/*
- * Copyright (c) 2000 Apple Computer, Inc. All rights reserved.
+ * Copyright (c) 2000-2005 Apple Computer, Inc. All rights reserved.
*
* @APPLE_LICENSE_HEADER_START@
*
- * Copyright (c) 1999-2003 Apple Computer, Inc. All Rights Reserved.
+ * The contents of this file constitute Original Code as defined in and
+ * are subject to the Apple Public Source License Version 1.1 (the
+ * "License"). You may not use this file except in compliance with the
+ * License. Please obtain a copy of the License at
+ * http://www.apple.com/publicsource and read it before using this file.
*
- * This file contains Original Code and/or Modifications of Original Code
- * as defined in and that are subject to the Apple Public Source License
- * Version 2.0 (the 'License'). You may not use this file except in
- * compliance with the License. Please obtain a copy of the License at
- * http://www.opensource.apple.com/apsl/ and read it before using this
- * file.
- *
- * The Original Code and all software distributed under the License are
- * distributed on an 'AS IS' basis, WITHOUT WARRANTY OF ANY KIND, EITHER
+ * This Original Code and all software distributed under the License are
+ * distributed on an "AS IS" basis, WITHOUT WARRANTY OF ANY KIND, EITHER
* EXPRESS OR IMPLIED, AND APPLE HEREBY DISCLAIMS ALL SUCH WARRANTIES,
* INCLUDING WITHOUT LIMITATION, ANY WARRANTIES OF MERCHANTABILITY,
- * FITNESS FOR A PARTICULAR PURPOSE, QUIET ENJOYMENT OR NON-INFRINGEMENT.
- * Please see the License for the specific language governing rights and
- * limitations under the License.
+ * FITNESS FOR A PARTICULAR PURPOSE OR NON-INFRINGEMENT. Please see the
+ * License for the specific language governing rights and limitations
+ * under the License.
*
* @APPLE_LICENSE_HEADER_END@
*/
#include <mach_kdb.h>
#include <mach_kdp.h>
#include <db_machine_commands.h>
-#include <cpus.h>
#include <kern/thread.h>
#include <machine/pmap.h>
-#include <machine/mach_param.h>
#include <device/device_types.h>
#include <mach/vm_param.h>
#include <ppc/low_trace.h>
#include <ppc/mappings.h>
#include <ppc/FirmwareCalls.h>
-#include <ppc/setjmp.h>
+#include <ppc/cpu_internal.h>
#include <ppc/exception.h>
+#include <ppc/hw_perfmon.h>
+#include <ppc/lowglobals.h>
#include <kern/clock.h>
#include <kern/debug.h>
#include <machine/trap.h>
#include <kern/spl.h>
#include <pexpert/pexpert.h>
-#include <ppc/mp.h>
#include <IOKit/IOPlatformExpert.h>
int debugger_cpu = -1; /* current cpu running debugger */
int debugger_debug = 0; /* Debug debugger */
-int debugger_is_slave[NCPUS]; /* Show that we were entered via sigp */
-int debugger_active[NCPUS]; /* Debugger active on CPU */
-int debugger_pending[NCPUS]; /* Debugger entry pending on CPU (this is a HACK) */
-int debugger_holdoff[NCPUS]; /* Holdoff debugger entry on this CPU (this is a HACK) */
int db_run_mode; /* Debugger run mode */
unsigned int debugger_sync = 0; /* Cross processor debugger entry sync */
extern unsigned int NMIss; /* NMI debounce switch */
unsigned int lastTrace; /* Value of low-level exception trace controls */
+
volatile unsigned int cpus_holding_bkpts; /* counter for number of cpus holding
breakpoints (ie: cpus that did not
insert back breakpoints) */
void unlock_debugger(void);
void lock_debugger(void);
-void dump_backtrace(unsigned int stackptr, unsigned int fence);
+void dump_backtrace(savearea *sv, unsigned int stackptr, unsigned int fence);
void dump_savearea(savearea *sv, unsigned int fence);
+int packAsc (unsigned char *inbuf, unsigned int length);
+
#if !MACH_KDB
boolean_t db_breakpoints_inserted = TRUE;
jmp_buf_t *db_recover = 0;
"No saveareas", /* failNoSavearea */
"Savearea corruption", /* failSaveareaCorr */
"Invalid live context", /* failBadLiveContext */
+ "Corrupt skip lists", /* failSkipLists */
+ "Unaligned stack", /* failUnalignedStk */
+ "Invalid pmap", /* failPmap */
+ "Lock timeout", /* failTimeout */
"Unknown failure code" /* Unknown failure code - must always be last */
};
extern const char version[];
extern char *trap_type[];
-extern vm_offset_t mem_actual;
#if !MACH_KDB
void kdb_trap(int type, struct savearea *regs);
machine_startup(boot_args *args)
{
int boot_arg;
+ unsigned int wncpu;
+ unsigned int vmm_arg;
if (PE_parse_boot_arg("cpus", &wncpu)) {
- if (!((wncpu > 0) && (wncpu < NCPUS)))
- wncpu = NCPUS;
- } else
- wncpu = NCPUS;
+ if ((wncpu > 0) && (wncpu < MAX_CPUS))
+ max_ncpus = wncpu;
+ }
if( PE_get_hotkey( kPEControlKey ))
halt_in_debugger = halt_in_debugger ? 0 : 1;
if (boot_arg & DB_NMI) panicDebugging=TRUE;
if (boot_arg & DB_LOG_PI_SCRN) logPanicDataToScreen=TRUE;
}
+
+ PE_parse_boot_arg("vmmforce", &lowGlo.lgVMMforcedFeats);
hw_lock_init(&debugger_lock); /* initialize debugger lock */
hw_lock_init(&pbtlock); /* initialize print backtrace lock */
machine_conf();
- ml_thrm_init(); /* Start thermal monitoring on this processor */
-
/*
- * Start the system.
+ * Kick off the kernel bootstrap.
*/
- setup_main();
-
- /* Should never return */
+ kernel_bootstrap();
+ /*NOTREACHED*/
}
char *
void
machine_conf(void)
{
- machine_info.max_cpus = NCPUS;
- machine_info.avail_cpus = 1;
- machine_info.memory_size = mem_size;
+ machine_info.memory_size = mem_size; /* Note that this will be 2 GB for >= 2 GB machines */
}
void
machine_init(void)
{
clock_config();
+ perfmon_init();
}
void slave_machine_init(void)
{
- (void) ml_set_interrupts_enabled(FALSE); /* Make sure we are disabled */
- clock_init(); /* Init the clock */
cpu_machine_init(); /* Initialize the processor */
+ clock_init(); /* Init the clock */
}
void
int i, frames_cnt, skip_top_frames, frames_max;
unsigned int store[8]; /* Buffer for real storage reads */
vm_offset_t backtrace_entries[32];
- thread_act_t *act;
savearea *sv, *svssp;
int cpu;
+ savearea *psv;
/*
* We need this lock to make sure we don't hang up when we double panic on an MP.
cpu = cpu_number(); /* Just who are we anyways? */
if(pbtcpu != cpu) { /* Allow recursion */
- hw_atomic_add(&pbtcnt, 1); /* Remember we are trying */
+ hw_atomic_add((uint32_t *)&pbtcnt, 1); /* Remember we are trying */
while(!hw_lock_try(&pbtlock)); /* Spin here until we can get in. If we never do, well, we're crashing anyhow... */
pbtcpu = cpu; /* Mark it as us */
}
svssp = (savearea *)ssp; /* Make this easier */
sv = 0;
- if(current_thread()) sv = (savearea *)current_act()->mact.pcb; /* Find most current savearea if system has started */
+ if(current_thread()) sv = (savearea *)current_thread()->machine.pcb; /* Find most current savearea if system has started */
fence = 0xFFFFFFFF; /* Show we go all the way */
- if(sv) fence = sv->save_r1; /* Stop at previous exception point */
+ if(sv) fence = (unsigned int)sv->save_r1; /* Stop at previous exception point */
if(!svssp) { /* Should we start from stack? */
kdb_printf("Latest stack backtrace for cpu %d:\n", cpu_number());
__asm__ volatile("mr %0,r1" : "=r" (stackptr)); /* Get current stack */
- dump_backtrace(stackptr, fence); /* Dump the backtrace */
+ dump_backtrace((savearea *)0,stackptr, fence); /* Dump the backtrace */
if(!sv) { /* Leave if no saveareas */
kdb_printf("\nKernel version:\n%s\n",version); /* Print kernel version */
hw_lock_unlock(&pbtlock); /* Allow another back trace to happen */
else { /* Were we passed an exception? */
fence = 0xFFFFFFFF; /* Show we go all the way */
if(svssp->save_hdr.save_prev) {
- if((svssp->save_hdr.save_prev <= VM_MAX_KERNEL_ADDRESS) && ((unsigned int)LRA(PPC_SID_KERNEL, (void *)svssp->save_hdr.save_prev))) { /* Valid address? */
- fence = svssp->save_hdr.save_prev->save_r1; /* Stop at previous exception point */
+ if((svssp->save_hdr.save_prev <= vm_last_addr) && ((unsigned int)pmap_find_phys(kernel_pmap, (addr64_t)svssp->save_hdr.save_prev))) { /* Valid address? */
+ psv = (savearea *)((unsigned int)svssp->save_hdr.save_prev); /* Get the 64-bit back chain converted to a regualr pointer */
+ fence = (unsigned int)psv->save_r1; /* Stop at previous exception point */
}
}
kdb_printf("Proceeding back via exception chain:\n");
while(sv) { /* Do them all... */
- if(!((sv <= VM_MAX_KERNEL_ADDRESS) && (unsigned int)LRA(PPC_SID_KERNEL, (void *)sv))) { /* Valid address? */
+ if(!(((addr64_t)((uintptr_t)sv) <= vm_last_addr) &&
+ (unsigned int)pmap_find_phys(kernel_pmap, (addr64_t)((uintptr_t)sv)))) { /* Valid address? */
kdb_printf(" Exception state (sv=0x%08X) Not mapped or invalid. stopping...\n", sv);
break;
}
else {
fence = 0xFFFFFFFF; /* Show we go all the way */
if(sv->save_hdr.save_prev) {
- if((sv->save_hdr.save_prev <= VM_MAX_KERNEL_ADDRESS) && ((unsigned int)LRA(PPC_SID_KERNEL, (void *)sv->save_hdr.save_prev))) { /* Valid address? */
- fence = sv->save_hdr.save_prev->save_r1; /* Stop at previous exception point */
+ if((sv->save_hdr.save_prev <= vm_last_addr) && ((unsigned int)pmap_find_phys(kernel_pmap, (addr64_t)sv->save_hdr.save_prev))) { /* Valid address? */
+ psv = (savearea *)((unsigned int)sv->save_hdr.save_prev); /* Get the 64-bit back chain converted to a regualr pointer */
+ fence = (unsigned int)psv->save_r1; /* Stop at previous exception point */
}
}
dump_savearea(sv, fence); /* Dump this savearea */
}
- sv = sv->save_hdr.save_prev; /* Back chain */
+ sv = CAST_DOWN(savearea *, sv->save_hdr.save_prev); /* Back chain */
}
kdb_printf("\nKernel version:\n%s\n",version); /* Print kernel version */
pbtcpu = -1; /* Mark as unowned */
hw_lock_unlock(&pbtlock); /* Allow another back trace to happen */
- hw_atomic_sub(&pbtcnt, 1); /* Show we are done */
+ hw_atomic_sub((uint32_t *) &pbtcnt, 1); /* Show we are done */
while(pbtcnt); /* Wait for completion */
else xcode = trap_type[sv->save_exception / 4]; /* Point to the type */
kdb_printf(" PC=0x%08X; MSR=0x%08X; DAR=0x%08X; DSISR=0x%08X; LR=0x%08X; R1=0x%08X; XCP=0x%08X (%s)\n",
- sv->save_srr0, sv->save_srr1, sv->save_dar, sv->save_dsisr,
- sv->save_lr, sv->save_r1, sv->save_exception, xcode);
+ (unsigned int)sv->save_srr0, (unsigned int)sv->save_srr1, (unsigned int)sv->save_dar, sv->save_dsisr,
+ (unsigned int)sv->save_lr, (unsigned int)sv->save_r1, sv->save_exception, xcode);
if(!(sv->save_srr1 & MASK(MSR_PR))) { /* Are we in the kernel? */
- dump_backtrace(sv->save_r1, fence); /* Dump the stack back trace from here if not user state */
+ dump_backtrace(sv, (unsigned int)sv->save_r1, fence); /* Dump the stack back trace from here if not user state */
}
return;
-#define DUMPFRAMES 32
+#define DUMPFRAMES 34
#define LRindex 2
-void dump_backtrace(unsigned int stackptr, unsigned int fence) {
+void dump_backtrace(savearea *sv, unsigned int stackptr, unsigned int fence) {
unsigned int bframes[DUMPFRAMES];
unsigned int sframe[8], raddr, dumbo;
- int i;
+ int i, index=0;
kdb_printf(" Backtrace:\n");
- for(i = 0; i < DUMPFRAMES; i++) { /* Dump up to max frames */
+ if (sv != (savearea *)0) {
+ bframes[0] = (unsigned int)sv->save_srr0;
+ bframes[1] = (unsigned int)sv->save_lr;
+ index = 2;
+ }
+ for(i = index; i < DUMPFRAMES; i++) { /* Dump up to max frames */
if(!stackptr || (stackptr == fence)) break; /* Hit stop point or end... */
- if(stackptr & 0x0000000f) { /* Is stack pointer valid? */
+ if(stackptr & 0x0000000F) { /* Is stack pointer valid? */
kdb_printf("\n backtrace terminated - unaligned frame address: 0x%08X\n", stackptr); /* No, tell 'em */
break;
}
- raddr = (unsigned int)LRA(PPC_SID_KERNEL, (void *)stackptr); /* Get physical frame address */
- if(!raddr || (stackptr > VM_MAX_KERNEL_ADDRESS)) { /* Is it mapped? */
+ raddr = (unsigned int)pmap_find_phys(kernel_pmap, (addr64_t)stackptr); /* Get physical frame address */
+ if(!raddr || (stackptr > vm_last_addr)) { /* Is it mapped? */
kdb_printf("\n backtrace terminated - frame not mapped or invalid: 0x%08X\n", stackptr); /* No, tell 'em */
break;
}
- if(raddr >= mem_actual) { /* Is it within physical RAM? */
+ if(!mapping_phys_lookup(raddr, &dumbo)) { /* Is it within physical RAM? */
kdb_printf("\n backtrace terminated - frame outside of RAM: v=0x%08X, p=%08X\n", stackptr, raddr); /* No, tell 'em */
break;
}
- ReadReal(raddr, &sframe[0]); /* Fetch the stack frame */
+ ReadReal((addr64_t)((raddr << 12) | (stackptr & 4095)), &sframe[0]); /* Fetch the stack frame */
bframes[i] = sframe[LRindex]; /* Save the link register */
}
}
- if (debug_mode && debugger_active[cpu_number()]) { /* Are we already on debugger on this processor? */
+ if (debug_mode && getPerProc()->debugger_active) { /* Are we already on debugger on this processor? */
splx(spl);
return; /* Yeah, don't do it again... */
}
/* everything should be printed now so copy to NVRAM
*/
if( debug_buf_size > 0)
- pi_size = PESavePanicInfo( debug_buf, debug_buf_ptr - debug_buf);
+
+ {
+ /* Do not compress the panic log unless kernel debugging
+ * is disabled - the panic log isn't synced to NVRAM if
+ * debugging is enabled, and the panic log is valuable
+ * whilst debugging
+ */
+ if (!panicDebugging)
+ {
+ unsigned int bufpos;
+
+ /* Now call the compressor */
+ bufpos = packAsc (debug_buf, (unsigned int) (debug_buf_ptr - debug_buf) );
+ /* If compression was successful, use the compressed length */
+ if (bufpos)
+ {
+ debug_buf_ptr = debug_buf + bufpos;
+ }
+ }
+ /* Truncate if the buffer is larger than a certain magic
+ * size - this really ought to be some appropriate fraction
+ * of the NVRAM image buffer, and is best done in the
+ * savePanicInfo() or PESavePanicInfo() calls
+ */
+ pi_size = debug_buf_ptr - debug_buf;
+ pi_size = PESavePanicInfo( debug_buf, ((pi_size > 2040) ? 2040 : pi_size));
+ }
if( !panicDebugging && (pi_size != 0) ) {
- int my_cpu, debugger_cpu;
+ int my_cpu;
int tcpu;
my_cpu = cpu_number();
debugger_cpu = my_cpu;
hw_atomic_add(&debug_mode, 1);
- debugger_active[my_cpu]++;
+ PerProcTable[my_cpu].ppe_vaddr->debugger_active++;
lock_debugger();
- for(tcpu = 0; tcpu < NCPUS; tcpu++) {
+ for(tcpu = 0; tcpu < real_ncpus; tcpu++) {
if(tcpu == my_cpu) continue;
hw_atomic_add(&debugger_sync, 1);
(void)cpu_signal(tcpu, SIGPdebug, 0 ,0);
disableDebugOuput = FALSE;
debug_mode = TRUE;
- failcode = sv->save_r3; /* Get the failure code */
+ failcode = (unsigned int)sv->save_r3; /* Get the failure code */
if(failcode > failUnknown) failcode = failUnknown; /* Set unknown code code */
- kprintf("System Failure: cpu=%d; code=%08X (%s)\n", cpu_number(), sv->save_r3, failNames[failcode]);
- kdb_printf("System Failure: cpu=%d; code=%08X (%s)\n", cpu_number(), sv->save_r3, failNames[failcode]);
+ kprintf("System Failure: cpu=%d; code=%08X (%s)\n", cpu_number(), (unsigned int)sv->save_r3, failNames[failcode]);
+ kdb_printf("System Failure: cpu=%d; code=%08X (%s)\n", cpu_number(), (unsigned int)sv->save_r3, failNames[failcode]);
print_backtrace(sv); /* Attempt to print backtrace */
Call_DebuggerC(type, sv); /* Attempt to get into debugger */
struct savearea *saved_state)
{
int directcall, wait;
- vm_offset_t instr_ptr;
+ addr64_t instr_ptr;
+ ppnum_t instr_pp;
unsigned int instr;
- int my_cpu, tcpu;
+ int my_cpu, tcpu, wasdebugger;
+ struct per_proc_info *pp;
+ uint64_t nowtime, poptime;
my_cpu = cpu_number(); /* Get our CPU */
#if MACH_KDB
if((debugger_cpu == my_cpu) && /* Do we already own debugger? */
- debugger_active[my_cpu] && /* and are we really active? */
+ PerProcTable[my_cpu].ppe_vaddr->debugger_active && /* and are we really active? */
db_recover && /* and have we set up recovery? */
(current_debugger == KDB_CUR_DB)) { /* and are we in KDB (only it handles recovery) */
kdb_trap(type, saved_state); /* Then reenter it... */
#endif
hw_atomic_add(&debug_mode, 1); /* Indicate we are in debugger */
- debugger_active[my_cpu]++; /* Show active on our CPU */
+ PerProcTable[my_cpu].ppe_vaddr->debugger_active++; /* Show active on our CPU */
+
lock_debugger(); /* Insure that only one CPU is in debugger */
if(db_im_stepping == my_cpu) { /* Are we just back from a step? */
kprintf("Call_DebuggerC(%d): %08X %08X, debact = %d\n", my_cpu, type, saved_state, debug_mode); /* (TEST/DEBUG) */
#endif
printf("Call_Debugger: enter - cpu %d, is_slave %d, debugger_cpu %d, pc %08X\n",
- my_cpu, debugger_is_slave[my_cpu], debugger_cpu, saved_state->save_srr0);
+ my_cpu, PerProcTable[my_cpu].ppe_vaddr->debugger_is_slave, debugger_cpu, saved_state->save_srr0);
}
- if (instr_ptr = (vm_offset_t)LRA(PPC_SID_KERNEL, (void *)(saved_state->save_srr0))) {
- instr = ml_phys_read(instr_ptr); /* Get the trap that caused entry */
+ instr_pp = (vm_offset_t)pmap_find_phys(kernel_pmap, (addr64_t)(saved_state->save_srr0));
+
+ if (instr_pp) {
+ instr_ptr = (addr64_t)(((addr64_t)instr_pp << 12) | (saved_state->save_srr0 & 0xFFF)); /* Make physical address */
+ instr = ml_phys_read_64(instr_ptr); /* Get the trap that caused entry */
}
else instr = 0;
#if 0
- if (debugger_debug) kprintf("Call_DebuggerC(%d): instr_ptr = %08X, instr = %08X\n", my_cpu, instr_ptr, instr); /* (TEST/DEBUG) */
+ if (debugger_debug) kprintf("Call_DebuggerC(%d): instr_pp = %08X, instr_ptr = %016llX, instr = %08X\n", my_cpu, instr_pp, instr_ptr, instr); /* (TEST/DEBUG) */
#endif
if (db_breakpoints_inserted) cpus_holding_bkpts++; /* Bump up the holding count */
- if (debugger_cpu == -1 && !debugger_is_slave[my_cpu]) {
+ if (debugger_cpu == -1 && !PerProcTable[my_cpu].ppe_vaddr->debugger_is_slave) {
#if 0
if (debugger_debug) kprintf("Call_DebuggerC(%d): lasttrace = %08X\n", my_cpu, lastTrace); /* (TEST/DEBUG) */
#endif
debugger_cpu = my_cpu; /* Show that we are debugger */
+
+
lastTrace = LLTraceSet(0); /* Disable low-level tracing */
- for(tcpu = 0; tcpu < NCPUS; tcpu++) { /* Stop all the other guys */
+ for(tcpu = 0; tcpu < real_ncpus; tcpu++) { /* Stop all the other guys */
if(tcpu == my_cpu) continue; /* Don't diddle ourselves */
hw_atomic_add(&debugger_sync, 1); /* Count signal sent */
(void)cpu_signal(tcpu, SIGPdebug, 0 ,0); /* Tell 'em to enter debugger */
if ((instr == TRAP_DEBUGGER_INST) || /* Did we trap to enter debugger? */
(instr == TRAP_DIRECT_INST)) saved_state->save_srr0 += TRAP_INST_SIZE; /* Yes, point past trap */
- if(debugger_cpu == my_cpu) LLTraceSet(lastTrace); /* Enable tracing on the way out if we are debugger */
+ wasdebugger = 0; /* Assume not debugger */
+ if(debugger_cpu == my_cpu) { /* Are the debugger processor? */
+ wasdebugger = 1; /* Remember that we were the debugger */
+ LLTraceSet(lastTrace); /* Enable tracing on the way out if we are debugger */
+ }
wait = FALSE; /* Assume we are not going to wait */
if (db_run_mode == STEP_CONTINUE) { /* Are we going to run? */
wait = TRUE; /* Yeah, remember to wait for breakpoints to clear */
debugger_cpu = -1; /* Release other processor's debuggers */
- debugger_pending[0] = 0; /* Release request (this is a HACK) */
- debugger_pending[1] = 0; /* Release request (this is a HACK) */
+ for(tcpu = 0; tcpu < real_ncpus; tcpu++)
+ PerProcTable[tcpu].ppe_vaddr->debugger_pending = 0; /* Release request (this is a HACK) */
NMIss = 0; /* Let NMI bounce */
}
}
if (db_breakpoints_inserted) cpus_holding_bkpts--; /* If any breakpoints, back off count */
- if (debugger_is_slave[my_cpu]) debugger_is_slave[my_cpu]--; /* If we were a slove, uncount us */
+ if (PerProcTable[my_cpu].ppe_vaddr->debugger_is_slave) PerProcTable[my_cpu].ppe_vaddr->debugger_is_slave--; /* If we were a slove, uncount us */
if (debugger_debug)
printf("Call_Debugger: exit - cpu %d, debugger_cpu %d, run_mode %d holds %d\n",
my_cpu, debugger_cpu, db_run_mode,
cpus_holding_bkpts);
unlock_debugger(); /* Release the lock */
- debugger_active[my_cpu]--; /* Say we aren't active anymore */
+ PerProcTable[my_cpu].ppe_vaddr->debugger_active--; /* Say we aren't active anymore */
if (wait) while(cpus_holding_bkpts); /* Wait for breakpoints to clear */
+
hw_atomic_sub(&debug_mode, 1); /* Set out of debug now */
return(1); /* Exit debugger normally */
}
+struct pasc {
+ unsigned a: 7;
+ unsigned b: 7;
+ unsigned c: 7;
+ unsigned d: 7;
+ unsigned e: 7;
+ unsigned f: 7;
+ unsigned g: 7;
+ unsigned h: 7;
+} __attribute__((packed));
+
+typedef struct pasc pasc_t;
+int packAsc (unsigned char *inbuf, unsigned int length)
+{
+ unsigned int i, j = 0;
+ pasc_t pack;
+
+ for (i = 0; i < length; i+=8)
+ {
+ pack.a = inbuf[i];
+ pack.b = inbuf[i+1];
+ pack.c = inbuf[i+2];
+ pack.d = inbuf[i+3];
+ pack.e = inbuf[i+4];
+ pack.f = inbuf[i+5];
+ pack.g = inbuf[i+6];
+ pack.h = inbuf[i+7];
+ bcopy ((char *) &pack, inbuf + j, 7);
+ j += 7;
+ }
+ if (0 != (i - length))
+ inbuf[j - (i - length)] &= 0xFF << (8-(i - length));
+ return j-(((i-length) == 7) ? 6 : (i - length));
+}
projects / apple / xnu.git / blobdiff