diff options
Diffstat (limited to 'gdb/findvar.c')
| -rw-r--r-- | gdb/findvar.c | 834 |
1 files changed, 10 insertions, 824 deletions
diff --git a/gdb/findvar.c b/gdb/findvar.c index 5571ede4a66..002f3f32843 100644 --- a/gdb/findvar.c +++ b/gdb/findvar.c @@ -37,18 +37,6 @@ const struct floatformat floatformat_unknown; -/* Registers we shouldn't try to store. */ -#if !defined (CANNOT_STORE_REGISTER) -#define CANNOT_STORE_REGISTER(regno) 0 -#endif - -void write_register_gen (int, char *); - -static int -read_relative_register_raw_bytes_for_frame (int regnum, - char *myaddr, - struct frame_info *frame); - /* Basic byte-swapping routines. GDB has needed these for a long time... All extract a target-format integer at ADDR which is LEN bytes long. */ @@ -391,200 +379,6 @@ store_floating (void *addr, int len, DOUBLEST val) error ("Can't deal with a floating point number of %d bytes.", len); } } - - -/* Return the address in which frame FRAME's value of register REGNUM - has been saved in memory. Or return zero if it has not been saved. - If REGNUM specifies the SP, the value we return is actually - the SP value, not an address where it was saved. */ - -CORE_ADDR -find_saved_register (frame, regnum) - struct frame_info *frame; - int regnum; -{ - register struct frame_info *frame1 = NULL; - register CORE_ADDR addr = 0; - - if (frame == NULL) /* No regs saved if want current frame */ - return 0; - -#ifdef HAVE_REGISTER_WINDOWS - /* We assume that a register in a register window will only be saved - in one place (since the name changes and/or disappears as you go - towards inner frames), so we only call get_frame_saved_regs on - the current frame. This is directly in contradiction to the - usage below, which assumes that registers used in a frame must be - saved in a lower (more interior) frame. This change is a result - of working on a register window machine; get_frame_saved_regs - always returns the registers saved within a frame, within the - context (register namespace) of that frame. */ - - /* However, note that we don't want this to return anything if - nothing is saved (if there's a frame inside of this one). Also, - callers to this routine asking for the stack pointer want the - stack pointer saved for *this* frame; this is returned from the - next frame. */ - - if (REGISTER_IN_WINDOW_P (regnum)) - { - frame1 = get_next_frame (frame); - if (!frame1) - return 0; /* Registers of this frame are active. */ - - /* Get the SP from the next frame in; it will be this - current frame. */ - if (regnum != SP_REGNUM) - frame1 = frame; - - FRAME_INIT_SAVED_REGS (frame1); - return frame1->saved_regs[regnum]; /* ... which might be zero */ - } -#endif /* HAVE_REGISTER_WINDOWS */ - - /* Note that this next routine assumes that registers used in - frame x will be saved only in the frame that x calls and - frames interior to it. This is not true on the sparc, but the - above macro takes care of it, so we should be all right. */ - while (1) - { - QUIT; - frame1 = get_prev_frame (frame1); - if (frame1 == 0 || frame1 == frame) - break; - FRAME_INIT_SAVED_REGS (frame1); - if (frame1->saved_regs[regnum]) - addr = frame1->saved_regs[regnum]; - } - - return addr; -} - -/* Find register number REGNUM relative to FRAME and put its (raw, - target format) contents in *RAW_BUFFER. Set *OPTIMIZED if the - variable was optimized out (and thus can't be fetched). Set *LVAL - to lval_memory, lval_register, or not_lval, depending on whether - the value was fetched from memory, from a register, or in a strange - and non-modifiable way (e.g. a frame pointer which was calculated - rather than fetched). Set *ADDRP to the address, either in memory - on as a REGISTER_BYTE offset into the registers array. - - Note that this implementation never sets *LVAL to not_lval. But - it can be replaced by defining GET_SAVED_REGISTER and supplying - your own. - - The argument RAW_BUFFER must point to aligned memory. */ - -void -default_get_saved_register (raw_buffer, optimized, addrp, frame, regnum, lval) - char *raw_buffer; - int *optimized; - CORE_ADDR *addrp; - struct frame_info *frame; - int regnum; - enum lval_type *lval; -{ - CORE_ADDR addr; - - if (!target_has_registers) - error ("No registers."); - - /* Normal systems don't optimize out things with register numbers. */ - if (optimized != NULL) - *optimized = 0; - addr = find_saved_register (frame, regnum); - if (addr != 0) - { - if (lval != NULL) - *lval = lval_memory; - if (regnum == SP_REGNUM) - { - if (raw_buffer != NULL) - { - /* Put it back in target format. */ - store_address (raw_buffer, REGISTER_RAW_SIZE (regnum), - (LONGEST) addr); - } - if (addrp != NULL) - *addrp = 0; - return; - } - if (raw_buffer != NULL) - read_memory (addr, raw_buffer, REGISTER_RAW_SIZE (regnum)); - } - else - { - if (lval != NULL) - *lval = lval_register; - addr = REGISTER_BYTE (regnum); - if (raw_buffer != NULL) - read_register_gen (regnum, raw_buffer); - } - if (addrp != NULL) - *addrp = addr; -} - -#if !defined (GET_SAVED_REGISTER) -#define GET_SAVED_REGISTER(raw_buffer, optimized, addrp, frame, regnum, lval) \ - default_get_saved_register(raw_buffer, optimized, addrp, frame, regnum, lval) -#endif -void -get_saved_register (raw_buffer, optimized, addrp, frame, regnum, lval) - char *raw_buffer; - int *optimized; - CORE_ADDR *addrp; - struct frame_info *frame; - int regnum; - enum lval_type *lval; -{ - GET_SAVED_REGISTER (raw_buffer, optimized, addrp, frame, regnum, lval); -} - -/* Copy the bytes of register REGNUM, relative to the input stack frame, - into our memory at MYADDR, in target byte order. - The number of bytes copied is REGISTER_RAW_SIZE (REGNUM). - - Returns 1 if could not be read, 0 if could. */ - -static int -read_relative_register_raw_bytes_for_frame (regnum, myaddr, frame) - int regnum; - char *myaddr; - struct frame_info *frame; -{ - int optim; - if (regnum == FP_REGNUM && frame) - { - /* Put it back in target format. */ - store_address (myaddr, REGISTER_RAW_SIZE (FP_REGNUM), - (LONGEST) FRAME_FP (frame)); - - return 0; - } - - get_saved_register (myaddr, &optim, (CORE_ADDR *) NULL, frame, - regnum, (enum lval_type *) NULL); - - if (register_valid[regnum] < 0) - return 1; /* register value not available */ - - return optim; -} - -/* Copy the bytes of register REGNUM, relative to the current stack frame, - into our memory at MYADDR, in target byte order. - The number of bytes copied is REGISTER_RAW_SIZE (REGNUM). - - Returns 1 if could not be read, 0 if could. */ - -int -read_relative_register_raw_bytes (regnum, myaddr) - int regnum; - char *myaddr; -{ - return read_relative_register_raw_bytes_for_frame (regnum, myaddr, - selected_frame); -} /* Return a `value' with the contents of register REGNUM in its virtual format, with the type specified by @@ -594,8 +388,7 @@ read_relative_register_raw_bytes (regnum, myaddr) Caller will check return value or die! */ value_ptr -value_of_register (regnum) - int regnum; +value_of_register (int regnum) { CORE_ADDR addr; int optim; @@ -606,7 +399,7 @@ value_of_register (regnum) get_saved_register (raw_buffer, &optim, &addr, selected_frame, regnum, &lval); - if (register_valid[regnum] < 0) + if (register_cached (regnum) < 0) return NULL; /* register value not available */ reg_val = allocate_value (REGISTER_VIRTUAL_TYPE (regnum)); @@ -633,579 +426,6 @@ value_of_register (regnum) VALUE_OPTIMIZED_OUT (reg_val) = optim; return reg_val; } - -/* Low level examining and depositing of registers. - - The caller is responsible for making - sure that the inferior is stopped before calling the fetching routines, - or it will get garbage. (a change from GDB version 3, in which - the caller got the value from the last stop). */ - -/* Contents and state of the registers (in target byte order). */ - -char *registers; - -/* VALID_REGISTER is non-zero if it has been fetched, -1 if the - register value was not available. */ - -signed char *register_valid; - -/* The thread/process associated with the current set of registers. For now, - -1 is special, and means `no current process'. */ -int registers_pid = -1; - -/* Indicate that registers may have changed, so invalidate the cache. */ - -void -registers_changed () -{ - int i; - int numregs = ARCH_NUM_REGS; - - registers_pid = -1; - - /* Force cleanup of any alloca areas if using C alloca instead of - a builtin alloca. This particular call is used to clean up - areas allocated by low level target code which may build up - during lengthy interactions between gdb and the target before - gdb gives control to the user (ie watchpoints). */ - alloca (0); - - for (i = 0; i < numregs; i++) - register_valid[i] = 0; - - if (registers_changed_hook) - registers_changed_hook (); -} - -/* Indicate that all registers have been fetched, so mark them all valid. */ -void -registers_fetched () -{ - int i; - int numregs = ARCH_NUM_REGS; - for (i = 0; i < numregs; i++) - register_valid[i] = 1; -} - -/* read_register_bytes and write_register_bytes are generally a *BAD* - idea. They are inefficient because they need to check for partial - updates, which can only be done by scanning through all of the - registers and seeing if the bytes that are being read/written fall - inside of an invalid register. [The main reason this is necessary - is that register sizes can vary, so a simple index won't suffice.] - It is far better to call read_register_gen and write_register_gen - if you want to get at the raw register contents, as it only takes a - regno as an argument, and therefore can't do a partial register - update. - - Prior to the recent fixes to check for partial updates, both read - and write_register_bytes always checked to see if any registers - were stale, and then called target_fetch_registers (-1) to update - the whole set. This caused really slowed things down for remote - targets. */ - -/* Copy INLEN bytes of consecutive data from registers - starting with the INREGBYTE'th byte of register data - into memory at MYADDR. */ - -void -read_register_bytes (inregbyte, myaddr, inlen) - int inregbyte; - char *myaddr; - int inlen; -{ - int inregend = inregbyte + inlen; - int regno; - - if (registers_pid != inferior_pid) - { - registers_changed (); - registers_pid = inferior_pid; - } - - /* See if we are trying to read bytes from out-of-date registers. If so, - update just those registers. */ - - for (regno = 0; regno < NUM_REGS; regno++) - { - int regstart, regend; - - if (register_valid[regno]) - continue; - - if (REGISTER_NAME (regno) == NULL || *REGISTER_NAME (regno) == '\0') - continue; - - regstart = REGISTER_BYTE (regno); - regend = regstart + REGISTER_RAW_SIZE (regno); - - if (regend <= inregbyte || inregend <= regstart) - /* The range the user wants to read doesn't overlap with regno. */ - continue; - - /* We've found an invalid register where at least one byte will be read. - Update it from the target. */ - target_fetch_registers (regno); - - if (!register_valid[regno]) - error ("read_register_bytes: Couldn't update register %d.", regno); - } - - if (myaddr != NULL) - memcpy (myaddr, ®isters[inregbyte], inlen); -} - -/* Read register REGNO into memory at MYADDR, which must be large enough - for REGISTER_RAW_BYTES (REGNO). Target byte-order. - If the register is known to be the size of a CORE_ADDR or smaller, - read_register can be used instead. */ -void -read_register_gen (regno, myaddr) - int regno; - char *myaddr; -{ - if (registers_pid != inferior_pid) - { - registers_changed (); - registers_pid = inferior_pid; - } - - if (!register_valid[regno]) - target_fetch_registers (regno); - memcpy (myaddr, ®isters[REGISTER_BYTE (regno)], - REGISTER_RAW_SIZE (regno)); -} - -/* Write register REGNO at MYADDR to the target. MYADDR points at - REGISTER_RAW_BYTES(REGNO), which must be in target byte-order. */ - -void -write_register_gen (regno, myaddr) - int regno; - char *myaddr; -{ - int size; - - /* On the sparc, writing %g0 is a no-op, so we don't even want to change - the registers array if something writes to this register. */ - if (CANNOT_STORE_REGISTER (regno)) - return; - - if (registers_pid != inferior_pid) - { - registers_changed (); - registers_pid = inferior_pid; - } - - size = REGISTER_RAW_SIZE (regno); - - /* If we have a valid copy of the register, and new value == old value, - then don't bother doing the actual store. */ - - if (register_valid[regno] - && memcmp (®isters[REGISTER_BYTE (regno)], myaddr, size) == 0) - return; - - target_prepare_to_store (); - - memcpy (®isters[REGISTER_BYTE (regno)], myaddr, size); - - register_valid[regno] = 1; - - target_store_registers (regno); -} - -/* Copy INLEN bytes of consecutive data from memory at MYADDR - into registers starting with the MYREGSTART'th byte of register data. */ - -void -write_register_bytes (myregstart, myaddr, inlen) - int myregstart; - char *myaddr; - int inlen; -{ - int myregend = myregstart + inlen; - int regno; - - target_prepare_to_store (); - - /* Scan through the registers updating any that are covered by the range - myregstart<=>myregend using write_register_gen, which does nice things - like handling threads, and avoiding updates when the new and old contents - are the same. */ - - for (regno = 0; regno < NUM_REGS; regno++) - { - int regstart, regend; - - regstart = REGISTER_BYTE (regno); - regend = regstart + REGISTER_RAW_SIZE (regno); - - /* Is this register completely outside the range the user is writing? */ - if (myregend <= regstart || regend <= myregstart) - /* do nothing */ ; - - /* Is this register completely within the range the user is writing? */ - else if (myregstart <= regstart && regend <= myregend) - write_register_gen (regno, myaddr + (regstart - myregstart)); - - /* The register partially overlaps the range being written. */ - else - { - char regbuf[MAX_REGISTER_RAW_SIZE]; - /* What's the overlap between this register's bytes and - those the caller wants to write? */ - int overlapstart = max (regstart, myregstart); - int overlapend = min (regend, myregend); - - /* We may be doing a partial update of an invalid register. - Update it from the target before scribbling on it. */ - read_register_gen (regno, regbuf); - - memcpy (registers + overlapstart, - myaddr + (overlapstart - myregstart), - overlapend - overlapstart); - - target_store_registers (regno); - } - } -} - - -/* Return the raw contents of register REGNO, regarding it as an integer. */ -/* This probably should be returning LONGEST rather than CORE_ADDR. */ - -CORE_ADDR -read_register (regno) - int regno; -{ - if (registers_pid != inferior_pid) - { - registers_changed (); - registers_pid = inferior_pid; - } - - if (!register_valid[regno]) - target_fetch_registers (regno); - - return ((CORE_ADDR) - extract_unsigned_integer (®isters[REGISTER_BYTE (regno)], - REGISTER_RAW_SIZE (regno))); -} - -CORE_ADDR -read_register_pid (regno, pid) - int regno, pid; -{ - int save_pid; - CORE_ADDR retval; - - if (pid == inferior_pid) - return read_register (regno); - - save_pid = inferior_pid; - - inferior_pid = pid; - - retval = read_register (regno); - - inferior_pid = save_pid; - - return retval; -} - -/* Store VALUE, into the raw contents of register number REGNO. - This should probably write a LONGEST rather than a CORE_ADDR */ - -void -write_register (regno, val) - int regno; - LONGEST val; -{ - PTR buf; - int size; - - /* On the sparc, writing %g0 is a no-op, so we don't even want to change - the registers array if something writes to this register. */ - if (CANNOT_STORE_REGISTER (regno)) - return; - - if (registers_pid != inferior_pid) - { - registers_changed (); - registers_pid = inferior_pid; - } - - size = REGISTER_RAW_SIZE (regno); - buf = alloca (size); - store_signed_integer (buf, size, (LONGEST) val); - - /* If we have a valid copy of the register, and new value == old value, - then don't bother doing the actual store. */ - - if (register_valid[regno] - && memcmp (®isters[REGISTER_BYTE (regno)], buf, size) == 0) - return; - - target_prepare_to_store (); - - memcpy (®isters[REGISTER_BYTE (regno)], buf, size); - - register_valid[regno] = 1; - - target_store_registers (regno); -} - -void -write_register_pid (regno, val, pid) - int regno; - CORE_ADDR val; - int pid; -{ - int save_pid; - - if (pid == inferior_pid) - { - write_register (regno, val); - return; - } - - save_pid = inferior_pid; - - inferior_pid = pid; - - write_register (regno, val); - - inferior_pid = save_pid; -} - -/* Record that register REGNO contains VAL. - This is used when the value is obtained from the inferior or core dump, - so there is no need to store the value there. - - If VAL is a NULL pointer, then it's probably an unsupported register. We - just set it's value to all zeros. We might want to record this fact, and - report it to the users of read_register and friends. - */ - -void -supply_register (regno, val) - int regno; - char *val; -{ -#if 1 - if (registers_pid != inferior_pid) - { - registers_changed (); - registers_pid = inferior_pid; - } -#endif - - register_valid[regno] = 1; - if (val) - memcpy (®isters[REGISTER_BYTE (regno)], val, REGISTER_RAW_SIZE (regno)); - else - memset (®isters[REGISTER_BYTE (regno)], '\000', REGISTER_RAW_SIZE (regno)); - - /* On some architectures, e.g. HPPA, there are a few stray bits in some - registers, that the rest of the code would like to ignore. */ -#ifdef CLEAN_UP_REGISTER_VALUE - CLEAN_UP_REGISTER_VALUE (regno, ®isters[REGISTER_BYTE (regno)]); -#endif -} - - -/* This routine is getting awfully cluttered with #if's. It's probably - time to turn this into READ_PC and define it in the tm.h file. - Ditto for write_pc. - - 1999-06-08: The following were re-written so that it assumes the - existance of a TARGET_READ_PC et.al. macro. A default generic - version of that macro is made available where needed. - - Since the ``TARGET_READ_PC'' et.al. macro is going to be controlled - by the multi-arch framework, it will eventually be possible to - eliminate the intermediate read_pc_pid(). The client would call - TARGET_READ_PC directly. (cagney). */ - -#ifndef TARGET_READ_PC -#define TARGET_READ_PC generic_target_read_pc -#endif - -CORE_ADDR -generic_target_read_pc (int pid) -{ -#ifdef PC_REGNUM - if (PC_REGNUM >= 0) - { - CORE_ADDR pc_val = ADDR_BITS_REMOVE ((CORE_ADDR) read_register_pid (PC_REGNUM, pid)); - return pc_val; - } -#endif - internal_error ("generic_target_read_pc"); - return 0; -} - -CORE_ADDR -read_pc_pid (pid) - int pid; -{ - int saved_inferior_pid; - CORE_ADDR pc_val; - - /* In case pid != inferior_pid. */ - saved_inferior_pid = inferior_pid; - inferior_pid = pid; - - pc_val = TARGET_READ_PC (pid); - - inferior_pid = saved_inferior_pid; - return pc_val; -} - -CORE_ADDR -read_pc () -{ - return read_pc_pid (inferior_pid); -} - -#ifndef TARGET_WRITE_PC -#define TARGET_WRITE_PC generic_target_write_pc -#endif - -void -generic_target_write_pc (pc, pid) - CORE_ADDR pc; - int pid; -{ -#ifdef PC_REGNUM - if (PC_REGNUM >= 0) - write_register_pid (PC_REGNUM, pc, pid); - if (NPC_REGNUM >= 0) - write_register_pid (NPC_REGNUM, pc + 4, pid); - if (NNPC_REGNUM >= 0) - write_register_pid (NNPC_REGNUM, pc + 8, pid); -#else - internal_error ("generic_target_write_pc"); -#endif -} - -void -write_pc_pid (pc, pid) - CORE_ADDR pc; - int pid; -{ - int saved_inferior_pid; - - /* In case pid != inferior_pid. */ - saved_inferior_pid = inferior_pid; - inferior_pid = pid; - - TARGET_WRITE_PC (pc, pid); - - inferior_pid = saved_inferior_pid; -} - -void -write_pc (pc) - CORE_ADDR pc; -{ - write_pc_pid (pc, inferior_pid); -} - -/* Cope with strage ways of getting to the stack and frame pointers */ - -#ifndef TARGET_READ_SP -#define TARGET_READ_SP generic_target_read_sp -#endif - -CORE_ADDR -generic_target_read_sp () -{ -#ifdef SP_REGNUM - if (SP_REGNUM >= 0) - return read_register (SP_REGNUM); -#endif - internal_error ("generic_target_read_sp"); -} - -CORE_ADDR -read_sp () -{ - return TARGET_READ_SP (); -} - -#ifndef TARGET_WRITE_SP -#define TARGET_WRITE_SP generic_target_write_sp -#endif - -void -generic_target_write_sp (val) - CORE_ADDR val; -{ -#ifdef SP_REGNUM - if (SP_REGNUM >= 0) - { - write_register (SP_REGNUM, val); - return; - } -#endif - internal_error ("generic_target_write_sp"); -} - -void -write_sp (val) - CORE_ADDR val; -{ - TARGET_WRITE_SP (val); -} - -#ifndef TARGET_READ_FP -#define TARGET_READ_FP generic_target_read_fp -#endif - -CORE_ADDR -generic_target_read_fp () -{ -#ifdef FP_REGNUM - if (FP_REGNUM >= 0) - return read_register (FP_REGNUM); -#endif - internal_error ("generic_target_read_fp"); -} - -CORE_ADDR -read_fp () -{ - return TARGET_READ_FP (); -} - -#ifndef TARGET_WRITE_FP -#define TARGET_WRITE_FP generic_target_write_fp -#endif - -void -generic_target_write_fp (val) - CORE_ADDR val; -{ -#ifdef FP_REGNUM - if (FP_REGNUM >= 0) - { - write_register (FP_REGNUM, val); - return; - } -#endif - internal_error ("generic_target_write_fp"); -} - -void -write_fp (val) - CORE_ADDR val; -{ - TARGET_WRITE_FP (val); -} - /* Given a pointer of type TYPE in target form in BUF, return the address it represents. */ @@ -1239,8 +459,7 @@ address_to_signed_pointer (struct type *type, void *buf, CORE_ADDR addr) up caring what frame it is being evaluated relative to? SYM must be non-NULL. */ int -symbol_read_needs_frame (sym) - struct symbol *sym; +symbol_read_needs_frame (struct symbol *sym) { switch (SYMBOL_CLASS (sym)) { @@ -1285,9 +504,7 @@ symbol_read_needs_frame (sym) If FRAME is NULL, use the selected_frame. */ value_ptr -read_var_value (var, frame) - register struct symbol *var; - struct frame_info *frame; +read_var_value (register struct symbol *var, struct frame_info *frame) { register value_ptr v; struct type *type = SYMBOL_TYPE (var); @@ -1492,10 +709,7 @@ addresses have not been bound by the dynamic loader. Try again when executable i Caller will check return value or die! */ value_ptr -value_from_register (type, regnum, frame) - struct type *type; - int regnum; - struct frame_info *frame; +value_from_register (struct type *type, int regnum, struct frame_info *frame) { char raw_buffer[MAX_REGISTER_RAW_SIZE]; CORE_ADDR addr; @@ -1578,7 +792,7 @@ value_from_register (type, regnum, frame) page_regnum, &lval); - if (register_valid[page_regnum] == -1) + if (register_cached (page_regnum) == -1) return NULL; /* register value not available */ if (lval == lval_register) @@ -1595,7 +809,7 @@ value_from_register (type, regnum, frame) regnum, &lval); - if (register_valid[regnum] == -1) + if (register_cached (regnum) == -1) return NULL; /* register value not available */ if (lval == lval_register) @@ -1621,7 +835,7 @@ value_from_register (type, regnum, frame) local_regnum, &lval); - if (register_valid[local_regnum] == -1) + if (register_cached (local_regnum) == -1) return NULL; /* register value not available */ if (regnum == local_regnum) @@ -1686,7 +900,7 @@ value_from_register (type, regnum, frame) get_saved_register (raw_buffer, &optim, &addr, frame, regnum, &lval); - if (register_valid[regnum] == -1) + if (register_cached (regnum) == -1) return NULL; /* register value not available */ VALUE_OPTIMIZED_OUT (v) = optim; @@ -1740,9 +954,7 @@ value_from_register (type, regnum, frame) address. */ value_ptr -locate_var_value (var, frame) - register struct symbol *var; - struct frame_info *frame; +locate_var_value (register struct symbol *var, struct frame_info *frame) { CORE_ADDR addr = 0; struct type *type = SYMBOL_TYPE (var); @@ -1782,29 +994,3 @@ locate_var_value (var, frame) } return 0; /* For lint -- never reached */ } - - -static void build_findvar (void); -static void -build_findvar () -{ - /* We allocate some extra slop since we do a lot of memcpy's around - `registers', and failing-soft is better than failing hard. */ - int sizeof_registers = REGISTER_BYTES + /* SLOP */ 256; - int sizeof_register_valid = NUM_REGS * sizeof (*register_valid); - registers = xmalloc (sizeof_registers); - memset (registers, 0, sizeof_registers); - register_valid = xmalloc (sizeof_register_valid); - memset (register_valid, 0, sizeof_register_valid); -} - -void _initialize_findvar (void); -void -_initialize_findvar () -{ - build_findvar (); - - register_gdbarch_swap (®isters, sizeof (registers), NULL); - register_gdbarch_swap (®ister_valid, sizeof (register_valid), NULL); - register_gdbarch_swap (NULL, 0, build_findvar); -} |