR_ABORT    0x28
-
-  /* terminated interrupts */
-#define CSR_INVALID     0x40
-#define CSR_UNEXP_DISC     0x41
-#define CSR_TIMEOUT     0x42
-#define CSR_PARITY      0x43
-#define CSR_PARITY_ATN     0x44
-#define CSR_BAD_STATUS     0x45
-#define CSR_UNEXP    0x48
-
-  /* service required interrupts */
-#define CSR_RESEL    0x80
-#define CSR_RESEL_AM    0x81
-#define CSR_DISC     0x85
-#define CSR_SRV_REQ     0x88
-
-   /* Own ID/CDB Size register */
-#define OWNID_EAF    0x08
-#define OWNID_EHP    0x10
-#define OWNID_RAF    0x20
-#define OWNID_FS_8   0x00
-#define OWNID_FS_12  0x40
-#define OWNID_FS_16  0x80
-
-   /* Control register */
-#define CTRL_HSP     0x01
-#define CTRL_HA      0x02
-#define CTRL_IDI     0x04
-#define CTRL_EDI     0x08
-#define CTRL_HHP     0x10
-#define CTRL_POLLED  0x00
-#define CTRL_BURST   0x20
-#define CTRL_BUS     0x40
-#define CTRL_DMA     0x80
-
-   /* Timeout Period register */
-#define TIMEOUT_PERIOD_VALUE  20    /* results in 200 ms. */
-
-   /* Synchronous Transfer Register */
-#define STR_FSS      0x80
-
-   /* Destination ID register */
-#define DSTID_DPD    0x40
-#define DATA_OUT_DIR 0
-#define DATA_IN_DIR  1
-#define DSTID_SCC    0x80
-
-   /* Source ID register */
-#define SRCID_MASK   0x07
-#define SRCID_SIV    0x08
-#define SRCID_DSP    0x20
-#define SRCID_ES     0x40
-#define SRCID_ER     0x80
-
-
-
-#define ILLEGAL_STATUS_BYTE   0xff
-
-
-#define DEFAULT_SX_PER     500   /* (ns) fairly safe */
-#define DEFAULT_SX_OFF     0     /* aka async */
-
-#define OPTIMUM_SX_PER     252   /* (ns) best we can do (mult-of-4) */
-#define OPTIMUM_SX_OFF     12    /* size of in2000 fifo */
-
-struct sx_period {
-   unsigned int   period_ns;
-   uchar          reg_value;
-   };
-
-
-struct IN2000_hostdata {
-    struct Scsi_Host *next;
-    uchar            chip;             /* what kind of wd33c93 chip? */
-    uchar            microcode;        /* microcode rev if 'B' */
-    unsigned short   io_base;          /* IO port base */
-    unsigned int     dip_switch;       /* dip switch settings */
-    unsigned int     hrev;             /* hardware revision of card */
-    volatile uchar   busy[8];          /* index = target, bit = lun */
-    volatile Scsi_Cmnd *input_Q;       /* commands waiting to be started */
-    volatile Scsi_Cmnd *selecting;     /* trying to select this command */
-    volatile Scsi_Cmnd *connected;     /* currently connected command */
-    volatile Scsi_Cmnd *disconnected_Q;/* commands waiting for reconnect */
-    uchar            state;            /* what we are currently doing */
-    uchar            fifo;             /* what the FIFO is up to */
-    uchar            level2;           /* extent to which Level-2 commands are used */
-    uchar            disconnect;       /* disconnect/reselect policy */
-    unsigned int     args;             /* set from command-line argument */
-    uchar            incoming_msg[8];  /* filled during message_in phase */
-    int              incoming_ptr;     /* mainly used with EXTENDED messages */
-    uchar            outgoing_msg[8];  /* send this during next message_out */
-    int              outgoing_len;     /* length of outgoing message */
-    unsigned int     default_sx_per;   /* default transfer period for SCSI bus */
-    uchar            sync_xfer[8];     /* sync_xfer reg settings per target */
-    uchar            sync_stat[8];     /* status of sync negotiation per target */
-    uchar            sync_off;         /* bit mask: don't use sync with these targets */
-#ifdef PROC_INTERFACE
-    uchar            proc;             /* bit mask: what's in proc output */
-#ifdef PROC_STATISTICS
-    unsigned long    cmd_cnt[8];       /* # of commands issued per target */
-    unsigned long    int_cnt;          /* # of interrupts serviced */
-    unsigned long    disc_allowed_cnt[8]; /* # of disconnects allowed per target */
-    unsigned long    disc_done_cnt[8]; /* # of disconnects done per target*/
-#endif
-#endif
-    };
-
-
-/* defines for hostdata->chip */
-
-#define C_WD33C93       0
-#define C_WD33C93A      1
-#define C_WD33C93B      2
-#define C_UNKNOWN_CHIP  100
-
-/* defines for hostdata->state */
-
-#define S_UNCONNECTED         0
-#define S_SELECTING           1
-#define S_RUNNING_LEVEL2      2
-#define S_CONNECTED           3
-#define S_PRE_TMP_DISC        4
-#define S_PRE_CMP_DISC        5
-
-/* defines for hostdata->fifo */
-
-#define FI_FIFO_UNUSED        0
-#define FI_FIFO_READING       1
-#define FI_FIFO_WRITING       2
-
-/* defines for hostdata->level2 */
-/* NOTE: only the first 3 are trustworthy at this point -
- * having trouble when more than 1 device is reading/writing
- * at the same time...
- */
-
-#define L2_NONE      0  /* no combination commands - we get lots of ints */
-#define L2_SELECT    1  /* start with SEL_ATN_XFER, but never resume it */
-#define L2_BASIC     2  /* resume after STATUS ints & RDP messages */
-#define L2_DATA      3  /* resume after DATA_IN/OUT ints */
-#define L2_MOST      4  /* resume after anything except a RESELECT int */
-#define L2_RESELECT  5  /* resume after everything, including RESELECT ints */
-#define L2_ALL       6  /* always resume */
-
-/* defines for hostdata->disconnect */
-
-#define DIS_NEVER    0
-#define DIS_ADAPTIVE 1
-#define DIS_ALWAYS   2
-
-/* defines for hostdata->args */
-
-#define DB_TEST               1<<0
-#define DB_FIFO               1<<1
-#define DB_QUEUE_COMMAND      1<<2
-#define DB_EXECUTE            1<<3
-#define DB_INTR               1<<4
-#define DB_TRANSFER           1<<5
-#define DB_MASK               0x3f
-
-#define A_NO_SCSI_RESET       1<<15
-
-
-/* defines for hostdata->sync_xfer[] */
-
-#define SS_UNSET     0
-#define SS_FIRST     1
-#define SS_WAITING   2
-#define SS_SET       3
-
-/* defines for hostdata->proc */
-
-#define PR_VERSION   1<<0
-#define PR_INFO      1<<1
-#define PR_STATISTICS 1<<2
-#define PR_CONNECTED 1<<3
-#define PR_INPUTQ    1<<4
-#define PR_DISCQ     1<<5
-#define PR_TEST      1<<6
-#define PR_STOP      1<<7
-
-
-# include <linux/init.h>
-# include <linux/spinlock.h>
-# define in2000__INITFUNC(function) __initfunc(function)
-# define in2000__INIT __init
-# define in2000__INITDATA __initdata
-# define CLISPIN_LOCK(host,flags)   spin_lock_irqsave(host->host_lock, flags)
-# define CLISPIN_UNLOCK(host,flags) spin_unlock_irqrestore(host->host_lock, \
-							   flags)
-
-static int in2000_detect(struct scsi_host_template *) in2000__INIT;
-static int in2000_queuecommand(struct Scsi_Host *, struct scsi_cmnd *);
-static int in2000_abort(Scsi_Cmnd *);
-static void in2000_setup(char *, int *) in2000__INIT;
-static int in2000_biosparam(struct scsi_device *, struct block_device *,
-		sector_t, int *);
-static int in2000_bus_reset(Scsi_Cmnd *);
-
-
-#define IN2000_CAN_Q    16
-#define IN2000_SG       SG_ALL
-#define IN2000_CPL      2
-#define IN2000_HOST_ID  7
-
-#endif /* IN2000_H */