Commit b46df356 authored by Joe Perches's avatar Joe Perches Committed by Linus Torvalds

drivers/block/floppy.c: use pr_<level>

Convert bare printk to pr_info and pr_cont
Convert printk(KERN_ERR to pr_err
Signed-off-by: default avatarJoe Perches <joe@perches.com>
Cc: Stephen Hemminger <shemminger@vyatta.com>
Cc: Jens Axboe <jens.axboe@oracle.com>
Cc: Marcin Slusarz <marcin.slusarz@gmail.com>
Cc: Bartlomiej Zolnierkiewicz <bzolnier@gmail.com>
Signed-off-by: default avatarAndrew Morton <akpm@linux-foundation.org>
Signed-off-by: default avatarLinus Torvalds <torvalds@linux-foundation.org>
parent 48c8cee6
...@@ -273,7 +273,7 @@ static inline void fallback_on_nodma_alloc(char **addr, size_t l) ...@@ -273,7 +273,7 @@ static inline void fallback_on_nodma_alloc(char **addr, size_t l)
return; /* we have the memory */ return; /* we have the memory */
if (can_use_virtual_dma != 2) if (can_use_virtual_dma != 2)
return; /* no fallback allowed */ return; /* no fallback allowed */
printk("DMA memory shortage. Temporarily falling back on virtual DMA\n"); pr_info("DMA memory shortage. Temporarily falling back on virtual DMA\n");
*addr = (char *)nodma_mem_alloc(l); *addr = (char *)nodma_mem_alloc(l);
#else #else
return; return;
...@@ -309,7 +309,7 @@ static int initialising = 1; ...@@ -309,7 +309,7 @@ static int initialising = 1;
#define UTESTF(x) test_bit(x##_BIT, &UDRS->flags) #define UTESTF(x) test_bit(x##_BIT, &UDRS->flags)
#define DPRINT(format, args...) \ #define DPRINT(format, args...) \
printk(DEVICE_NAME "%d: " format, current_drive, ##args) pr_info(DEVICE_NAME "%d: " format, current_drive, ##args)
#define PH_HEAD(floppy, head) (((((floppy)->stretch & 2) >> 1) ^ head) << 2) #define PH_HEAD(floppy, head) (((((floppy)->stretch & 2) >> 1) ^ head) << 2)
#define STRETCH(floppy) ((floppy)->stretch & FD_STRETCH) #define STRETCH(floppy) ((floppy)->stretch & FD_STRETCH)
...@@ -628,7 +628,7 @@ static inline void set_debugt(void) ...@@ -628,7 +628,7 @@ static inline void set_debugt(void)
static inline void debugt(const char *message) static inline void debugt(const char *message)
{ {
if (DP->flags & DEBUGT) if (DP->flags & DEBUGT)
printk("%s dtime=%lu\n", message, jiffies - debugtimer); pr_info("%s dtime=%lu\n", message, jiffies - debugtimer);
} }
#else #else
static inline void set_debugt(void) { } static inline void set_debugt(void) { }
...@@ -687,9 +687,7 @@ static void __reschedule_timeout(int drive, const char *message, int marg) ...@@ -687,9 +687,7 @@ static void __reschedule_timeout(int drive, const char *message, int marg)
fd_timeout.expires = jiffies + UDP->timeout; fd_timeout.expires = jiffies + UDP->timeout;
add_timer(&fd_timeout); add_timer(&fd_timeout);
if (UDP->flags & FD_DEBUG) { if (UDP->flags & FD_DEBUG) {
DPRINT("reschedule timeout "); DPRINT("reschedule timeout %s %d\n", message, marg);
printk(message, marg);
printk("\n");
} }
timeout_message = message; timeout_message = message;
} }
...@@ -861,7 +859,7 @@ static void set_fdc(int drive) ...@@ -861,7 +859,7 @@ static void set_fdc(int drive)
current_drive = drive; current_drive = drive;
} }
if (fdc != 1 && fdc != 0) { if (fdc != 1 && fdc != 0) {
printk("bad fdc value\n"); pr_info("bad fdc value\n");
return; return;
} }
set_dor(fdc, ~0, 8); set_dor(fdc, ~0, 8);
...@@ -878,8 +876,7 @@ static void set_fdc(int drive) ...@@ -878,8 +876,7 @@ static void set_fdc(int drive)
static int _lock_fdc(int drive, int interruptible, int line) static int _lock_fdc(int drive, int interruptible, int line)
{ {
if (!usage_count) { if (!usage_count) {
printk(KERN_ERR pr_err("Trying to lock fdc while usage count=0 at line %d\n",
"Trying to lock fdc while usage count=0 at line %d\n",
line); line);
return -1; return -1;
} }
...@@ -1115,16 +1112,16 @@ static void setup_DMA(void) ...@@ -1115,16 +1112,16 @@ static void setup_DMA(void)
if (raw_cmd->length == 0) { if (raw_cmd->length == 0) {
int i; int i;
printk("zero dma transfer size:"); pr_info("zero dma transfer size:");
for (i = 0; i < raw_cmd->cmd_count; i++) for (i = 0; i < raw_cmd->cmd_count; i++)
printk("%x,", raw_cmd->cmd[i]); pr_cont("%x,", raw_cmd->cmd[i]);
printk("\n"); pr_cont("\n");
cont->done(0); cont->done(0);
FDCS->reset = 1; FDCS->reset = 1;
return; return;
} }
if (((unsigned long)raw_cmd->kernel_data) % 512) { if (((unsigned long)raw_cmd->kernel_data) % 512) {
printk("non aligned address: %p\n", raw_cmd->kernel_data); pr_info("non aligned address: %p\n", raw_cmd->kernel_data);
cont->done(0); cont->done(0);
FDCS->reset = 1; FDCS->reset = 1;
return; return;
...@@ -1427,10 +1424,40 @@ static int fdc_dtr(void) ...@@ -1427,10 +1424,40 @@ static int fdc_dtr(void)
static void tell_sector(void) static void tell_sector(void)
{ {
printk(": track %d, head %d, sector %d, size %d", pr_cont(": track %d, head %d, sector %d, size %d",
R_TRACK, R_HEAD, R_SECTOR, R_SIZECODE); R_TRACK, R_HEAD, R_SECTOR, R_SIZECODE);
} /* tell_sector */ } /* tell_sector */
static void print_errors(void)
{
DPRINT("");
if (ST0 & ST0_ECE) {
pr_cont("Recalibrate failed!");
} else if (ST2 & ST2_CRC) {
pr_cont("data CRC error");
tell_sector();
} else if (ST1 & ST1_CRC) {
pr_cont("CRC error");
tell_sector();
} else if ((ST1 & (ST1_MAM | ST1_ND)) ||
(ST2 & ST2_MAM)) {
if (!probing) {
pr_cont("sector not found");
tell_sector();
} else
pr_cont("probe failed...");
} else if (ST2 & ST2_WC) { /* seek error */
pr_cont("wrong cylinder");
} else if (ST2 & ST2_BC) { /* cylinder marked as bad */
pr_cont("bad cylinder");
} else {
pr_cont("unknown error. ST[0..2] are: 0x%x 0x%x 0x%x",
ST0, ST1, ST2);
tell_sector();
}
pr_cont("\n");
}
/* /*
* OK, this error interpreting routine is called after a * OK, this error interpreting routine is called after a
* DMA read/write has succeeded * DMA read/write has succeeded
...@@ -1466,33 +1493,7 @@ static int interpret_errors(void) ...@@ -1466,33 +1493,7 @@ static int interpret_errors(void)
DPRINT("Over/Underrun - retrying\n"); DPRINT("Over/Underrun - retrying\n");
bad = 0; bad = 0;
} else if (*errors >= DP->max_errors.reporting) { } else if (*errors >= DP->max_errors.reporting) {
DPRINT(""); print_errors();
if (ST0 & ST0_ECE) {
printk("Recalibrate failed!");
} else if (ST2 & ST2_CRC) {
printk("data CRC error");
tell_sector();
} else if (ST1 & ST1_CRC) {
printk("CRC error");
tell_sector();
} else if ((ST1 & (ST1_MAM | ST1_ND))
|| (ST2 & ST2_MAM)) {
if (!probing) {
printk("sector not found");
tell_sector();
} else
printk("probe failed...");
} else if (ST2 & ST2_WC) { /* seek error */
printk("wrong cylinder");
} else if (ST2 & ST2_BC) { /* cylinder marked as bad */
printk("bad cylinder");
} else {
printk
("unknown error. ST[0..2] are: 0x%x 0x%x 0x%x",
ST0, ST1, ST2);
tell_sector();
}
printk("\n");
} }
if (ST2 & ST2_WC || ST2 & ST2_BC) if (ST2 & ST2_WC || ST2 & ST2_BC)
/* wrong cylinder => recal */ /* wrong cylinder => recal */
...@@ -1591,8 +1592,7 @@ static void seek_interrupt(void) ...@@ -1591,8 +1592,7 @@ static void seek_interrupt(void)
if (DRS->track >= 0 && DRS->track != ST1 && !blind_seek) { if (DRS->track >= 0 && DRS->track != ST1 && !blind_seek) {
#ifdef DCL_DEBUG #ifdef DCL_DEBUG
if (DP->flags & FD_DEBUG) { if (DP->flags & FD_DEBUG) {
DPRINT DPRINT("clearing NEWCHANGE flag because of effective seek\n");
("clearing NEWCHANGE flag because of effective seek\n");
DPRINT("jiffies=%lu\n", jiffies); DPRINT("jiffies=%lu\n", jiffies);
} }
#endif #endif
...@@ -1712,10 +1712,8 @@ static void recal_interrupt(void) ...@@ -1712,10 +1712,8 @@ static void recal_interrupt(void)
* be already at track 0.) Clear the * be already at track 0.) Clear the
* new change flag */ * new change flag */
#ifdef DCL_DEBUG #ifdef DCL_DEBUG
if (DP->flags & FD_DEBUG) { if (DP->flags & FD_DEBUG)
DPRINT DPRINT("clearing NEWCHANGE flag because of second recalibrate\n");
("clearing NEWCHANGE flag because of second recalibrate\n");
}
#endif #endif
CLEARF(FD_DISK_NEWCHANGE); CLEARF(FD_DISK_NEWCHANGE);
...@@ -1744,8 +1742,8 @@ static void print_result(char *message, int inr) ...@@ -1744,8 +1742,8 @@ static void print_result(char *message, int inr)
DPRINT("%s ", message); DPRINT("%s ", message);
if (inr >= 0) if (inr >= 0)
for (i = 0; i < inr; i++) for (i = 0; i < inr; i++)
printk("repl[%d]=%x ", i, reply_buffer[i]); pr_cont("repl[%d]=%x ", i, reply_buffer[i]);
printk("\n"); pr_cont("\n");
} }
/* interrupt handler. Note that this can be called externally on the Sparc */ /* interrupt handler. Note that this can be called externally on the Sparc */
...@@ -1766,9 +1764,9 @@ irqreturn_t floppy_interrupt(int irq, void *dev_id) ...@@ -1766,9 +1764,9 @@ irqreturn_t floppy_interrupt(int irq, void *dev_id)
do_floppy = NULL; do_floppy = NULL;
if (fdc >= N_FDC || FDCS->address == -1) { if (fdc >= N_FDC || FDCS->address == -1) {
/* we don't even know which FDC is the culprit */ /* we don't even know which FDC is the culprit */
printk("DOR0=%x\n", fdc_state[0].dor); pr_info("DOR0=%x\n", fdc_state[0].dor);
printk("floppy interrupt on bizarre fdc %d\n", fdc); pr_info("floppy interrupt on bizarre fdc %d\n", fdc);
printk("handler=%p\n", handler); pr_info("handler=%p\n", handler);
is_alive("bizarre fdc"); is_alive("bizarre fdc");
return IRQ_NONE; return IRQ_NONE;
} }
...@@ -1826,7 +1824,7 @@ static void reset_interrupt(void) ...@@ -1826,7 +1824,7 @@ static void reset_interrupt(void)
debugt("reset interrupt:"); debugt("reset interrupt:");
result(); /* get the status ready for set_fdc */ result(); /* get the status ready for set_fdc */
if (FDCS->reset) { if (FDCS->reset) {
printk("reset set in interrupt, calling %p\n", cont->error); pr_info("reset set in interrupt, calling %p\n", cont->error);
cont->error(); /* a reset just after a reset. BAD! */ cont->error(); /* a reset just after a reset. BAD! */
} }
cont->redo(); cont->redo();
...@@ -1864,46 +1862,44 @@ static void show_floppy(void) ...@@ -1864,46 +1862,44 @@ static void show_floppy(void)
{ {
int i; int i;
printk("\n"); pr_info("\n");
printk("floppy driver state\n"); pr_info("floppy driver state\n");
printk("-------------------\n"); pr_info("-------------------\n");
printk("now=%lu last interrupt=%lu diff=%lu last called handler=%p\n", pr_info("now=%lu last interrupt=%lu diff=%lu last called handler=%p\n",
jiffies, interruptjiffies, jiffies - interruptjiffies, jiffies, interruptjiffies, jiffies - interruptjiffies,
lasthandler); lasthandler);
#ifdef FLOPPY_SANITY_CHECK #ifdef FLOPPY_SANITY_CHECK
printk("timeout_message=%s\n", timeout_message); pr_info("timeout_message=%s\n", timeout_message);
printk("last output bytes:\n"); pr_info("last output bytes:\n");
for (i = 0; i < OLOGSIZE; i++) for (i = 0; i < OLOGSIZE; i++)
printk("%2x %2x %lu\n", pr_info("%2x %2x %lu\n",
output_log[(i + output_log_pos) % OLOGSIZE].data, output_log[(i + output_log_pos) % OLOGSIZE].data,
output_log[(i + output_log_pos) % OLOGSIZE].status, output_log[(i + output_log_pos) % OLOGSIZE].status,
output_log[(i + output_log_pos) % OLOGSIZE].jiffies); output_log[(i + output_log_pos) % OLOGSIZE].jiffies);
printk("last result at %lu\n", resultjiffies); pr_info("last result at %lu\n", resultjiffies);
printk("last redo_fd_request at %lu\n", lastredo); pr_info("last redo_fd_request at %lu\n", lastredo);
for (i = 0; i < resultsize; i++) { print_hex_dump(KERN_INFO, "", DUMP_PREFIX_NONE, 16, 1,
printk("%2x ", reply_buffer[i]); reply_buffer, resultsize, true);
}
printk("\n");
#endif #endif
printk("status=%x\n", fd_inb(FD_STATUS)); pr_info("status=%x\n", fd_inb(FD_STATUS));
printk("fdc_busy=%lu\n", fdc_busy); pr_info("fdc_busy=%lu\n", fdc_busy);
if (do_floppy) if (do_floppy)
printk("do_floppy=%p\n", do_floppy); pr_info("do_floppy=%p\n", do_floppy);
if (work_pending(&floppy_work)) if (work_pending(&floppy_work))
printk("floppy_work.func=%p\n", floppy_work.func); pr_info("floppy_work.func=%p\n", floppy_work.func);
if (timer_pending(&fd_timer)) if (timer_pending(&fd_timer))
printk("fd_timer.function=%p\n", fd_timer.function); pr_info("fd_timer.function=%p\n", fd_timer.function);
if (timer_pending(&fd_timeout)) { if (timer_pending(&fd_timeout)) {
printk("timer_function=%p\n", fd_timeout.function); pr_info("timer_function=%p\n", fd_timeout.function);
printk("expires=%lu\n", fd_timeout.expires - jiffies); pr_info("expires=%lu\n", fd_timeout.expires - jiffies);
printk("now=%lu\n", jiffies); pr_info("now=%lu\n", jiffies);
} }
printk("cont=%p\n", cont); pr_info("cont=%p\n", cont);
printk("current_req=%p\n", current_req); pr_info("current_req=%p\n", current_req);
printk("command_status=%d\n", command_status); pr_info("command_status=%d\n", command_status);
printk("\n"); pr_info("\n");
} }
static void floppy_shutdown(unsigned long data) static void floppy_shutdown(unsigned long data)
...@@ -1929,7 +1925,7 @@ static void floppy_shutdown(unsigned long data) ...@@ -1929,7 +1925,7 @@ static void floppy_shutdown(unsigned long data)
cont->done(0); cont->done(0);
cont->redo(); /* this will recall reset when needed */ cont->redo(); /* this will recall reset when needed */
} else { } else {
printk("no cont in shutdown!\n"); pr_info("no cont in shutdown!\n");
process_fd_request(); process_fd_request();
} }
is_alive("floppy shutdown"); is_alive("floppy shutdown");
...@@ -2329,10 +2325,10 @@ static void request_done(int uptodate) ...@@ -2329,10 +2325,10 @@ static void request_done(int uptodate)
int block; int block;
probing = 0; probing = 0;
reschedule_timeout(MAXTIMEOUT, "request done %d", uptodate); reschedule_timeout(MAXTIMEOUT, "request done", uptodate);
if (!req) { if (!req) {
printk("floppy.c: no request in request_done\n"); pr_info("floppy.c: no request in request_done\n");
return; return;
} }
...@@ -2405,13 +2401,13 @@ static void rw_interrupt(void) ...@@ -2405,13 +2401,13 @@ static void rw_interrupt(void)
DIV_ROUND_UP(in_sector_offset + current_count_sectors, ssize)) { DIV_ROUND_UP(in_sector_offset + current_count_sectors, ssize)) {
DPRINT("long rw: %x instead of %lx\n", DPRINT("long rw: %x instead of %lx\n",
nr_sectors, current_count_sectors); nr_sectors, current_count_sectors);
printk("rs=%d s=%d\n", R_SECTOR, SECTOR); pr_info("rs=%d s=%d\n", R_SECTOR, SECTOR);
printk("rh=%d h=%d\n", R_HEAD, HEAD); pr_info("rh=%d h=%d\n", R_HEAD, HEAD);
printk("rt=%d t=%d\n", R_TRACK, TRACK); pr_info("rt=%d t=%d\n", R_TRACK, TRACK);
printk("heads=%d eoc=%d\n", heads, eoc); pr_info("heads=%d eoc=%d\n", heads, eoc);
printk("spt=%d st=%d ss=%d\n", SECT_PER_TRACK, pr_info("spt=%d st=%d ss=%d\n",
fsector_t, ssize); SECT_PER_TRACK, fsector_t, ssize);
printk("in_sector_offset=%d\n", in_sector_offset); pr_info("in_sector_offset=%d\n", in_sector_offset);
} }
#endif #endif
...@@ -2521,14 +2517,14 @@ static void copy_buffer(int ssize, int max_sector, int max_sector_2) ...@@ -2521,14 +2517,14 @@ static void copy_buffer(int ssize, int max_sector, int max_sector_2)
#ifdef FLOPPY_SANITY_CHECK #ifdef FLOPPY_SANITY_CHECK
if (remaining > blk_rq_bytes(current_req) && CT(COMMAND) == FD_WRITE) { if (remaining > blk_rq_bytes(current_req) && CT(COMMAND) == FD_WRITE) {
DPRINT("in copy buffer\n"); DPRINT("in copy buffer\n");
printk("current_count_sectors=%ld\n", current_count_sectors); pr_info("current_count_sectors=%ld\n", current_count_sectors);
printk("remaining=%d\n", remaining >> 9); pr_info("remaining=%d\n", remaining >> 9);
printk("current_req->nr_sectors=%u\n", pr_info("current_req->nr_sectors=%u\n",
blk_rq_sectors(current_req)); blk_rq_sectors(current_req));
printk("current_req->current_nr_sectors=%u\n", pr_info("current_req->current_nr_sectors=%u\n",
blk_rq_cur_sectors(current_req)); blk_rq_cur_sectors(current_req));
printk("max_sector=%d\n", max_sector); pr_info("max_sector=%d\n", max_sector);
printk("ssize=%d\n", ssize); pr_info("ssize=%d\n", ssize);
} }
#endif #endif
...@@ -2551,16 +2547,15 @@ static void copy_buffer(int ssize, int max_sector, int max_sector_2) ...@@ -2551,16 +2547,15 @@ static void copy_buffer(int ssize, int max_sector, int max_sector_2)
floppy_track_buffer + (max_buffer_sectors << 10) || floppy_track_buffer + (max_buffer_sectors << 10) ||
dma_buffer < floppy_track_buffer) { dma_buffer < floppy_track_buffer) {
DPRINT("buffer overrun in copy buffer %d\n", DPRINT("buffer overrun in copy buffer %d\n",
(int)((floppy_track_buffer - (int)((floppy_track_buffer - dma_buffer) >> 9));
dma_buffer) >> 9)); pr_info("fsector_t=%d buffer_min=%d\n",
printk("fsector_t=%d buffer_min=%d\n", fsector_t, buffer_min);
fsector_t, buffer_min); pr_info("current_count_sectors=%ld\n",
printk("current_count_sectors=%ld\n", current_count_sectors);
current_count_sectors);
if (CT(COMMAND) == FD_READ) if (CT(COMMAND) == FD_READ)
printk("read\n"); pr_info("read\n");
if (CT(COMMAND) == FD_WRITE) if (CT(COMMAND) == FD_WRITE)
printk("write\n"); pr_info("write\n");
break; break;
} }
if (((unsigned long)buffer) % 512) if (((unsigned long)buffer) % 512)
...@@ -2602,8 +2597,8 @@ static void virtualdmabug_workaround(void) ...@@ -2602,8 +2597,8 @@ static void virtualdmabug_workaround(void)
end_sector = SECTOR + hard_sectors - 1; end_sector = SECTOR + hard_sectors - 1;
#ifdef FLOPPY_SANITY_CHECK #ifdef FLOPPY_SANITY_CHECK
if (end_sector > SECT_PER_TRACK) { if (end_sector > SECT_PER_TRACK) {
printk("too many sectors %d > %d\n", pr_info("too many sectors %d > %d\n",
end_sector, SECT_PER_TRACK); end_sector, SECT_PER_TRACK);
return; return;
} }
#endif #endif
...@@ -2632,7 +2627,7 @@ static int make_raw_rw_request(void) ...@@ -2632,7 +2627,7 @@ static int make_raw_rw_request(void)
int ssize; int ssize;
if (max_buffer_sectors == 0) { if (max_buffer_sectors == 0) {
printk("VFS: Block I/O scheduled on unopened device\n"); pr_info("VFS: Block I/O scheduled on unopened device\n");
return 0; return 0;
} }
...@@ -2853,19 +2848,19 @@ static int make_raw_rw_request(void) ...@@ -2853,19 +2848,19 @@ static int make_raw_rw_request(void)
DPRINT("fractionary current count b=%lx s=%lx\n", DPRINT("fractionary current count b=%lx s=%lx\n",
raw_cmd->length, current_count_sectors); raw_cmd->length, current_count_sectors);
if (raw_cmd->kernel_data != current_req->buffer) if (raw_cmd->kernel_data != current_req->buffer)
printk("addr=%d, length=%ld\n", pr_info("addr=%d, length=%ld\n",
(int)((raw_cmd->kernel_data - (int)((raw_cmd->kernel_data -
floppy_track_buffer) >> 9), floppy_track_buffer) >> 9),
current_count_sectors); current_count_sectors);
printk("st=%d ast=%d mse=%d msi=%d\n", pr_info("st=%d ast=%d mse=%d msi=%d\n",
fsector_t, aligned_sector_t, max_sector, max_size); fsector_t, aligned_sector_t, max_sector, max_size);
printk("ssize=%x SIZECODE=%d\n", ssize, SIZECODE); pr_info("ssize=%x SIZECODE=%d\n", ssize, SIZECODE);
printk("command=%x SECTOR=%d HEAD=%d, TRACK=%d\n", pr_info("command=%x SECTOR=%d HEAD=%d, TRACK=%d\n",
COMMAND, SECTOR, HEAD, TRACK); COMMAND, SECTOR, HEAD, TRACK);
printk("buffer drive=%d\n", buffer_drive); pr_info("buffer drive=%d\n", buffer_drive);
printk("buffer track=%d\n", buffer_track); pr_info("buffer track=%d\n", buffer_track);
printk("buffer_min=%d\n", buffer_min); pr_info("buffer_min=%d\n", buffer_min);
printk("buffer_max=%d\n", buffer_max); pr_info("buffer_max=%d\n", buffer_max);
return 0; return 0;
} }
...@@ -2876,14 +2871,14 @@ static int make_raw_rw_request(void) ...@@ -2876,14 +2871,14 @@ static int make_raw_rw_request(void)
raw_cmd->kernel_data + raw_cmd->length > raw_cmd->kernel_data + raw_cmd->length >
floppy_track_buffer + (max_buffer_sectors << 10)) { floppy_track_buffer + (max_buffer_sectors << 10)) {
DPRINT("buffer overrun in schedule dma\n"); DPRINT("buffer overrun in schedule dma\n");
printk("fsector_t=%d buffer_min=%d current_count=%ld\n", pr_info("fsector_t=%d buffer_min=%d current_count=%ld\n",
fsector_t, buffer_min, raw_cmd->length >> 9); fsector_t, buffer_min, raw_cmd->length >> 9);
printk("current_count_sectors=%ld\n", pr_info("current_count_sectors=%ld\n",
current_count_sectors); current_count_sectors);
if (CT(COMMAND) == FD_READ) if (CT(COMMAND) == FD_READ)
printk("read\n"); pr_info("read\n");
if (CT(COMMAND) == FD_WRITE) if (CT(COMMAND) == FD_WRITE)
printk("write\n"); pr_info("write\n");
return 0; return 0;
} }
} else if (raw_cmd->length > blk_rq_bytes(current_req) || } else if (raw_cmd->length > blk_rq_bytes(current_req) ||
...@@ -2892,8 +2887,8 @@ static int make_raw_rw_request(void) ...@@ -2892,8 +2887,8 @@ static int make_raw_rw_request(void)
return 0; return 0;
} else if (raw_cmd->length < current_count_sectors << 9) { } else if (raw_cmd->length < current_count_sectors << 9) {
DPRINT("more sectors than bytes\n"); DPRINT("more sectors than bytes\n");
printk("bytes=%ld\n", raw_cmd->length >> 9); pr_info("bytes=%ld\n", raw_cmd->length >> 9);
printk("sectors=%ld\n", current_count_sectors); pr_info("sectors=%ld\n", current_count_sectors);
} }
if (raw_cmd->length == 0) { if (raw_cmd->length == 0) {
DPRINT("zero dma transfer attempted from make_raw_request\n"); DPRINT("zero dma transfer attempted from make_raw_request\n");
...@@ -2990,16 +2985,16 @@ static void process_fd_request(void) ...@@ -2990,16 +2985,16 @@ static void process_fd_request(void)
static void do_fd_request(struct request_queue * q) static void do_fd_request(struct request_queue * q)
{ {
if (max_buffer_sectors == 0) { if (max_buffer_sectors == 0) {
printk("VFS: do_fd_request called on non-open device\n"); pr_info("VFS: do_fd_request called on non-open device\n");
return; return;
} }
if (usage_count == 0) { if (usage_count == 0) {
printk("warning: usage count=0, current_req=%p exiting\n", pr_info("warning: usage count=0, current_req=%p exiting\n",
current_req); current_req);
printk("sect=%ld type=%x flags=%x\n", pr_info("sect=%ld type=%x flags=%x\n",
(long)blk_rq_pos(current_req), current_req->cmd_type, (long)blk_rq_pos(current_req), current_req->cmd_type,
current_req->cmd_flags); current_req->cmd_flags);
return; return;
} }
if (test_bit(0, &fdc_busy)) { if (test_bit(0, &fdc_busy)) {
...@@ -3047,7 +3042,7 @@ static int poll_drive(int interruptible, int flag) ...@@ -3047,7 +3042,7 @@ static int poll_drive(int interruptible, int flag)
static void reset_intr(void) static void reset_intr(void)
{ {
printk("weird, reset interrupt called\n"); pr_info("weird, reset interrupt called\n");
} }
static struct cont_t reset_cont = { static struct cont_t reset_cont = {
...@@ -3426,7 +3421,7 @@ static inline int normalize_ioctl(int *cmd, int *size) ...@@ -3426,7 +3421,7 @@ static inline int normalize_ioctl(int *cmd, int *size)
*size = _IOC_SIZE(*cmd); *size = _IOC_SIZE(*cmd);
*cmd = ioctl_table[i]; *cmd = ioctl_table[i];
if (*size > _IOC_SIZE(*cmd)) { if (*size > _IOC_SIZE(*cmd)) {
printk("ioctl not yet supported\n"); pr_info("ioctl not yet supported\n");
return -EFAULT; return -EFAULT;
} }
return 0; return 0;
...@@ -3634,7 +3629,7 @@ static int fd_ioctl(struct block_device *bdev, fmode_t mode, unsigned int cmd, ...@@ -3634,7 +3629,7 @@ static int fd_ioctl(struct block_device *bdev, fmode_t mode, unsigned int cmd,
static void __init config_types(void) static void __init config_types(void)
{ {
int first = 1; bool has_drive = false;
int drive; int drive;
/* read drive info out of physical CMOS */ /* read drive info out of physical CMOS */
...@@ -3666,17 +3661,22 @@ static void __init config_types(void) ...@@ -3666,17 +3661,22 @@ static void __init config_types(void)
name = temparea; name = temparea;
} }
if (name) { if (name) {
const char *prepend = ","; const char *prepend;
if (first) { if (!has_drive) {
prepend = KERN_INFO "Floppy drive(s):"; prepend = "";
first = 0; has_drive = true;
pr_info("Floppy drive(s):");
} else {
prepend = ",";
} }
printk("%s fd%d is %s", prepend, drive, name);
pr_cont("%s fd%d is %s", prepend, drive, name);
} }
*UDP = *params; *UDP = *params;
} }
if (!first)
printk("\n"); if (has_drive)
pr_cont("\n");
} }
static int floppy_release(struct gendisk *disk, fmode_t mode) static int floppy_release(struct gendisk *disk, fmode_t mode)
...@@ -3891,7 +3891,7 @@ static int floppy_revalidate(struct gendisk *disk) ...@@ -3891,7 +3891,7 @@ static int floppy_revalidate(struct gendisk *disk)
if (UTESTF(FD_DISK_CHANGED) || if (UTESTF(FD_DISK_CHANGED) ||
UTESTF(FD_VERIFY) || test_bit(drive, &fake_change) || NO_GEOM) { UTESTF(FD_VERIFY) || test_bit(drive, &fake_change) || NO_GEOM) {
if (usage_count == 0) { if (usage_count == 0) {
printk("VFS: revalidate called on non-open device.\n"); pr_info("VFS: revalidate called on non-open device.\n");
return -EFAULT; return -EFAULT;
} }
lock_fdc(drive, 0); lock_fdc(drive, 0);
...@@ -3948,18 +3948,17 @@ static char __init get_fdc_version(void) ...@@ -3948,18 +3948,17 @@ static char __init get_fdc_version(void)
if ((r = result()) <= 0x00) if ((r = result()) <= 0x00)
return FDC_NONE; /* No FDC present ??? */ return FDC_NONE; /* No FDC present ??? */
if ((r == 1) && (reply_buffer[0] == 0x80)) { if ((r == 1) && (reply_buffer[0] == 0x80)) {
printk(KERN_INFO "FDC %d is an 8272A\n", fdc); pr_info("FDC %d is an 8272A\n", fdc);
return FDC_8272A; /* 8272a/765 don't know DUMPREGS */ return FDC_8272A; /* 8272a/765 don't know DUMPREGS */
} }
if (r != 10) { if (r != 10) {
printk pr_info("FDC %d init: DUMPREGS: unexpected return of %d bytes.\n",
("FDC %d init: DUMPREGS: unexpected return of %d bytes.\n", fdc, r);
fdc, r);
return FDC_UNKNOWN; return FDC_UNKNOWN;
} }
if (!fdc_configure()) { if (!fdc_configure()) {
printk(KERN_INFO "FDC %d is an 82072\n", fdc); pr_info("FDC %d is an 82072\n", fdc);
return FDC_82072; /* 82072 doesn't know CONFIGURE */ return FDC_82072; /* 82072 doesn't know CONFIGURE */
} }
...@@ -3967,52 +3966,50 @@ static char __init get_fdc_version(void) ...@@ -3967,52 +3966,50 @@ static char __init get_fdc_version(void)
if (need_more_output() == MORE_OUTPUT) { if (need_more_output() == MORE_OUTPUT) {
output_byte(0); output_byte(0);
} else { } else {
printk(KERN_INFO "FDC %d is an 82072A\n", fdc); pr_info("FDC %d is an 82072A\n", fdc);
return FDC_82072A; /* 82072A as found on Sparcs. */ return FDC_82072A; /* 82072A as found on Sparcs. */
} }
output_byte(FD_UNLOCK); output_byte(FD_UNLOCK);
r = result(); r = result();
if ((r == 1) && (reply_buffer[0] == 0x80)) { if ((r == 1) && (reply_buffer[0] == 0x80)) {
printk(KERN_INFO "FDC %d is a pre-1991 82077\n", fdc); pr_info("FDC %d is a pre-1991 82077\n", fdc);
return FDC_82077_ORIG; /* Pre-1991 82077, doesn't know return FDC_82077_ORIG; /* Pre-1991 82077, doesn't know
* LOCK/UNLOCK */ * LOCK/UNLOCK */
} }
if ((r != 1) || (reply_buffer[0] != 0x00)) { if ((r != 1) || (reply_buffer[0] != 0x00)) {
printk("FDC %d init: UNLOCK: unexpected return of %d bytes.\n", pr_info("FDC %d init: UNLOCK: unexpected return of %d bytes.\n",
fdc, r); fdc, r);
return FDC_UNKNOWN; return FDC_UNKNOWN;
} }
output_byte(FD_PARTID); output_byte(FD_PARTID);
r = result(); r = result();
if (r != 1) { if (r != 1) {
printk("FDC %d init: PARTID: unexpected return of %d bytes.\n", pr_info("FDC %d init: PARTID: unexpected return of %d bytes.\n",
fdc, r); fdc, r);
return FDC_UNKNOWN; return FDC_UNKNOWN;
} }
if (reply_buffer[0] == 0x80) { if (reply_buffer[0] == 0x80) {
printk(KERN_INFO "FDC %d is a post-1991 82077\n", fdc); pr_info("FDC %d is a post-1991 82077\n", fdc);
return FDC_82077; /* Revised 82077AA passes all the tests */ return FDC_82077; /* Revised 82077AA passes all the tests */
} }
switch (reply_buffer[0] >> 5) { switch (reply_buffer[0] >> 5) {
case 0x0: case 0x0:
/* Either a 82078-1 or a 82078SL running at 5Volt */ /* Either a 82078-1 or a 82078SL running at 5Volt */
printk(KERN_INFO "FDC %d is an 82078.\n", fdc); pr_info("FDC %d is an 82078.\n", fdc);
return FDC_82078; return FDC_82078;
case 0x1: case 0x1:
printk(KERN_INFO "FDC %d is a 44pin 82078\n", fdc); pr_info("FDC %d is a 44pin 82078\n", fdc);
return FDC_82078; return FDC_82078;
case 0x2: case 0x2:
printk(KERN_INFO "FDC %d is a S82078B\n", fdc); pr_info("FDC %d is a S82078B\n", fdc);
return FDC_S82078B; return FDC_S82078B;
case 0x3: case 0x3:
printk(KERN_INFO "FDC %d is a National Semiconductor PC87306\n", pr_info("FDC %d is a National Semiconductor PC87306\n", fdc);
fdc);
return FDC_87306; return FDC_87306;
default: default:
printk(KERN_INFO pr_info("FDC %d init: 82078 variant with unknown PARTID=%d.\n",
"FDC %d init: 82078 variant with unknown PARTID=%d.\n", fdc, reply_buffer[0] >> 5);
fdc, reply_buffer[0] >> 5);
return FDC_82078_UNKN; return FDC_82078_UNKN;
} }
} /* get_fdc_version */ } /* get_fdc_version */
...@@ -4140,8 +4137,8 @@ static int __init floppy_setup(char *str) ...@@ -4140,8 +4137,8 @@ static int __init floppy_setup(char *str)
DPRINT("allowed options are:"); DPRINT("allowed options are:");
for (i = 0; i < ARRAY_SIZE(config_params); i++) for (i = 0; i < ARRAY_SIZE(config_params); i++)
printk(" %s", config_params[i].name); pr_cont(" %s", config_params[i].name);
printk("\n"); pr_cont("\n");
} else } else
DPRINT("botched floppy option\n"); DPRINT("botched floppy option\n");
DPRINT("Read Documentation/blockdev/floppy.txt\n"); DPRINT("Read Documentation/blockdev/floppy.txt\n");
...@@ -4563,15 +4560,15 @@ static void floppy_release_irq_and_dma(void) ...@@ -4563,15 +4560,15 @@ static void floppy_release_irq_and_dma(void)
#ifndef __sparc__ #ifndef __sparc__
for (drive = 0; drive < N_FDC * 4; drive++) for (drive = 0; drive < N_FDC * 4; drive++)
if (timer_pending(motor_off_timer + drive)) if (timer_pending(motor_off_timer + drive))
printk("motor off timer %d still active\n", drive); pr_info("motor off timer %d still active\n", drive);
#endif #endif
if (timer_pending(&fd_timeout)) if (timer_pending(&fd_timeout))
printk("floppy timer still active:%s\n", timeout_message); pr_info("floppy timer still active:%s\n", timeout_message);
if (timer_pending(&fd_timer)) if (timer_pending(&fd_timer))
printk("auxiliary floppy timer still active\n"); pr_info("auxiliary floppy timer still active\n");
if (work_pending(&floppy_work)) if (work_pending(&floppy_work))
printk("work still pending\n"); pr_info("work still pending\n");
#endif #endif
old_fdc = fdc; old_fdc = fdc;
for (fdc = 0; fdc < N_FDC; fdc++) for (fdc = 0; fdc < N_FDC; fdc++)
......
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