* cgen-ibld.in (cgen_put_insn_int_value): New function.
(insert_normal): Allow for non-zero word_offset with CGEN_INT_INSN_P.
(insert_insn_normal): Use cgen_put_insn_int_value with CGEN_INT_INSN_P.
(extract_normal): Allow for non-zero word_offset with CGEN_INT_INSN_P.
* cgen-dis.in (read_insn): New static function.
(print_insn): Use read_insn to read the insn into the buffer and set
up for disassembly.
(print_insn): in CGEN_INT_INSN_P, make sure that the entire insn is
in the buffer.
* fr30-asm.c: Regenerated.
* fr30-desc.c: Regenerated.
* fr30-desc.h Regenerated.
* fr30-dis.c: Regenerated.
* fr30-ibld.c: Regenerated.
* fr30-opc.c: Regenerated.
* fr30-opc.h Regenerated.
* m32r-asm.c: Regenerated.
* m32r-desc.c: Regenerated.
* m32r-desc.h Regenerated.
* m32r-dis.c: Regenerated.
* m32r-ibld.c: Regenerated.
* m32r-opc.c: Regenerated.
+2000-08-28 Dave Brolley <brolley@redhat.com>
+
+ * cgen-ibld.in (cgen_put_insn_int_value): New function.
+ (insert_normal): Allow for non-zero word_offset with CGEN_INT_INSN_P.
+ (insert_insn_normal): Use cgen_put_insn_int_value with CGEN_INT_INSN_P.
+ (extract_normal): Allow for non-zero word_offset with CGEN_INT_INSN_P.
+ * cgen-dis.in (read_insn): New static function.
+ (print_insn): Use read_insn to read the insn into the buffer and set
+ up for disassembly.
+ (print_insn): in CGEN_INT_INSN_P, make sure that the entire insn is
+ in the buffer.
+ * fr30-asm.c: Regenerated.
+ * fr30-desc.c: Regenerated.
+ * fr30-desc.h Regenerated.
+ * fr30-dis.c: Regenerated.
+ * fr30-ibld.c: Regenerated.
+ * fr30-opc.c: Regenerated.
+ * fr30-opc.h Regenerated.
+ * m32r-asm.c: Regenerated.
+ * m32r-desc.c: Regenerated.
+ * m32r-desc.h Regenerated.
+ * m32r-dis.c: Regenerated.
+ * m32r-ibld.c: Regenerated.
+ * m32r-opc.c: Regenerated.
+
2000-08-28 Kazu Hirata <kazu@hxi.com>
* tic30-dis.c: Fix formatting.
}
}
\f
-/* Utility to print an insn.
- BUF is the base part of the insn, target byte order, BUFLEN bytes long.
- The result is the size of the insn in bytes or zero for an unknown insn
- or -1 if an error occurs fetching data (memory_error_func will have
- been called). */
-
+/* Subroutine of print_insn. Reads an insn into the given buffers and updates
+ the extract info.
+ Returns 0 if all is well, non-zero otherwise. */
static int
-print_insn (cd, pc, info, buf, buflen)
+read_insn (cd, pc, info, buf, buflen, ex_info, insn_value)
CGEN_CPU_DESC cd;
bfd_vma pc;
disassemble_info *info;
char *buf;
int buflen;
+ CGEN_EXTRACT_INFO *ex_info;
+ unsigned long *insn_value;
{
- unsigned long insn_value;
- const CGEN_INSN_LIST *insn_list;
- CGEN_EXTRACT_INFO ex_info;
+ int status = (*info->read_memory_func) (pc, buf, buflen, info);
+ if (status != 0)
+ {
+ (*info->memory_error_func) (status, pc, info);
+ return -1;
+ }
- ex_info.dis_info = info;
- ex_info.valid = (1 << (cd->base_insn_bitsize / 8)) - 1;
- ex_info.insn_bytes = buf;
+ ex_info->dis_info = info;
+ ex_info->valid = (1 << buflen) - 1;
+ ex_info->insn_bytes = buf;
switch (buflen)
{
case 1:
- insn_value = buf[0];
+ *insn_value = buf[0];
break;
case 2:
- insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb16 (buf) : bfd_getl16 (buf);
+ *insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb16 (buf) : bfd_getl16 (buf);
break;
case 4:
- insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb32 (buf) : bfd_getl32 (buf);
+ *insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb32 (buf) : bfd_getl32 (buf);
break;
default:
abort ();
}
+ return 0;
+}
+
+/* Utility to print an insn.
+ BUF is the base part of the insn, target byte order, BUFLEN bytes long.
+ The result is the size of the insn in bytes or zero for an unknown insn
+ or -1 if an error occurs fetching data (memory_error_func will have
+ been called). */
+
+static int
+print_insn (cd, pc, info, buf, buflen)
+ CGEN_CPU_DESC cd;
+ bfd_vma pc;
+ disassemble_info *info;
+ char *buf;
+ int buflen;
+{
+ unsigned long insn_value;
+ const CGEN_INSN_LIST *insn_list;
+ CGEN_EXTRACT_INFO ex_info;
+
+ int rc = read_insn (cd, pc, info, buf, buflen, & ex_info, & insn_value);
+ if (rc != 0)
+ return rc;
+
/* The instructions are stored in hash lists.
Pick the first one and keep trying until we find the right one. */
machine insn and extracts the fields. The second pass prints
them. */
+#if CGEN_INT_INSN_P
+ /* Make sure the entire insn is loaded into insn_value. */
+ if (CGEN_INSN_BITSIZE (insn) > cd->base_insn_bitsize)
+ {
+ unsigned long full_insn_value;
+ int rc = read_insn (cd, pc, info, buf,
+ CGEN_INSN_BITSIZE (insn) / 8,
+ & ex_info, & full_insn_value);
+ if (rc != 0)
+ return rc;
+ length = CGEN_EXTRACT_FN (cd, insn)
+ (cd, insn, &ex_info, full_insn_value, &fields, pc);
+ }
+ else
+#endif
+
length = CGEN_EXTRACT_FN (cd, insn)
(cd, insn, &ex_info, insn_value, &fields, pc);
/* length < 0 -> error */
static int extract_insn_normal
PARAMS ((CGEN_CPU_DESC, const CGEN_INSN *, CGEN_EXTRACT_INFO *,
CGEN_INSN_INT, CGEN_FIELDS *, bfd_vma));
+static void put_insn_int_value
+ PARAMS ((CGEN_CPU_DESC, CGEN_INSN_BYTES_PTR, int, int, CGEN_INSN_INT));
+
\f
/* Operand insertion. */
if (length == 0)
return NULL;
+#if 0
if (CGEN_INT_INSN_P
&& word_offset != 0)
abort ();
+#endif
if (word_length > 32)
abort ();
int shift;
if (CGEN_INSN_LSB0_P)
- shift = (start + 1) - length;
+ shift = (word_offset + start + 1) - length;
else
- shift = word_length - (start + length);
+ shift = total_length - (word_offset + start + length);
*buffer = (*buffer & ~(mask << shift)) | ((value & mask) << shift);
}
#if CGEN_INT_INSN_P
- *buffer = value;
+ put_insn_int_value (cd, buffer, cd->base_insn_bitsize,
+ CGEN_FIELDS_BITSIZE (fields), value);
#else
return NULL;
}
+
+/* Cover function to store an insn value into an integral insn. Must go here
+ because it needs <prefix>-desc.h for CGEN_INT_INSN_P. */
+
+static void
+put_insn_int_value (cd, buf, length, insn_length, value)
+ CGEN_CPU_DESC cd;
+ CGEN_INSN_BYTES_PTR buf;
+ int length;
+ int insn_length;
+ CGEN_INSN_INT value;
+{
+ /* For architectures with insns smaller than the base-insn-bitsize,
+ length may be too big. */
+ if (length > insn_length)
+ *buf = value;
+ else
+ {
+ int shift = insn_length - length;
+ /* Written this way to avoid undefined behaviour. */
+ CGEN_INSN_INT mask = (((1L << (length - 1)) - 1) << 1) | 1;
+ *buf = (*buf & ~(mask << shift)) | ((value & mask) << shift);
+ }
+}
\f
/* Operand extraction. */
return 1;
}
+#if 0
if (CGEN_INT_INSN_P
&& word_offset != 0)
abort ();
+#endif
if (word_length > 32)
abort ();
/* Does the value reside in INSN_VALUE? */
- if (word_offset == 0)
+ if (CGEN_INT_INSN_P || word_offset == 0)
{
/* Written this way to avoid undefined behaviour. */
CGEN_INSN_INT mask = (((1L << (length - 1)) - 1) << 1) | 1;
if (CGEN_INSN_LSB0_P)
- value = insn_value >> ((start + 1) - length);
+ value = insn_value >> ((word_offset + start + 1) - length);
else
- value = insn_value >> (word_length - (start + length));
+ value = insn_value >> (total_length - ( word_offset + start + length));
value &= mask;
/* sign extend? */
if (CGEN_BOOL_ATTR (attrs, CGEN_IFLD_SIGNED)
first char after the mnemonic part is a space. */
/* FIXME: We also take inappropriate advantage of the fact that
GAS's input scrubber will remove extraneous blanks. */
- if (*str == CGEN_SYNTAX_CHAR (* syn))
+ if (tolower (*str) == tolower (CGEN_SYNTAX_CHAR (* syn)))
{
#ifdef CGEN_MNEMONIC_OPERANDS
if (* syn == ' ')
else
{
/* Syntax char didn't match. Can't be this insn. */
- /* FIXME: would like to return something like
- "expected char `c'" */
- return _("syntax error");
+ static char msg [80];
+ /* xgettext:c-format */
+ sprintf (msg, _("syntax error (expected char `%c', found `%c')"),
+ *syn, *str);
+ return msg;
}
continue;
}
{
const char *start;
CGEN_INSN_LIST *ilist;
+ const char *tmp_errmsg = NULL;
/* Skip leading white space. */
while (isspace (* str))
{
const CGEN_INSN *insn = ilist->insn;
-#if 0 /* not needed as unsupported opcodes shouldn't be in the hash lists */
+#ifdef CGEN_VALIDATE_INSN_SUPPORTED
+ /* not usually needed as unsupported opcodes shouldn't be in the hash lists */
/* Is this insn supported by the selected cpu? */
if (! fr30_cgen_insn_supported (cd, insn))
continue;
/* Allow parse/insert handlers to obtain length of insn. */
CGEN_FIELDS_BITSIZE (fields) = CGEN_INSN_BITSIZE (insn);
- if (! CGEN_PARSE_FN (cd, insn) (cd, insn, & str, fields))
- {
- /* ??? 0 is passed for `pc' */
- if (CGEN_INSERT_FN (cd, insn) (cd, insn, fields, buf, (bfd_vma) 0)
- != NULL)
- continue;
- /* It is up to the caller to actually output the insn and any
- queued relocs. */
- return insn;
- }
+ tmp_errmsg = CGEN_PARSE_FN (cd, insn) (cd, insn, & str, fields);
+ if (tmp_errmsg != NULL)
+ continue;
- /* Try the next entry. */
+ /* ??? 0 is passed for `pc' */
+ tmp_errmsg = CGEN_INSERT_FN (cd, insn) (cd, insn, fields, buf,
+ (bfd_vma) 0);
+ if (tmp_errmsg != NULL)
+ continue;
+
+ /* It is up to the caller to actually output the insn and any
+ queued relocs. */
+ return insn;
}
- /* FIXME: We can return a better error message than this.
- Need to track why it failed and pick the right one. */
+ /* Make sure we leave this with something at this point. */
+ if (tmp_errmsg == NULL)
+ tmp_errmsg = "unknown mnemonic";
+
{
- static char errbuf[100];
+ static char errbuf[150];
+
+#ifdef CGEN_VERBOSE_ASSEMBLER_ERRORS
+ /* if verbose error messages, use errmsg from CGEN_PARSE_FN */
+ if (strlen (start) > 50)
+ /* xgettext:c-format */
+ sprintf (errbuf, "%s `%.50s...'", tmp_errmsg, start);
+ else
+ /* xgettext:c-format */
+ sprintf (errbuf, "%s `%.50s'", tmp_errmsg, start);
+#else
if (strlen (start) > 50)
/* xgettext:c-format */
sprintf (errbuf, _("bad instruction `%.50s...'"), start);
else
/* xgettext:c-format */
sprintf (errbuf, _("bad instruction `%.50s'"), start);
+#endif
*errmsg = errbuf;
return NULL;
#include "fr30-desc.h"
#include "fr30-opc.h"
#include "opintl.h"
+#include "libiberty.h"
/* Attributes. */
const CGEN_ATTR_TABLE fr30_cgen_ifield_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "PCREL-ADDR", &bool_attr[0], &bool_attr[0] },
{ "ABS-ADDR", &bool_attr[0], &bool_attr[0] },
const CGEN_ATTR_TABLE fr30_cgen_hardware_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "CACHE-ADDR", &bool_attr[0], &bool_attr[0] },
{ "PC", &bool_attr[0], &bool_attr[0] },
const CGEN_ATTR_TABLE fr30_cgen_operand_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "PCREL-ADDR", &bool_attr[0], &bool_attr[0] },
{ "ABS-ADDR", &bool_attr[0], &bool_attr[0] },
const CGEN_ATTR_TABLE fr30_cgen_insn_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "ALIAS", &bool_attr[0], &bool_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "UNCOND-CTI", &bool_attr[0], &bool_attr[0] },
/* Instruction set variants. */
static const CGEN_ISA fr30_cgen_isa_table[] = {
- { "fr30", 16, 16, 16, 48, },
- { 0 }
+ { "fr30", 16, 16, 16, 48 },
+ { 0, 0, 0, 0, 0 }
};
/* Machine variants. */
static const CGEN_MACH fr30_cgen_mach_table[] = {
{ "fr30", "fr30", MACH_FR30 },
- { 0 }
+ { 0, 0, 0 }
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_gr_names_entries[] =
{
- { "r0", 0 },
- { "r1", 1 },
- { "r2", 2 },
- { "r3", 3 },
- { "r4", 4 },
- { "r5", 5 },
- { "r6", 6 },
- { "r7", 7 },
- { "r8", 8 },
- { "r9", 9 },
- { "r10", 10 },
- { "r11", 11 },
- { "r12", 12 },
- { "r13", 13 },
- { "r14", 14 },
- { "r15", 15 },
- { "ac", 13 },
- { "fp", 14 },
- { "sp", 15 }
+ { "r0", 0, {0, {0}}, 0, 0 },
+ { "r1", 1, {0, {0}}, 0, 0 },
+ { "r2", 2, {0, {0}}, 0, 0 },
+ { "r3", 3, {0, {0}}, 0, 0 },
+ { "r4", 4, {0, {0}}, 0, 0 },
+ { "r5", 5, {0, {0}}, 0, 0 },
+ { "r6", 6, {0, {0}}, 0, 0 },
+ { "r7", 7, {0, {0}}, 0, 0 },
+ { "r8", 8, {0, {0}}, 0, 0 },
+ { "r9", 9, {0, {0}}, 0, 0 },
+ { "r10", 10, {0, {0}}, 0, 0 },
+ { "r11", 11, {0, {0}}, 0, 0 },
+ { "r12", 12, {0, {0}}, 0, 0 },
+ { "r13", 13, {0, {0}}, 0, 0 },
+ { "r14", 14, {0, {0}}, 0, 0 },
+ { "r15", 15, {0, {0}}, 0, 0 },
+ { "ac", 13, {0, {0}}, 0, 0 },
+ { "fp", 14, {0, {0}}, 0, 0 },
+ { "sp", 15, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_gr_names =
{
& fr30_cgen_opval_gr_names_entries[0],
- 19
+ 19,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_cr_names_entries[] =
{
- { "cr0", 0 },
- { "cr1", 1 },
- { "cr2", 2 },
- { "cr3", 3 },
- { "cr4", 4 },
- { "cr5", 5 },
- { "cr6", 6 },
- { "cr7", 7 },
- { "cr8", 8 },
- { "cr9", 9 },
- { "cr10", 10 },
- { "cr11", 11 },
- { "cr12", 12 },
- { "cr13", 13 },
- { "cr14", 14 },
- { "cr15", 15 }
+ { "cr0", 0, {0, {0}}, 0, 0 },
+ { "cr1", 1, {0, {0}}, 0, 0 },
+ { "cr2", 2, {0, {0}}, 0, 0 },
+ { "cr3", 3, {0, {0}}, 0, 0 },
+ { "cr4", 4, {0, {0}}, 0, 0 },
+ { "cr5", 5, {0, {0}}, 0, 0 },
+ { "cr6", 6, {0, {0}}, 0, 0 },
+ { "cr7", 7, {0, {0}}, 0, 0 },
+ { "cr8", 8, {0, {0}}, 0, 0 },
+ { "cr9", 9, {0, {0}}, 0, 0 },
+ { "cr10", 10, {0, {0}}, 0, 0 },
+ { "cr11", 11, {0, {0}}, 0, 0 },
+ { "cr12", 12, {0, {0}}, 0, 0 },
+ { "cr13", 13, {0, {0}}, 0, 0 },
+ { "cr14", 14, {0, {0}}, 0, 0 },
+ { "cr15", 15, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_cr_names =
{
& fr30_cgen_opval_cr_names_entries[0],
- 16
+ 16,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_dr_names_entries[] =
{
- { "tbr", 0 },
- { "rp", 1 },
- { "ssp", 2 },
- { "usp", 3 },
- { "mdh", 4 },
- { "mdl", 5 }
+ { "tbr", 0, {0, {0}}, 0, 0 },
+ { "rp", 1, {0, {0}}, 0, 0 },
+ { "ssp", 2, {0, {0}}, 0, 0 },
+ { "usp", 3, {0, {0}}, 0, 0 },
+ { "mdh", 4, {0, {0}}, 0, 0 },
+ { "mdl", 5, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_dr_names =
{
& fr30_cgen_opval_dr_names_entries[0],
- 6
+ 6,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_h_ps_entries[] =
{
- { "ps", 0 }
+ { "ps", 0, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_h_ps =
{
& fr30_cgen_opval_h_ps_entries[0],
- 1
+ 1,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_h_r13_entries[] =
{
- { "r13", 0 }
+ { "r13", 0, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_h_r13 =
{
& fr30_cgen_opval_h_r13_entries[0],
- 1
+ 1,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_h_r14_entries[] =
{
- { "r14", 0 }
+ { "r14", 0, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_h_r14 =
{
& fr30_cgen_opval_h_r14_entries[0],
- 1
+ 1,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY fr30_cgen_opval_h_r15_entries[] =
{
- { "r15", 0 }
+ { "r15", 0, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD fr30_cgen_opval_h_r15 =
{
& fr30_cgen_opval_h_r15_entries[0],
- 1
+ 1,
+ 0, 0, 0, 0
};
{ "h-ccr", HW_H_CCR, CGEN_ASM_NONE, 0, { 0, { (1<<MACH_BASE) } } },
{ "h-scr", HW_H_SCR, CGEN_ASM_NONE, 0, { 0, { (1<<MACH_BASE) } } },
{ "h-ilm", HW_H_ILM, CGEN_ASM_NONE, 0, { 0, { (1<<MACH_BASE) } } },
- { 0 }
+ { 0, 0, CGEN_ASM_NONE, 0, {0, {0}} }
};
#undef A
const CGEN_IFLD fr30_cgen_ifld_table[] =
{
{ FR30_F_NIL, "f-nil", 0, 0, 0, 0, { 0, { (1<<MACH_BASE) } } },
+ { FR30_F_ANYOF, "f-anyof", 0, 0, 0, 0, { 0, { (1<<MACH_BASE) } } },
{ FR30_F_OP1, "f-op1", 0, 16, 0, 4, { 0, { (1<<MACH_BASE) } } },
{ FR30_F_OP2, "f-op2", 0, 16, 4, 4, { 0, { (1<<MACH_BASE) } } },
{ FR30_F_OP3, "f-op3", 0, 16, 8, 4, { 0, { (1<<MACH_BASE) } } },
{ FR30_F_REGLIST_LOW_ST, "f-reglist_low_st", 0, 16, 8, 8, { 0, { (1<<MACH_BASE) } } },
{ FR30_F_REGLIST_HI_LD, "f-reglist_hi_ld", 0, 16, 8, 8, { 0, { (1<<MACH_BASE) } } },
{ FR30_F_REGLIST_LOW_LD, "f-reglist_low_ld", 0, 16, 8, 8, { 0, { (1<<MACH_BASE) } } },
- { 0 }
+ { 0, 0, 0, 0, 0, 0, {0, {0}} }
};
#undef A
/* ilm: interrupt level mask */
{ "ilm", FR30_OPERAND_ILM, HW_H_ILM, 0, 0,
{ 0|A(SEM_ONLY), { (1<<MACH_BASE) } } },
- { 0 }
+ { 0, 0, 0, 0, 0, {0, {0}} }
};
#undef A
/* Special null first entry.
A `num' value of zero is thus invalid.
Also, the special `invalid' insn resides here. */
- { 0, 0, 0 },
+ { 0, 0, 0, 0, {0, {0}} },
/* add $Rj,$Ri */
{
FR30_INSN_ADD, "add", "add", 16,
fr30_cgen_rebuild_tables (cd)
CGEN_CPU_TABLE *cd;
{
- int i,n_isas,n_machs;
+ int i,n_isas;
unsigned int isas = cd->isas;
+#if 0
unsigned int machs = cd->machs;
+#endif
cd->int_insn_p = CGEN_INT_INSN_P;
++n_isas;
}
+#if 0 /* Does nothing?? */
/* Data derived from the mach spec. */
for (i = 0; i < MAX_MACHS; ++i)
if (((1 << i) & machs) != 0)
++n_machs;
}
+#endif
/* Determine which hw elements are used by MACH. */
build_hw_table (cd);
cd->rebuild_tables = fr30_cgen_rebuild_tables;
fr30_cgen_rebuild_tables (cd);
- /* Initialise flags. */
+ /* Default to not allowing signed overflow. */
cd->signed_overflow_ok_p = 0;
return (CGEN_CPU_DESC) cd;
#define CGEN_INT_INSN_P 0
-/* Maximum number of syntax bytes in an instruction. */
+/* Maximum nymber of syntax bytes in an instruction. */
#define CGEN_ACTUAL_MAX_SYNTAX_BYTES 15
/* CGEN_MNEMONIC_OPERANDS is defined if mnemonics have operands.
/* Enum declaration for fr30 ifield types. */
typedef enum ifield_type {
- FR30_F_NIL, FR30_F_OP1, FR30_F_OP2, FR30_F_OP3
- , FR30_F_OP4, FR30_F_OP5, FR30_F_CC, FR30_F_CCC
- , FR30_F_RJ, FR30_F_RI, FR30_F_RS1, FR30_F_RS2
- , FR30_F_RJC, FR30_F_RIC, FR30_F_CRJ, FR30_F_CRI
- , FR30_F_U4, FR30_F_U4C, FR30_F_I4, FR30_F_M4
- , FR30_F_U8, FR30_F_I8, FR30_F_I20_4, FR30_F_I20_16
- , FR30_F_I20, FR30_F_I32, FR30_F_UDISP6, FR30_F_DISP8
- , FR30_F_DISP9, FR30_F_DISP10, FR30_F_S10, FR30_F_U10
- , FR30_F_REL9, FR30_F_DIR8, FR30_F_DIR9, FR30_F_DIR10
- , FR30_F_REL12, FR30_F_REGLIST_HI_ST, FR30_F_REGLIST_LOW_ST, FR30_F_REGLIST_HI_LD
- , FR30_F_REGLIST_LOW_LD, FR30_F_MAX
+ FR30_F_NIL, FR30_F_ANYOF, FR30_F_OP1, FR30_F_OP2
+ , FR30_F_OP3, FR30_F_OP4, FR30_F_OP5, FR30_F_CC
+ , FR30_F_CCC, FR30_F_RJ, FR30_F_RI, FR30_F_RS1
+ , FR30_F_RS2, FR30_F_RJC, FR30_F_RIC, FR30_F_CRJ
+ , FR30_F_CRI, FR30_F_U4, FR30_F_U4C, FR30_F_I4
+ , FR30_F_M4, FR30_F_U8, FR30_F_I8, FR30_F_I20_4
+ , FR30_F_I20_16, FR30_F_I20, FR30_F_I32, FR30_F_UDISP6
+ , FR30_F_DISP8, FR30_F_DISP9, FR30_F_DISP10, FR30_F_S10
+ , FR30_F_U10, FR30_F_REL9, FR30_F_DIR8, FR30_F_DIR9
+ , FR30_F_DIR10, FR30_F_REL12, FR30_F_REGLIST_HI_ST, FR30_F_REGLIST_LOW_ST
+ , FR30_F_REGLIST_HI_LD, FR30_F_REGLIST_LOW_LD, FR30_F_MAX
} IFIELD_TYPE;
#define MAX_IFLD ((int) FR30_F_MAX)
static void
print_normal (cd, dis_info, value, attrs, pc, length)
+#ifdef CGEN_PRINT_NORMAL
CGEN_CPU_DESC cd;
+#else
+ CGEN_CPU_DESC cd ATTRIBUTE_UNUSED;
+#endif
PTR dis_info;
long value;
unsigned int attrs;
+#ifdef CGEN_PRINT_NORMAL
bfd_vma pc;
int length;
+#else
+ bfd_vma pc ATTRIBUTE_UNUSED;
+ int length ATTRIBUTE_UNUSED;
+#endif
{
disassemble_info *info = (disassemble_info *) dis_info;
static void
print_address (cd, dis_info, value, attrs, pc, length)
+#ifdef CGEN_PRINT_NORMAL
CGEN_CPU_DESC cd;
+#else
+ CGEN_CPU_DESC cd ATTRIBUTE_UNUSED;
+#endif
PTR dis_info;
bfd_vma value;
unsigned int attrs;
+#ifdef CGEN_PRINT_NORMAL
bfd_vma pc;
int length;
+#else
+ bfd_vma pc ATTRIBUTE_UNUSED;
+ int length ATTRIBUTE_UNUSED;
+#endif
{
disassemble_info *info = (disassemble_info *) dis_info;
static void
print_keyword (cd, dis_info, keyword_table, value, attrs)
- CGEN_CPU_DESC cd;
+ CGEN_CPU_DESC cd ATTRIBUTE_UNUSED;
PTR dis_info;
CGEN_KEYWORD *keyword_table;
long value;
- unsigned int attrs;
+ unsigned int attrs ATTRIBUTE_UNUSED;
{
disassemble_info *info = (disassemble_info *) dis_info;
const CGEN_KEYWORD_ENTRY *ke;
}
}
\f
-/* Utility to print an insn.
- BUF is the base part of the insn, target byte order, BUFLEN bytes long.
- The result is the size of the insn in bytes or zero for an unknown insn
- or -1 if an error occurs fetching data (memory_error_func will have
- been called). */
-
+/* Subroutine of print_insn. Reads an insn into the given buffers and updates
+ the extract info.
+ Returns 0 if all is well, non-zero otherwise. */
static int
-print_insn (cd, pc, info, buf, buflen)
+read_insn (cd, pc, info, buf, buflen, ex_info, insn_value)
CGEN_CPU_DESC cd;
bfd_vma pc;
disassemble_info *info;
char *buf;
int buflen;
+ CGEN_EXTRACT_INFO *ex_info;
+ unsigned long *insn_value;
{
- unsigned long insn_value;
- const CGEN_INSN_LIST *insn_list;
- CGEN_EXTRACT_INFO ex_info;
+ int status = (*info->read_memory_func) (pc, buf, buflen, info);
+ if (status != 0)
+ {
+ (*info->memory_error_func) (status, pc, info);
+ return -1;
+ }
- ex_info.dis_info = info;
- ex_info.valid = (1 << (cd->base_insn_bitsize / 8)) - 1;
- ex_info.insn_bytes = buf;
+ ex_info->dis_info = info;
+ ex_info->valid = (1 << buflen) - 1;
+ ex_info->insn_bytes = buf;
switch (buflen)
{
case 1:
- insn_value = buf[0];
+ *insn_value = buf[0];
break;
case 2:
- insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb16 (buf) : bfd_getl16 (buf);
+ *insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb16 (buf) : bfd_getl16 (buf);
break;
case 4:
- insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb32 (buf) : bfd_getl32 (buf);
+ *insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb32 (buf) : bfd_getl32 (buf);
break;
default:
abort ();
}
+ return 0;
+}
+
+/* Utility to print an insn.
+ BUF is the base part of the insn, target byte order, BUFLEN bytes long.
+ The result is the size of the insn in bytes or zero for an unknown insn
+ or -1 if an error occurs fetching data (memory_error_func will have
+ been called). */
+
+static int
+print_insn (cd, pc, info, buf, buflen)
+ CGEN_CPU_DESC cd;
+ bfd_vma pc;
+ disassemble_info *info;
+ char *buf;
+ int buflen;
+{
+ unsigned long insn_value;
+ const CGEN_INSN_LIST *insn_list;
+ CGEN_EXTRACT_INFO ex_info;
+
+ int rc = read_insn (cd, pc, info, buf, buflen, & ex_info, & insn_value);
+ if (rc != 0)
+ return rc;
+
/* The instructions are stored in hash lists.
Pick the first one and keep trying until we find the right one. */
CGEN_FIELDS fields;
int length;
-#if 0 /* not needed as insn shouldn't be in hash lists if not supported */
+#ifdef CGEN_VALIDATE_INSN_SUPPORTED
+ /* not needed as insn shouldn't be in hash lists if not supported */
/* Supported by this cpu? */
if (! fr30_cgen_insn_supported (cd, insn))
- continue;
+ {
+ insn_list = CGEN_DIS_NEXT_INSN (insn_list);
+ continue;
+ }
#endif
/* Basic bit mask must be correct. */
machine insn and extracts the fields. The second pass prints
them. */
+#if CGEN_INT_INSN_P
+ /* Make sure the entire insn is loaded into insn_value. */
+ if (CGEN_INSN_BITSIZE (insn) > cd->base_insn_bitsize)
+ {
+ unsigned long full_insn_value;
+ int rc = read_insn (cd, pc, info, buf,
+ CGEN_INSN_BITSIZE (insn) / 8,
+ & ex_info, & full_insn_value);
+ if (rc != 0)
+ return rc;
+ length = CGEN_EXTRACT_FN (cd, insn)
+ (cd, insn, &ex_info, full_insn_value, &fields, pc);
+ }
+ else
+#endif
+
length = CGEN_EXTRACT_FN (cd, insn)
(cd, insn, &ex_info, insn_value, &fields, pc);
/* length < 0 -> error */
disassemble_info *info;
{
static CGEN_CPU_DESC cd = 0;
- static prev_isa,prev_mach,prev_endian;
+ static int prev_isa;
+ static int prev_mach;
+ static int prev_endian;
int length;
int isa,mach;
int endian = (info->endian == BFD_ENDIAN_BIG
THIS FILE IS MACHINE GENERATED WITH CGEN: Cpu tools GENerator.
- the resultant file is machine generated, cgen-ibld.in isn't
-Copyright (C) 1996, 1997, 1998, 1999 Free Software Foundation, Inc.
+Copyright (C) 1996, 1997, 1998, 1999, 2000 Free Software Foundation, Inc.
This file is part of the GNU Binutils and GDB, the GNU debugger.
static int extract_insn_normal
PARAMS ((CGEN_CPU_DESC, const CGEN_INSN *, CGEN_EXTRACT_INFO *,
CGEN_INSN_INT, CGEN_FIELDS *, bfd_vma));
+static void put_insn_int_value
+ PARAMS ((CGEN_CPU_DESC, CGEN_INSN_BYTES_PTR, int, int, CGEN_INSN_INT));
+
\f
/* Operand insertion. */
if (length == 0)
return NULL;
+#if 0
if (CGEN_INT_INSN_P
&& word_offset != 0)
abort ();
+#endif
if (word_length > 32)
abort ();
if (! CGEN_BOOL_ATTR (attrs, CGEN_IFLD_SIGNED))
{
unsigned long maxval = mask;
+
if ((unsigned long) value > maxval)
{
/* xgettext:c-format */
}
else
{
- long minval = - (1L << (length - 1));
- long maxval = (1L << (length - 1)) - 1;
- if (value < minval || value > maxval)
+ if (! cgen_signed_overflow_ok_p (cd))
{
- sprintf
- /* xgettext:c-format */
- (errbuf, _("operand out of range (%ld not between %ld and %ld)"),
- value, minval, maxval);
- return errbuf;
+ long minval = - (1L << (length - 1));
+ long maxval = (1L << (length - 1)) - 1;
+
+ if (value < minval || value > maxval)
+ {
+ sprintf
+ /* xgettext:c-format */
+ (errbuf, _("operand out of range (%ld not between %ld and %ld)"),
+ value, minval, maxval);
+ return errbuf;
+ }
}
}
int shift;
if (CGEN_INSN_LSB0_P)
- shift = (start + 1) - length;
+ shift = (word_offset + start + 1) - length;
else
- shift = word_length - (start + length);
+ shift = total_length - (word_offset + start + length);
*buffer = (*buffer & ~(mask << shift)) | ((value & mask) << shift);
}
#if CGEN_INT_INSN_P
- *buffer = value;
+ put_insn_int_value (cd, buffer, cd->base_insn_bitsize,
+ CGEN_FIELDS_BITSIZE (fields), value);
#else
return NULL;
}
+
+/* Cover function to store an insn value into an integral insn. Must go here
+ because it needs <prefix>-desc.h for CGEN_INT_INSN_P. */
+
+static void
+put_insn_int_value (cd, buf, length, insn_length, value)
+ CGEN_CPU_DESC cd;
+ CGEN_INSN_BYTES_PTR buf;
+ int length;
+ int insn_length;
+ CGEN_INSN_INT value;
+{
+ /* For architectures with insns smaller than the base-insn-bitsize,
+ length may be too big. */
+ if (length > insn_length)
+ *buf = value;
+ else
+ {
+ int shift = insn_length - length;
+ /* Written this way to avoid undefined behaviour. */
+ CGEN_INSN_INT mask = (((1L << (length - 1)) - 1) << 1) | 1;
+ *buf = (*buf & ~(mask << shift)) | ((value & mask) << shift);
+ }
+}
\f
/* Operand extraction. */
extract_normal (cd, ex_info, insn_value, attrs, word_offset, start, length,
word_length, total_length, pc, valuep)
CGEN_CPU_DESC cd;
+#if ! CGEN_INT_INSN_P
CGEN_EXTRACT_INFO *ex_info;
+#else
+ CGEN_EXTRACT_INFO *ex_info ATTRIBUTE_UNUSED;
+#endif
CGEN_INSN_INT insn_value;
unsigned int attrs;
unsigned int word_offset, start, length, word_length, total_length;
+#if ! CGEN_INT_INSN_P
bfd_vma pc;
+#else
+ bfd_vma pc ATTRIBUTE_UNUSED;
+#endif
long *valuep;
{
CGEN_INSN_INT value;
return 1;
}
+#if 0
if (CGEN_INT_INSN_P
&& word_offset != 0)
abort ();
+#endif
if (word_length > 32)
abort ();
/* Does the value reside in INSN_VALUE? */
- if (word_offset == 0)
+ if (CGEN_INT_INSN_P || word_offset == 0)
{
/* Written this way to avoid undefined behaviour. */
CGEN_INSN_INT mask = (((1L << (length - 1)) - 1) << 1) | 1;
if (CGEN_INSN_LSB0_P)
- value = insn_value >> ((start + 1) - length);
+ value = insn_value >> ((word_offset + start + 1) - length);
else
- value = insn_value >> (word_length - (start + length));
+ value = insn_value >> (total_length - ( word_offset + start + length));
value &= mask;
/* sign extend? */
if (CGEN_BOOL_ATTR (attrs, CGEN_IFLD_SIGNED)
case FR30_OPERAND_I20 :
{
length = extract_normal (cd, ex_info, insn_value, 0, 0, 8, 4, 16, total_length, pc, & fields->f_i20_4);
+ if (length <= 0) break;
length = extract_normal (cd, ex_info, insn_value, 0, 16, 0, 16, 16, total_length, pc, & fields->f_i20_16);
+ if (length <= 0) break;
{
FLD (f_i20) = ((((FLD (f_i20_4)) << (16))) | (FLD (f_i20_16)));
}
#include "symcat.h"
#include "fr30-desc.h"
#include "fr30-opc.h"
+#include "libiberty.h"
/* The hash functions are recorded here to help keep assembler code out of
the disassembler and vice versa. */
#define F(f) & fr30_cgen_ifld_table[CONCAT2 (FR30_,f)]
static const CGEN_IFMT ifmt_empty = {
- 0, 0, 0x0, { 0 }
+ 0, 0, 0x0, { { 0 } }
};
static const CGEN_IFMT ifmt_add = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_RJ), F (F_RI), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_RJ) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_addi = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_U4), F (F_RI), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_U4) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_add2 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_M4), F (F_RI), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_M4) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_div0s = {
- 16, 16, 0xfff0, { F (F_OP1), F (F_OP2), F (F_OP3), F (F_RI), 0 }
+ 16, 16, 0xfff0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_div3 = {
- 16, 16, 0xffff, { F (F_OP1), F (F_OP2), F (F_OP3), F (F_OP4), 0 }
+ 16, 16, 0xffff, { { F (F_OP1) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_OP4) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi8 = {
- 16, 16, 0xf000, { F (F_OP1), F (F_I8), F (F_RI), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_I8) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi20 = {
- 16, 32, 0xff00, { F (F_OP1), F (F_I20), F (F_OP2), F (F_RI), 0 }
+ 16, 32, 0xff00, { { F (F_OP1) }, { F (F_I20) }, { F (F_OP2) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi32 = {
- 16, 48, 0xfff0, { F (F_OP1), F (F_I32), F (F_OP2), F (F_OP3), F (F_RI), 0 }
+ 16, 48, 0xfff0, { { F (F_OP1) }, { F (F_I32) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldr14 = {
- 16, 16, 0xf000, { F (F_OP1), F (F_DISP10), F (F_RI), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_DISP10) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldr14uh = {
- 16, 16, 0xf000, { F (F_OP1), F (F_DISP9), F (F_RI), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_DISP9) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldr14ub = {
- 16, 16, 0xf000, { F (F_OP1), F (F_DISP8), F (F_RI), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_DISP8) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldr15 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_UDISP6), F (F_RI), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_UDISP6) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldr15dr = {
- 16, 16, 0xfff0, { F (F_OP1), F (F_OP2), F (F_OP3), F (F_RS2), 0 }
+ 16, 16, 0xfff0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_RS2) }, { 0 } }
};
static const CGEN_IFMT ifmt_movdr = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_RS1), F (F_RI), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_RS1) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_call = {
- 16, 16, 0xf800, { F (F_OP1), F (F_OP5), F (F_REL12), 0 }
+ 16, 16, 0xf800, { { F (F_OP1) }, { F (F_OP5) }, { F (F_REL12) }, { 0 } }
};
static const CGEN_IFMT ifmt_int = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_U8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_U8) }, { 0 } }
};
static const CGEN_IFMT ifmt_brad = {
- 16, 16, 0xff00, { F (F_OP1), F (F_CC), F (F_REL9), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_CC) }, { F (F_REL9) }, { 0 } }
};
static const CGEN_IFMT ifmt_dmovr13 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_DIR10), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_DIR10) }, { 0 } }
};
static const CGEN_IFMT ifmt_dmovr13h = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_DIR9), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_DIR9) }, { 0 } }
};
static const CGEN_IFMT ifmt_dmovr13b = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_DIR8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_DIR8) }, { 0 } }
};
static const CGEN_IFMT ifmt_copop = {
- 16, 32, 0xfff0, { F (F_OP1), F (F_CCC), F (F_OP2), F (F_OP3), F (F_CRJ), F (F_U4C), F (F_CRI), 0 }
+ 16, 32, 0xfff0, { { F (F_OP1) }, { F (F_CCC) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_CRJ) }, { F (F_U4C) }, { F (F_CRI) }, { 0 } }
};
static const CGEN_IFMT ifmt_copld = {
- 16, 32, 0xfff0, { F (F_OP1), F (F_CCC), F (F_OP2), F (F_OP3), F (F_RJC), F (F_U4C), F (F_CRI), 0 }
+ 16, 32, 0xfff0, { { F (F_OP1) }, { F (F_CCC) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_RJC) }, { F (F_U4C) }, { F (F_CRI) }, { 0 } }
};
static const CGEN_IFMT ifmt_copst = {
- 16, 32, 0xfff0, { F (F_OP1), F (F_CCC), F (F_OP2), F (F_OP3), F (F_CRJ), F (F_U4C), F (F_RIC), 0 }
+ 16, 32, 0xfff0, { { F (F_OP1) }, { F (F_CCC) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_CRJ) }, { F (F_U4C) }, { F (F_RIC) }, { 0 } }
};
static const CGEN_IFMT ifmt_addsp = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_S10), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_S10) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldm0 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_REGLIST_LOW_LD), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_REGLIST_LOW_LD) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldm1 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_REGLIST_HI_LD), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_REGLIST_HI_LD) }, { 0 } }
};
static const CGEN_IFMT ifmt_stm0 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_REGLIST_LOW_ST), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_REGLIST_LOW_ST) }, { 0 } }
};
static const CGEN_IFMT ifmt_stm1 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_REGLIST_HI_ST), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_REGLIST_HI_ST) }, { 0 } }
};
static const CGEN_IFMT ifmt_enter = {
- 16, 16, 0xff00, { F (F_OP1), F (F_OP2), F (F_U10), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_U10) }, { 0 } }
};
#undef F
/* Special null first entry.
A `num' value of zero is thus invalid.
Also, the special `invalid' insn resides here. */
- { { 0 } },
+ { { 0, 0, 0, 0 }, {{0}}, 0, {0}},
/* add $Rj,$Ri */
{
{ 0, 0, 0, 0 },
#define F(f) & fr30_cgen_ifld_table[CONCAT2 (FR30_,f)]
static const CGEN_IFMT ifmt_ldi8m = {
- 16, 16, 0xf000, { F (F_OP1), F (F_I8), F (F_RI), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_I8) }, { F (F_RI) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi20m = {
- 16, 32, 0xff00, { F (F_OP1), F (F_OP2), F (F_RI), F (F_I20), 0 }
+ 16, 32, 0xff00, { { F (F_OP1) }, { F (F_OP2) }, { F (F_RI) }, { F (F_I20) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi32m = {
- 16, 48, 0xfff0, { F (F_OP1), F (F_OP2), F (F_OP3), F (F_RI), F (F_I32), 0 }
+ 16, 48, 0xfff0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_OP3) }, { F (F_RI) }, { F (F_I32) }, { 0 } }
};
#undef F
{
int length;
long f_nil;
+ long f_anyof;
long f_op1;
long f_op2;
long f_op3;
first char after the mnemonic part is a space. */
/* FIXME: We also take inappropriate advantage of the fact that
GAS's input scrubber will remove extraneous blanks. */
- if (*str == CGEN_SYNTAX_CHAR (* syn))
+ if (tolower (*str) == tolower (CGEN_SYNTAX_CHAR (* syn)))
{
#ifdef CGEN_MNEMONIC_OPERANDS
if (* syn == ' ')
else
{
/* Syntax char didn't match. Can't be this insn. */
- /* FIXME: would like to return something like
- "expected char `c'" */
- return _("syntax error");
+ static char msg [80];
+ /* xgettext:c-format */
+ sprintf (msg, _("syntax error (expected char `%c', found `%c')"),
+ *syn, *str);
+ return msg;
}
continue;
}
{
const char *start;
CGEN_INSN_LIST *ilist;
- const char *tmp_errmsg;
+ const char *tmp_errmsg = NULL;
/* Skip leading white space. */
while (isspace (* str))
/* Allow parse/insert handlers to obtain length of insn. */
CGEN_FIELDS_BITSIZE (fields) = CGEN_INSN_BITSIZE (insn);
- if (!(tmp_errmsg = CGEN_PARSE_FN (cd, insn) (cd, insn, & str, fields)))
- {
- /* ??? 0 is passed for `pc' */
- if (CGEN_INSERT_FN (cd, insn) (cd, insn, fields, buf, (bfd_vma) 0)
- != NULL)
- continue;
- /* It is up to the caller to actually output the insn and any
- queued relocs. */
- return insn;
- }
+ tmp_errmsg = CGEN_PARSE_FN (cd, insn) (cd, insn, & str, fields);
+ if (tmp_errmsg != NULL)
+ continue;
- /* Try the next entry. */
+ /* ??? 0 is passed for `pc' */
+ tmp_errmsg = CGEN_INSERT_FN (cd, insn) (cd, insn, fields, buf,
+ (bfd_vma) 0);
+ if (tmp_errmsg != NULL)
+ continue;
+
+ /* It is up to the caller to actually output the insn and any
+ queued relocs. */
+ return insn;
}
+ /* Make sure we leave this with something at this point. */
+ if (tmp_errmsg == NULL)
+ tmp_errmsg = "unknown mnemonic";
+
{
static char errbuf[150];
#include "m32r-desc.h"
#include "m32r-opc.h"
#include "opintl.h"
+#include "libiberty.h"
/* Attributes. */
const CGEN_ATTR_TABLE m32r_cgen_ifield_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "PCREL-ADDR", &bool_attr[0], &bool_attr[0] },
{ "ABS-ADDR", &bool_attr[0], &bool_attr[0] },
const CGEN_ATTR_TABLE m32r_cgen_hardware_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "CACHE-ADDR", &bool_attr[0], &bool_attr[0] },
{ "PC", &bool_attr[0], &bool_attr[0] },
const CGEN_ATTR_TABLE m32r_cgen_operand_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "PCREL-ADDR", &bool_attr[0], &bool_attr[0] },
{ "ABS-ADDR", &bool_attr[0], &bool_attr[0] },
const CGEN_ATTR_TABLE m32r_cgen_insn_attr_table[] =
{
- { "MACH", & MACH_attr[0] },
- { "PIPE", & PIPE_attr[0] },
+ { "MACH", & MACH_attr[0], & MACH_attr[0] },
+ { "PIPE", & PIPE_attr[0], & PIPE_attr[0] },
{ "ALIAS", &bool_attr[0], &bool_attr[0] },
{ "VIRTUAL", &bool_attr[0], &bool_attr[0] },
{ "UNCOND-CTI", &bool_attr[0], &bool_attr[0] },
/* Instruction set variants. */
static const CGEN_ISA m32r_cgen_isa_table[] = {
- { "m32r", 32, 32, 16, 32, },
- { 0 }
+ { "m32r", 32, 32, 16, 32 },
+ { 0, 0, 0, 0, 0 }
};
/* Machine variants. */
static const CGEN_MACH m32r_cgen_mach_table[] = {
{ "m32r", "m32r", MACH_M32R },
{ "m32rx", "m32rx", MACH_M32RX },
- { 0 }
+ { 0, 0, 0 }
};
static CGEN_KEYWORD_ENTRY m32r_cgen_opval_gr_names_entries[] =
{
- { "fp", 13 },
- { "lr", 14 },
- { "sp", 15 },
- { "r0", 0 },
- { "r1", 1 },
- { "r2", 2 },
- { "r3", 3 },
- { "r4", 4 },
- { "r5", 5 },
- { "r6", 6 },
- { "r7", 7 },
- { "r8", 8 },
- { "r9", 9 },
- { "r10", 10 },
- { "r11", 11 },
- { "r12", 12 },
- { "r13", 13 },
- { "r14", 14 },
- { "r15", 15 }
+ { "fp", 13, {0, {0}}, 0, 0 },
+ { "lr", 14, {0, {0}}, 0, 0 },
+ { "sp", 15, {0, {0}}, 0, 0 },
+ { "r0", 0, {0, {0}}, 0, 0 },
+ { "r1", 1, {0, {0}}, 0, 0 },
+ { "r2", 2, {0, {0}}, 0, 0 },
+ { "r3", 3, {0, {0}}, 0, 0 },
+ { "r4", 4, {0, {0}}, 0, 0 },
+ { "r5", 5, {0, {0}}, 0, 0 },
+ { "r6", 6, {0, {0}}, 0, 0 },
+ { "r7", 7, {0, {0}}, 0, 0 },
+ { "r8", 8, {0, {0}}, 0, 0 },
+ { "r9", 9, {0, {0}}, 0, 0 },
+ { "r10", 10, {0, {0}}, 0, 0 },
+ { "r11", 11, {0, {0}}, 0, 0 },
+ { "r12", 12, {0, {0}}, 0, 0 },
+ { "r13", 13, {0, {0}}, 0, 0 },
+ { "r14", 14, {0, {0}}, 0, 0 },
+ { "r15", 15, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD m32r_cgen_opval_gr_names =
{
& m32r_cgen_opval_gr_names_entries[0],
- 19
+ 19,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY m32r_cgen_opval_cr_names_entries[] =
{
- { "psw", 0 },
- { "cbr", 1 },
- { "spi", 2 },
- { "spu", 3 },
- { "bpc", 6 },
- { "bbpsw", 8 },
- { "bbpc", 14 },
- { "cr0", 0 },
- { "cr1", 1 },
- { "cr2", 2 },
- { "cr3", 3 },
- { "cr4", 4 },
- { "cr5", 5 },
- { "cr6", 6 },
- { "cr7", 7 },
- { "cr8", 8 },
- { "cr9", 9 },
- { "cr10", 10 },
- { "cr11", 11 },
- { "cr12", 12 },
- { "cr13", 13 },
- { "cr14", 14 },
- { "cr15", 15 }
+ { "psw", 0, {0, {0}}, 0, 0 },
+ { "cbr", 1, {0, {0}}, 0, 0 },
+ { "spi", 2, {0, {0}}, 0, 0 },
+ { "spu", 3, {0, {0}}, 0, 0 },
+ { "bpc", 6, {0, {0}}, 0, 0 },
+ { "bbpsw", 8, {0, {0}}, 0, 0 },
+ { "bbpc", 14, {0, {0}}, 0, 0 },
+ { "cr0", 0, {0, {0}}, 0, 0 },
+ { "cr1", 1, {0, {0}}, 0, 0 },
+ { "cr2", 2, {0, {0}}, 0, 0 },
+ { "cr3", 3, {0, {0}}, 0, 0 },
+ { "cr4", 4, {0, {0}}, 0, 0 },
+ { "cr5", 5, {0, {0}}, 0, 0 },
+ { "cr6", 6, {0, {0}}, 0, 0 },
+ { "cr7", 7, {0, {0}}, 0, 0 },
+ { "cr8", 8, {0, {0}}, 0, 0 },
+ { "cr9", 9, {0, {0}}, 0, 0 },
+ { "cr10", 10, {0, {0}}, 0, 0 },
+ { "cr11", 11, {0, {0}}, 0, 0 },
+ { "cr12", 12, {0, {0}}, 0, 0 },
+ { "cr13", 13, {0, {0}}, 0, 0 },
+ { "cr14", 14, {0, {0}}, 0, 0 },
+ { "cr15", 15, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD m32r_cgen_opval_cr_names =
{
& m32r_cgen_opval_cr_names_entries[0],
- 23
+ 23,
+ 0, 0, 0, 0
};
static CGEN_KEYWORD_ENTRY m32r_cgen_opval_h_accums_entries[] =
{
- { "a0", 0 },
- { "a1", 1 }
+ { "a0", 0, {0, {0}}, 0, 0 },
+ { "a1", 1, {0, {0}}, 0, 0 }
};
CGEN_KEYWORD m32r_cgen_opval_h_accums =
{
& m32r_cgen_opval_h_accums_entries[0],
- 2
+ 2,
+ 0, 0, 0, 0
};
{ "h-bpsw", HW_H_BPSW, CGEN_ASM_NONE, 0, { 0, { (1<<MACH_BASE) } } },
{ "h-bbpsw", HW_H_BBPSW, CGEN_ASM_NONE, 0, { 0, { (1<<MACH_BASE) } } },
{ "h-lock", HW_H_LOCK, CGEN_ASM_NONE, 0, { 0, { (1<<MACH_BASE) } } },
- { 0 }
+ { 0, 0, CGEN_ASM_NONE, 0, {0, {0}} }
};
#undef A
{ M32R_F_BITS67, "f-bits67", 0, 32, 6, 2, { 0, { (1<<MACH_BASE) } } },
{ M32R_F_BIT14, "f-bit14", 0, 32, 14, 1, { 0, { (1<<MACH_BASE) } } },
{ M32R_F_IMM1, "f-imm1", 0, 32, 15, 1, { 0, { (1<<MACH_BASE) } } },
- { 0 }
+ { 0, 0, 0, 0, 0, 0, {0, {0}} }
};
#undef A
/* accum: accumulator */
{ "accum", M32R_OPERAND_ACCUM, HW_H_ACCUM, 0, 0,
{ 0|A(SEM_ONLY), { (1<<MACH_BASE) } } },
- { 0 }
+ { 0, 0, 0, 0, 0, {0, {0}} }
};
#undef A
/* Special null first entry.
A `num' value of zero is thus invalid.
Also, the special `invalid' insn resides here. */
- { 0, 0, 0 },
+ { 0, 0, 0, 0, {0, {0}} },
/* add $dr,$sr */
{
M32R_INSN_ADD, "add", "add", 16,
m32r_cgen_rebuild_tables (cd)
CGEN_CPU_TABLE *cd;
{
- int i,n_isas,n_machs;
+ int i,n_isas;
unsigned int isas = cd->isas;
+#if 0
unsigned int machs = cd->machs;
+#endif
cd->int_insn_p = CGEN_INT_INSN_P;
++n_isas;
}
+#if 0 /* Does nothing?? */
/* Data derived from the mach spec. */
for (i = 0; i < MAX_MACHS; ++i)
if (((1 << i) & machs) != 0)
++n_machs;
}
+#endif
/* Determine which hw elements are used by MACH. */
build_hw_table (cd);
cd->rebuild_tables = m32r_cgen_rebuild_tables;
m32r_cgen_rebuild_tables (cd);
- /* Initialise flags. */
+ /* Default to not allowing signed overflow. */
cd->signed_overflow_ok_p = 0;
return (CGEN_CPU_DESC) cd;
#define CGEN_INT_INSN_P 1
-/* Maximum number of syntax bytes in an instruction. */
+/* Maximum nymber of syntax bytes in an instruction. */
#define CGEN_ACTUAL_MAX_SYNTAX_BYTES 15
/* CGEN_MNEMONIC_OPERANDS is defined if mnemonics have operands.
static void
print_normal (cd, dis_info, value, attrs, pc, length)
+#ifdef CGEN_PRINT_NORMAL
CGEN_CPU_DESC cd;
+#else
+ CGEN_CPU_DESC cd ATTRIBUTE_UNUSED;
+#endif
PTR dis_info;
long value;
unsigned int attrs;
+#ifdef CGEN_PRINT_NORMAL
bfd_vma pc;
int length;
+#else
+ bfd_vma pc ATTRIBUTE_UNUSED;
+ int length ATTRIBUTE_UNUSED;
+#endif
{
disassemble_info *info = (disassemble_info *) dis_info;
static void
print_address (cd, dis_info, value, attrs, pc, length)
+#ifdef CGEN_PRINT_NORMAL
CGEN_CPU_DESC cd;
+#else
+ CGEN_CPU_DESC cd ATTRIBUTE_UNUSED;
+#endif
PTR dis_info;
bfd_vma value;
unsigned int attrs;
+#ifdef CGEN_PRINT_NORMAL
bfd_vma pc;
int length;
+#else
+ bfd_vma pc ATTRIBUTE_UNUSED;
+ int length ATTRIBUTE_UNUSED;
+#endif
{
disassemble_info *info = (disassemble_info *) dis_info;
static void
print_keyword (cd, dis_info, keyword_table, value, attrs)
- CGEN_CPU_DESC cd;
+ CGEN_CPU_DESC cd ATTRIBUTE_UNUSED;
PTR dis_info;
CGEN_KEYWORD *keyword_table;
long value;
- unsigned int attrs;
+ unsigned int attrs ATTRIBUTE_UNUSED;
{
disassemble_info *info = (disassemble_info *) dis_info;
const CGEN_KEYWORD_ENTRY *ke;
}
}
\f
-/* Utility to print an insn.
- BUF is the base part of the insn, target byte order, BUFLEN bytes long.
- The result is the size of the insn in bytes or zero for an unknown insn
- or -1 if an error occurs fetching data (memory_error_func will have
- been called). */
-
+/* Subroutine of print_insn. Reads an insn into the given buffers and updates
+ the extract info.
+ Returns 0 if all is well, non-zero otherwise. */
static int
-print_insn (cd, pc, info, buf, buflen)
+read_insn (cd, pc, info, buf, buflen, ex_info, insn_value)
CGEN_CPU_DESC cd;
bfd_vma pc;
disassemble_info *info;
char *buf;
int buflen;
+ CGEN_EXTRACT_INFO *ex_info;
+ unsigned long *insn_value;
{
- unsigned long insn_value;
- const CGEN_INSN_LIST *insn_list;
- CGEN_EXTRACT_INFO ex_info;
+ int status = (*info->read_memory_func) (pc, buf, buflen, info);
+ if (status != 0)
+ {
+ (*info->memory_error_func) (status, pc, info);
+ return -1;
+ }
- ex_info.dis_info = info;
- ex_info.valid = (1 << (cd->base_insn_bitsize / 8)) - 1;
- ex_info.insn_bytes = buf;
+ ex_info->dis_info = info;
+ ex_info->valid = (1 << buflen) - 1;
+ ex_info->insn_bytes = buf;
switch (buflen)
{
case 1:
- insn_value = buf[0];
+ *insn_value = buf[0];
break;
case 2:
- insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb16 (buf) : bfd_getl16 (buf);
+ *insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb16 (buf) : bfd_getl16 (buf);
break;
case 4:
- insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb32 (buf) : bfd_getl32 (buf);
+ *insn_value = info->endian == BFD_ENDIAN_BIG ? bfd_getb32 (buf) : bfd_getl32 (buf);
break;
default:
abort ();
}
+ return 0;
+}
+
+/* Utility to print an insn.
+ BUF is the base part of the insn, target byte order, BUFLEN bytes long.
+ The result is the size of the insn in bytes or zero for an unknown insn
+ or -1 if an error occurs fetching data (memory_error_func will have
+ been called). */
+
+static int
+print_insn (cd, pc, info, buf, buflen)
+ CGEN_CPU_DESC cd;
+ bfd_vma pc;
+ disassemble_info *info;
+ char *buf;
+ int buflen;
+{
+ unsigned long insn_value;
+ const CGEN_INSN_LIST *insn_list;
+ CGEN_EXTRACT_INFO ex_info;
+
+ int rc = read_insn (cd, pc, info, buf, buflen, & ex_info, & insn_value);
+ if (rc != 0)
+ return rc;
+
/* The instructions are stored in hash lists.
Pick the first one and keep trying until we find the right one. */
machine insn and extracts the fields. The second pass prints
them. */
+#if CGEN_INT_INSN_P
+ /* Make sure the entire insn is loaded into insn_value. */
+ if (CGEN_INSN_BITSIZE (insn) > cd->base_insn_bitsize)
+ {
+ unsigned long full_insn_value;
+ int rc = read_insn (cd, pc, info, buf,
+ CGEN_INSN_BITSIZE (insn) / 8,
+ & ex_info, & full_insn_value);
+ if (rc != 0)
+ return rc;
+ length = CGEN_EXTRACT_FN (cd, insn)
+ (cd, insn, &ex_info, full_insn_value, &fields, pc);
+ }
+ else
+#endif
+
length = CGEN_EXTRACT_FN (cd, insn)
(cd, insn, &ex_info, insn_value, &fields, pc);
/* length < 0 -> error */
disassemble_info *info;
{
static CGEN_CPU_DESC cd = 0;
- static prev_isa,prev_mach,prev_endian;
+ static int prev_isa;
+ static int prev_mach;
+ static int prev_endian;
int length;
int isa,mach;
int endian = (info->endian == BFD_ENDIAN_BIG
static int extract_insn_normal
PARAMS ((CGEN_CPU_DESC, const CGEN_INSN *, CGEN_EXTRACT_INFO *,
CGEN_INSN_INT, CGEN_FIELDS *, bfd_vma));
+static void cgen_put_insn_int_value
+ PARAMS ((CGEN_CPU_DESC, CGEN_INSN_BYTES_PTR, int, int, CGEN_INSN_INT));
+
\f
/* Operand insertion. */
if (length == 0)
return NULL;
+#if 0
if (CGEN_INT_INSN_P
&& word_offset != 0)
abort ();
+#endif
if (word_length > 32)
abort ();
int shift;
if (CGEN_INSN_LSB0_P)
- shift = (start + 1) - length;
+ shift = (word_offset + start + 1) - length;
else
- shift = word_length - (start + length);
+ shift = total_length - (word_offset + start + length);
*buffer = (*buffer & ~(mask << shift)) | ((value & mask) << shift);
}
#if CGEN_INT_INSN_P
- *buffer = value;
+ cgen_put_insn_int_value (cd, buffer, cd->base_insn_bitsize,
+ CGEN_FIELDS_BITSIZE (fields), value);
#else
return NULL;
}
+
+/* Cover function to store an insn value into an integral insn. Must go here
+ because it needs <prefix>-desc.h for CGEN_INT_INSN_P. */
+
+void
+cgen_put_insn_int_value (cd, buf, length, insn_length, value)
+ CGEN_CPU_DESC cd;
+ CGEN_INSN_BYTES_PTR buf;
+ int length;
+ int insn_length;
+ CGEN_INSN_INT value;
+{
+ /* For architectures with insns smaller than the base-insn-bitsize,
+ length may be too big. */
+ if (length > insn_length)
+ *buf = value;
+ else
+ {
+ int shift = insn_length - length;
+ /* Written this way to avoid undefined behaviour. */
+ CGEN_INSN_INT mask = (((1L << (length - 1)) - 1) << 1) | 1;
+ *buf = (*buf & ~(mask << shift)) | ((value & mask) << shift);
+ }
+}
\f
/* Operand extraction. */
extract_normal (cd, ex_info, insn_value, attrs, word_offset, start, length,
word_length, total_length, pc, valuep)
CGEN_CPU_DESC cd;
+#if ! CGEN_INT_INSN_P
CGEN_EXTRACT_INFO *ex_info;
+#else
+ CGEN_EXTRACT_INFO *ex_info ATTRIBUTE_UNUSED;
+#endif
CGEN_INSN_INT insn_value;
unsigned int attrs;
unsigned int word_offset, start, length, word_length, total_length;
+#if ! CGEN_INT_INSN_P
bfd_vma pc;
+#else
+ bfd_vma pc ATTRIBUTE_UNUSED;
+#endif
long *valuep;
{
CGEN_INSN_INT value;
return 1;
}
+#if 0
if (CGEN_INT_INSN_P
&& word_offset != 0)
abort ();
+#endif
if (word_length > 32)
abort ();
/* Does the value reside in INSN_VALUE? */
- if (word_offset == 0)
+ if (CGEN_INT_INSN_P || word_offset == 0)
{
/* Written this way to avoid undefined behaviour. */
CGEN_INSN_INT mask = (((1L << (length - 1)) - 1) << 1) | 1;
if (CGEN_INSN_LSB0_P)
- value = insn_value >> ((start + 1) - length);
+ value = insn_value >> ((word_offset + start + 1) - length);
else
- value = insn_value >> (word_length - (start + length));
+ value = insn_value >> (total_length - ( word_offset + start + length));
value &= mask;
/* sign extend? */
if (CGEN_BOOL_ATTR (attrs, CGEN_IFLD_SIGNED)
#include "symcat.h"
#include "m32r-desc.h"
#include "m32r-opc.h"
+#include "libiberty.h"
/* The hash functions are recorded here to help keep assembler code out of
the disassembler and vice versa. */
#define F(f) & m32r_cgen_ifld_table[CONCAT2 (M32R_,f)]
static const CGEN_IFMT ifmt_empty = {
- 0, 0, 0x0, { 0 }
+ 0, 0, 0x0, { { 0 } }
};
static const CGEN_IFMT ifmt_add = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_add3 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_and3 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_UIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_UIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_or3 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_UIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_UIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_addi = {
- 16, 16, 0xf000, { F (F_OP1), F (F_R1), F (F_SIMM8), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_R1) }, { F (F_SIMM8) }, { 0 } }
};
static const CGEN_IFMT ifmt_addv3 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_bc8 = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bc24 = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_beq = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_DISP16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_DISP16) }, { 0 } }
};
static const CGEN_IFMT ifmt_beqz = {
- 32, 32, 0xfff00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_DISP16), 0 }
+ 32, 32, 0xfff00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_DISP16) }, { 0 } }
};
static const CGEN_IFMT ifmt_cmp = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_cmpi = {
- 32, 32, 0xfff00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xfff00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_cmpz = {
- 16, 16, 0xfff0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xfff0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_div = {
- 32, 32, 0xf0f0ffff, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f0ffff, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_jc = {
- 16, 16, 0xfff0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xfff0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_ld24 = {
- 32, 32, 0xf0000000, { F (F_OP1), F (F_R1), F (F_UIMM24), 0 }
+ 32, 32, 0xf0000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_UIMM24) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi16 = {
- 32, 32, 0xf0ff0000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0ff0000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_machi_a = {
- 16, 16, 0xf070, { F (F_OP1), F (F_R1), F (F_ACC), F (F_OP23), F (F_R2), 0 }
+ 16, 16, 0xf070, { { F (F_OP1) }, { F (F_R1) }, { F (F_ACC) }, { F (F_OP23) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_mvfachi = {
- 16, 16, 0xf0ff, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0ff, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_mvfachi_a = {
- 16, 16, 0xf0f3, { F (F_OP1), F (F_R1), F (F_OP2), F (F_ACCS), F (F_OP3), 0 }
+ 16, 16, 0xf0f3, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_OP3) }, { 0 } }
};
static const CGEN_IFMT ifmt_mvfc = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_mvtachi = {
- 16, 16, 0xf0ff, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0ff, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_mvtachi_a = {
- 16, 16, 0xf0f3, { F (F_OP1), F (F_R1), F (F_OP2), F (F_ACCS), F (F_OP3), 0 }
+ 16, 16, 0xf0f3, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_OP3) }, { 0 } }
};
static const CGEN_IFMT ifmt_mvtc = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_nop = {
- 16, 16, 0xffff, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xffff, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_rac_dsi = {
- 16, 16, 0xf3f2, { F (F_OP1), F (F_ACCD), F (F_BITS67), F (F_OP2), F (F_ACCS), F (F_BIT14), F (F_IMM1), 0 }
+ 16, 16, 0xf3f2, { { F (F_OP1) }, { F (F_ACCD) }, { F (F_BITS67) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_BIT14) }, { F (F_IMM1) }, { 0 } }
};
static const CGEN_IFMT ifmt_seth = {
- 32, 32, 0xf0ff0000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_HI16), 0 }
+ 32, 32, 0xf0ff0000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_HI16) }, { 0 } }
};
static const CGEN_IFMT ifmt_slli = {
- 16, 16, 0xf0e0, { F (F_OP1), F (F_R1), F (F_SHIFT_OP2), F (F_UIMM5), 0 }
+ 16, 16, 0xf0e0, { { F (F_OP1) }, { F (F_R1) }, { F (F_SHIFT_OP2) }, { F (F_UIMM5) }, { 0 } }
};
static const CGEN_IFMT ifmt_st_d = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_trap = {
- 16, 16, 0xfff0, { F (F_OP1), F (F_R1), F (F_OP2), F (F_UIMM4), 0 }
+ 16, 16, 0xfff0, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_UIMM4) }, { 0 } }
};
static const CGEN_IFMT ifmt_satb = {
- 32, 32, 0xf0f0ffff, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), F (F_UIMM16), 0 }
+ 32, 32, 0xf0f0ffff, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_UIMM16) }, { 0 } }
};
#undef F
/* Special null first entry.
A `num' value of zero is thus invalid.
Also, the special `invalid' insn resides here. */
- { { 0 } },
+ { { 0, 0, 0, 0 }, {{0}}, 0, {0}},
/* add $dr,$sr */
{
{ 0, 0, 0, 0 },
#define F(f) & m32r_cgen_ifld_table[CONCAT2 (M32R_,f)]
static const CGEN_IFMT ifmt_bc8r = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bc24r = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_bl8r = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bl24r = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_bcl8r = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bcl24r = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_bnc8r = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bnc24r = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_bra8r = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bra24r = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_bncl8r = {
- 16, 16, 0xff00, { F (F_OP1), F (F_R1), F (F_DISP8), 0 }
+ 16, 16, 0xff00, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP8) }, { 0 } }
};
static const CGEN_IFMT ifmt_bncl24r = {
- 32, 32, 0xff000000, { F (F_OP1), F (F_R1), F (F_DISP24), 0 }
+ 32, 32, 0xff000000, { { F (F_OP1) }, { F (F_R1) }, { F (F_DISP24) }, { 0 } }
};
static const CGEN_IFMT ifmt_ld_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_ld_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldb_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldb_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldh_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldh_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldub_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldub_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_lduh_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_lduh_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_pop = {
- 16, 16, 0xf0ff, { F (F_OP1), F (F_R1), F (F_OP2), F (F_R2), 0 }
+ 16, 16, 0xf0ff, { { F (F_OP1) }, { F (F_R1) }, { F (F_OP2) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi8a = {
- 16, 16, 0xf000, { F (F_OP1), F (F_R1), F (F_SIMM8), 0 }
+ 16, 16, 0xf000, { { F (F_OP1) }, { F (F_R1) }, { F (F_SIMM8) }, { 0 } }
};
static const CGEN_IFMT ifmt_ldi16a = {
- 32, 32, 0xf0ff0000, { F (F_OP1), F (F_OP2), F (F_R2), F (F_R1), F (F_SIMM16), 0 }
+ 32, 32, 0xf0ff0000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R2) }, { F (F_R1) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_rac_d = {
- 16, 16, 0xf3ff, { F (F_OP1), F (F_ACCD), F (F_BITS67), F (F_OP2), F (F_ACCS), F (F_BIT14), F (F_IMM1), 0 }
+ 16, 16, 0xf3ff, { { F (F_OP1) }, { F (F_ACCD) }, { F (F_BITS67) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_BIT14) }, { F (F_IMM1) }, { 0 } }
};
static const CGEN_IFMT ifmt_rac_ds = {
- 16, 16, 0xf3f3, { F (F_OP1), F (F_ACCD), F (F_BITS67), F (F_OP2), F (F_ACCS), F (F_BIT14), F (F_IMM1), 0 }
+ 16, 16, 0xf3f3, { { F (F_OP1) }, { F (F_ACCD) }, { F (F_BITS67) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_BIT14) }, { F (F_IMM1) }, { 0 } }
};
static const CGEN_IFMT ifmt_rach_d = {
- 16, 16, 0xf3ff, { F (F_OP1), F (F_ACCD), F (F_BITS67), F (F_OP2), F (F_ACCS), F (F_BIT14), F (F_IMM1), 0 }
+ 16, 16, 0xf3ff, { { F (F_OP1) }, { F (F_ACCD) }, { F (F_BITS67) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_BIT14) }, { F (F_IMM1) }, { 0 } }
};
static const CGEN_IFMT ifmt_rach_ds = {
- 16, 16, 0xf3f3, { F (F_OP1), F (F_ACCD), F (F_BITS67), F (F_OP2), F (F_ACCS), F (F_BIT14), F (F_IMM1), 0 }
+ 16, 16, 0xf3f3, { { F (F_OP1) }, { F (F_ACCD) }, { F (F_BITS67) }, { F (F_OP2) }, { F (F_ACCS) }, { F (F_BIT14) }, { F (F_IMM1) }, { 0 } }
};
static const CGEN_IFMT ifmt_st_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_st_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_stb_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_stb_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_sth_2 = {
- 16, 16, 0xf0f0, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0f0, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
static const CGEN_IFMT ifmt_sth_d2 = {
- 32, 32, 0xf0f00000, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), F (F_SIMM16), 0 }
+ 32, 32, 0xf0f00000, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { F (F_SIMM16) }, { 0 } }
};
static const CGEN_IFMT ifmt_push = {
- 16, 16, 0xf0ff, { F (F_OP1), F (F_OP2), F (F_R1), F (F_R2), 0 }
+ 16, 16, 0xf0ff, { { F (F_OP1) }, { F (F_OP2) }, { F (F_R1) }, { F (F_R2) }, { 0 } }
};
#undef F
projects / thirdparty / binutils-gdb.git / commitdiff
