e88acd9618
(generic_val_print): Declare. * valprint.c (generic_val_print): New function. * p-valprint.c (p_decorations): New global. (pascal_val_print) <TYPE_CODE_REF, TYPE_CODE_ENUM, TYPE_CODE_FLAGS, TYPE_CODE_FUNC, TYPE_CODE_RANGE, TYPE_CODE_INT, TYPE_CODE_FLT, TYPE_CODE_VOID, TYPE_CODE_ERROR, TYPE_CODE_UNDEF, TYPE_CODE_BOOL, TYPE_CODE_CHAR>: Call generic_val_print. * m2-valprint.c (m2_decorations): New global. (m2_val_print) <TYPE_CODE_REF, TYPE_CODE_ENUM, TYPE_CODE_FUNC, TYPE_CODE_BOOL, TYPE_CODE_RANGE, TYPE_CODE_INT, TYPE_CODE_CHAR, TYPE_CODE_FLT, TYPE_CODE_METHOD, TYPE_CODE_VOID, TYPE_CODE_UNDEF, TYPE_CODE_ERROR>: Call generic_val_print. * f-valprint.c (f_decorations): New global. (f_val_print): Use print_function_pointer_address. <TYPE_CODE_REF, TYPE_CODE_FUNC, TYPE_CODE_CHAR, TYPE_CODE_FLAGS, TYPE_CODE_FLT, TYPE_CODE_VOID, TYPE_CODE_ENUM, TYPE_CODE_RANGE, TYPE_CODE_BOOL, TYPE_CODE_COMPLEX, TYPE_CODE_UNDEF>: Call generic_val_print. * c-valprint.c (c_decorations): New global. (c_val_print) <TYPE_CODE_MEMBERPTR, TYPE_CODE_REF, TYPE_CODE_ENUM, TYPE_CODE_FLAGS, TYPE_CODE_FUNC, TYPE_CODE_METHOD, TYPE_CODE_BOOL, TYPE_CODE_RANGE, TYPE_CODE_CHAR, TYPE_CODE_FLT, TYPE_CODE_DECFLOAT, TYPE_CODE_VOID, TYPE_CODE_ERROR, TYPE_CODE_UNDEF, TYPE_CODE_COMPLEX>: Call generic_val_print. * ada-valprint.c (ada_val_print_1) <TYPE_CODE_FLAGS>: Remove case.
587 lines
17 KiB
C
587 lines
17 KiB
C
/* Support for printing Fortran values for GDB, the GNU debugger.
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Copyright (C) 1993-1996, 1998-2000, 2003, 2005-2012 Free Software
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Foundation, Inc.
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Contributed by Motorola. Adapted from the C definitions by Farooq Butt
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(fmbutt@engage.sps.mot.com), additionally worked over by Stan Shebs.
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This file is part of GDB.
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This program is free software; you can redistribute it and/or modify
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it under the terms of the GNU General Public License as published by
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the Free Software Foundation; either version 3 of the License, or
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(at your option) any later version.
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This program is distributed in the hope that it will be useful,
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but WITHOUT ANY WARRANTY; without even the implied warranty of
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MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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GNU General Public License for more details.
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You should have received a copy of the GNU General Public License
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along with this program. If not, see <http://www.gnu.org/licenses/>. */
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#include "defs.h"
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#include "gdb_string.h"
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#include "symtab.h"
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#include "gdbtypes.h"
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#include "expression.h"
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#include "value.h"
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#include "valprint.h"
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#include "language.h"
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#include "f-lang.h"
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#include "frame.h"
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#include "gdbcore.h"
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#include "command.h"
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#include "block.h"
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#if 0
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static int there_is_a_visible_common_named (char *);
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#endif
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extern void _initialize_f_valprint (void);
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static void info_common_command (char *, int);
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static void list_all_visible_commons (const char *);
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static void f77_create_arrayprint_offset_tbl (struct type *,
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struct ui_file *);
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static void f77_get_dynamic_length_of_aggregate (struct type *);
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int f77_array_offset_tbl[MAX_FORTRAN_DIMS + 1][2];
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/* Array which holds offsets to be applied to get a row's elements
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for a given array. Array also holds the size of each subarray. */
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/* The following macro gives us the size of the nth dimension, Where
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n is 1 based. */
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#define F77_DIM_SIZE(n) (f77_array_offset_tbl[n][1])
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/* The following gives us the offset for row n where n is 1-based. */
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#define F77_DIM_OFFSET(n) (f77_array_offset_tbl[n][0])
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int
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f77_get_lowerbound (struct type *type)
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{
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if (TYPE_ARRAY_LOWER_BOUND_IS_UNDEFINED (type))
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error (_("Lower bound may not be '*' in F77"));
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return TYPE_ARRAY_LOWER_BOUND_VALUE (type);
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}
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int
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f77_get_upperbound (struct type *type)
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{
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if (TYPE_ARRAY_UPPER_BOUND_IS_UNDEFINED (type))
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{
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/* We have an assumed size array on our hands. Assume that
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upper_bound == lower_bound so that we show at least 1 element.
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If the user wants to see more elements, let him manually ask for 'em
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and we'll subscript the array and show him. */
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return f77_get_lowerbound (type);
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}
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return TYPE_ARRAY_UPPER_BOUND_VALUE (type);
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}
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/* Obtain F77 adjustable array dimensions. */
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static void
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f77_get_dynamic_length_of_aggregate (struct type *type)
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{
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int upper_bound = -1;
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int lower_bound = 1;
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/* Recursively go all the way down into a possibly multi-dimensional
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F77 array and get the bounds. For simple arrays, this is pretty
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easy but when the bounds are dynamic, we must be very careful
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to add up all the lengths correctly. Not doing this right
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will lead to horrendous-looking arrays in parameter lists.
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This function also works for strings which behave very
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similarly to arrays. */
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if (TYPE_CODE (TYPE_TARGET_TYPE (type)) == TYPE_CODE_ARRAY
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|| TYPE_CODE (TYPE_TARGET_TYPE (type)) == TYPE_CODE_STRING)
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f77_get_dynamic_length_of_aggregate (TYPE_TARGET_TYPE (type));
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/* Recursion ends here, start setting up lengths. */
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lower_bound = f77_get_lowerbound (type);
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upper_bound = f77_get_upperbound (type);
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/* Patch in a valid length value. */
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TYPE_LENGTH (type) =
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(upper_bound - lower_bound + 1)
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* TYPE_LENGTH (check_typedef (TYPE_TARGET_TYPE (type)));
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}
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/* Function that sets up the array offset,size table for the array
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type "type". */
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static void
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f77_create_arrayprint_offset_tbl (struct type *type, struct ui_file *stream)
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{
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struct type *tmp_type;
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int eltlen;
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int ndimen = 1;
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int upper, lower;
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tmp_type = type;
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while ((TYPE_CODE (tmp_type) == TYPE_CODE_ARRAY))
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{
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upper = f77_get_upperbound (tmp_type);
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lower = f77_get_lowerbound (tmp_type);
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F77_DIM_SIZE (ndimen) = upper - lower + 1;
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tmp_type = TYPE_TARGET_TYPE (tmp_type);
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ndimen++;
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}
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/* Now we multiply eltlen by all the offsets, so that later we
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can print out array elements correctly. Up till now we
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know an offset to apply to get the item but we also
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have to know how much to add to get to the next item. */
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ndimen--;
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eltlen = TYPE_LENGTH (tmp_type);
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F77_DIM_OFFSET (ndimen) = eltlen;
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while (--ndimen > 0)
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{
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eltlen *= F77_DIM_SIZE (ndimen + 1);
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F77_DIM_OFFSET (ndimen) = eltlen;
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}
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}
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/* Actual function which prints out F77 arrays, Valaddr == address in
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the superior. Address == the address in the inferior. */
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static void
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f77_print_array_1 (int nss, int ndimensions, struct type *type,
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const gdb_byte *valaddr,
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int embedded_offset, CORE_ADDR address,
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struct ui_file *stream, int recurse,
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const struct value *val,
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const struct value_print_options *options,
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int *elts)
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{
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int i;
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if (nss != ndimensions)
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{
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for (i = 0;
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(i < F77_DIM_SIZE (nss) && (*elts) < options->print_max);
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i++)
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{
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fprintf_filtered (stream, "( ");
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f77_print_array_1 (nss + 1, ndimensions, TYPE_TARGET_TYPE (type),
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valaddr,
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embedded_offset + i * F77_DIM_OFFSET (nss),
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address,
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stream, recurse, val, options, elts);
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fprintf_filtered (stream, ") ");
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}
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if (*elts >= options->print_max && i < F77_DIM_SIZE (nss))
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fprintf_filtered (stream, "...");
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}
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else
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{
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for (i = 0; i < F77_DIM_SIZE (nss) && (*elts) < options->print_max;
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i++, (*elts)++)
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{
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val_print (TYPE_TARGET_TYPE (type),
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valaddr,
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embedded_offset + i * F77_DIM_OFFSET (ndimensions),
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address, stream, recurse,
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val, options, current_language);
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if (i != (F77_DIM_SIZE (nss) - 1))
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fprintf_filtered (stream, ", ");
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if ((*elts == options->print_max - 1)
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&& (i != (F77_DIM_SIZE (nss) - 1)))
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fprintf_filtered (stream, "...");
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}
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}
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}
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/* This function gets called to print an F77 array, we set up some
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stuff and then immediately call f77_print_array_1(). */
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static void
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f77_print_array (struct type *type, const gdb_byte *valaddr,
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int embedded_offset,
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CORE_ADDR address, struct ui_file *stream,
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int recurse,
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const struct value *val,
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const struct value_print_options *options)
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{
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int ndimensions;
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int elts = 0;
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ndimensions = calc_f77_array_dims (type);
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if (ndimensions > MAX_FORTRAN_DIMS || ndimensions < 0)
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error (_("\
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Type node corrupt! F77 arrays cannot have %d subscripts (%d Max)"),
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ndimensions, MAX_FORTRAN_DIMS);
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/* Since F77 arrays are stored column-major, we set up an
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offset table to get at the various row's elements. The
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offset table contains entries for both offset and subarray size. */
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f77_create_arrayprint_offset_tbl (type, stream);
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f77_print_array_1 (1, ndimensions, type, valaddr, embedded_offset,
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address, stream, recurse, val, options, &elts);
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}
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/* Decorations for Fortran. */
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static const struct generic_val_print_decorations f_decorations =
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{
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"(",
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",",
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")",
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".TRUE.",
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".FALSE.",
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"VOID",
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};
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/* See val_print for a description of the various parameters of this
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function; they are identical. */
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void
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f_val_print (struct type *type, const gdb_byte *valaddr, int embedded_offset,
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CORE_ADDR address, struct ui_file *stream, int recurse,
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const struct value *original_value,
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const struct value_print_options *options)
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{
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struct gdbarch *gdbarch = get_type_arch (type);
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enum bfd_endian byte_order = gdbarch_byte_order (gdbarch);
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unsigned int i = 0; /* Number of characters printed. */
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struct type *elttype;
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LONGEST val;
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CORE_ADDR addr;
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int index;
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CHECK_TYPEDEF (type);
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switch (TYPE_CODE (type))
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{
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case TYPE_CODE_STRING:
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f77_get_dynamic_length_of_aggregate (type);
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LA_PRINT_STRING (stream, builtin_type (gdbarch)->builtin_char,
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valaddr + embedded_offset,
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TYPE_LENGTH (type), NULL, 0, options);
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break;
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case TYPE_CODE_ARRAY:
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if (TYPE_CODE (TYPE_TARGET_TYPE (type)) != TYPE_CODE_CHAR)
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{
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fprintf_filtered (stream, "(");
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f77_print_array (type, valaddr, embedded_offset,
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address, stream, recurse, original_value, options);
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fprintf_filtered (stream, ")");
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}
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else
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{
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struct type *ch_type = TYPE_TARGET_TYPE (type);
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f77_get_dynamic_length_of_aggregate (type);
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LA_PRINT_STRING (stream, ch_type,
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valaddr + embedded_offset,
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TYPE_LENGTH (type) / TYPE_LENGTH (ch_type),
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NULL, 0, options);
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}
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break;
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case TYPE_CODE_PTR:
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if (options->format && options->format != 's')
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{
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val_print_scalar_formatted (type, valaddr, embedded_offset,
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original_value, options, 0, stream);
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break;
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}
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else
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{
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addr = unpack_pointer (type, valaddr + embedded_offset);
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elttype = check_typedef (TYPE_TARGET_TYPE (type));
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if (TYPE_CODE (elttype) == TYPE_CODE_FUNC)
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{
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/* Try to print what function it points to. */
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print_function_pointer_address (gdbarch, addr, stream,
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options->addressprint);
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return;
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}
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if (options->addressprint && options->format != 's')
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fputs_filtered (paddress (gdbarch, addr), stream);
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/* For a pointer to char or unsigned char, also print the string
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pointed to, unless pointer is null. */
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if (TYPE_LENGTH (elttype) == 1
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&& TYPE_CODE (elttype) == TYPE_CODE_INT
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&& (options->format == 0 || options->format == 's')
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&& addr != 0)
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i = val_print_string (TYPE_TARGET_TYPE (type), NULL, addr, -1,
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stream, options);
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return;
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}
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break;
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case TYPE_CODE_INT:
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if (options->format || options->output_format)
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{
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struct value_print_options opts = *options;
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opts.format = (options->format ? options->format
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: options->output_format);
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val_print_scalar_formatted (type, valaddr, embedded_offset,
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original_value, options, 0, stream);
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}
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else
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{
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val_print_type_code_int (type, valaddr + embedded_offset, stream);
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/* C and C++ has no single byte int type, char is used instead.
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Since we don't know whether the value is really intended to
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be used as an integer or a character, print the character
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equivalent as well. */
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if (TYPE_LENGTH (type) == 1)
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{
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LONGEST c;
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fputs_filtered (" ", stream);
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c = unpack_long (type, valaddr + embedded_offset);
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LA_PRINT_CHAR ((unsigned char) c, type, stream);
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}
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}
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break;
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case TYPE_CODE_STRUCT:
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case TYPE_CODE_UNION:
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/* Starting from the Fortran 90 standard, Fortran supports derived
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types. */
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fprintf_filtered (stream, "( ");
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for (index = 0; index < TYPE_NFIELDS (type); index++)
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{
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int offset = TYPE_FIELD_BITPOS (type, index) / 8;
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val_print (TYPE_FIELD_TYPE (type, index), valaddr,
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embedded_offset + offset,
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address, stream, recurse + 1,
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original_value, options, current_language);
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if (index != TYPE_NFIELDS (type) - 1)
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fputs_filtered (", ", stream);
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}
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fprintf_filtered (stream, " )");
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break;
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case TYPE_CODE_REF:
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case TYPE_CODE_FUNC:
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case TYPE_CODE_FLAGS:
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case TYPE_CODE_FLT:
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case TYPE_CODE_VOID:
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case TYPE_CODE_ERROR:
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case TYPE_CODE_RANGE:
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case TYPE_CODE_UNDEF:
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case TYPE_CODE_COMPLEX:
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case TYPE_CODE_BOOL:
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case TYPE_CODE_CHAR:
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default:
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generic_val_print (type, valaddr, embedded_offset, address,
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stream, recurse, original_value, options,
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&f_decorations);
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break;
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}
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gdb_flush (stream);
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}
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static void
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list_all_visible_commons (const char *funname)
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{
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SAVED_F77_COMMON_PTR tmp;
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tmp = head_common_list;
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printf_filtered (_("All COMMON blocks visible at this level:\n\n"));
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while (tmp != NULL)
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{
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if (strcmp (tmp->owning_function, funname) == 0)
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printf_filtered ("%s\n", tmp->name);
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tmp = tmp->next;
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}
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}
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/* This function is used to print out the values in a given COMMON
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block. It will always use the most local common block of the
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given name. */
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static void
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info_common_command (char *comname, int from_tty)
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{
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SAVED_F77_COMMON_PTR the_common;
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COMMON_ENTRY_PTR entry;
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struct frame_info *fi;
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const char *funname = 0;
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struct symbol *func;
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/* We have been told to display the contents of F77 COMMON
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block supposedly visible in this function. Let us
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first make sure that it is visible and if so, let
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us display its contents. */
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fi = get_selected_frame (_("No frame selected"));
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/* The following is generally ripped off from stack.c's routine
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print_frame_info(). */
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func = find_pc_function (get_frame_pc (fi));
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if (func)
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{
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/* In certain pathological cases, the symtabs give the wrong
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function (when we are in the first function in a file which
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is compiled without debugging symbols, the previous function
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is compiled with debugging symbols, and the "foo.o" symbol
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that is supposed to tell us where the file with debugging symbols
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ends has been truncated by ar because it is longer than 15
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characters).
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So look in the minimal symbol tables as well, and if it comes
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up with a larger address for the function use that instead.
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I don't think this can ever cause any problems; there shouldn't
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be any minimal symbols in the middle of a function.
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FIXME: (Not necessarily true. What about text labels?) */
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struct minimal_symbol *msymbol =
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lookup_minimal_symbol_by_pc (get_frame_pc (fi));
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|
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if (msymbol != NULL
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&& (SYMBOL_VALUE_ADDRESS (msymbol)
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> BLOCK_START (SYMBOL_BLOCK_VALUE (func))))
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funname = SYMBOL_LINKAGE_NAME (msymbol);
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else
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funname = SYMBOL_LINKAGE_NAME (func);
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}
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else
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{
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struct minimal_symbol *msymbol =
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lookup_minimal_symbol_by_pc (get_frame_pc (fi));
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|
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if (msymbol != NULL)
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funname = SYMBOL_LINKAGE_NAME (msymbol);
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else /* Got no 'funname', code below will fail. */
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error (_("No function found for frame."));
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}
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/* If comname is NULL, we assume the user wishes to see the
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which COMMON blocks are visible here and then return. */
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|
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if (comname == 0)
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{
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list_all_visible_commons (funname);
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return;
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}
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|
||
the_common = find_common_for_function (comname, funname);
|
||
|
||
if (the_common)
|
||
{
|
||
if (strcmp (comname, BLANK_COMMON_NAME_LOCAL) == 0)
|
||
printf_filtered (_("Contents of blank COMMON block:\n"));
|
||
else
|
||
printf_filtered (_("Contents of F77 COMMON block '%s':\n"), comname);
|
||
|
||
printf_filtered ("\n");
|
||
entry = the_common->entries;
|
||
|
||
while (entry != NULL)
|
||
{
|
||
print_variable_and_value (NULL, entry->symbol, fi, gdb_stdout, 0);
|
||
entry = entry->next;
|
||
}
|
||
}
|
||
else
|
||
printf_filtered (_("Cannot locate the common block %s in function '%s'\n"),
|
||
comname, funname);
|
||
}
|
||
|
||
/* This function is used to determine whether there is a
|
||
F77 common block visible at the current scope called 'comname'. */
|
||
|
||
#if 0
|
||
static int
|
||
there_is_a_visible_common_named (char *comname)
|
||
{
|
||
SAVED_F77_COMMON_PTR the_common;
|
||
struct frame_info *fi;
|
||
char *funname = 0;
|
||
struct symbol *func;
|
||
|
||
if (comname == NULL)
|
||
error (_("Cannot deal with NULL common name!"));
|
||
|
||
fi = get_selected_frame (_("No frame selected"));
|
||
|
||
/* The following is generally ripped off from stack.c's routine
|
||
print_frame_info(). */
|
||
|
||
func = find_pc_function (fi->pc);
|
||
if (func)
|
||
{
|
||
/* In certain pathological cases, the symtabs give the wrong
|
||
function (when we are in the first function in a file which
|
||
is compiled without debugging symbols, the previous function
|
||
is compiled with debugging symbols, and the "foo.o" symbol
|
||
that is supposed to tell us where the file with debugging symbols
|
||
ends has been truncated by ar because it is longer than 15
|
||
characters).
|
||
|
||
So look in the minimal symbol tables as well, and if it comes
|
||
up with a larger address for the function use that instead.
|
||
I don't think this can ever cause any problems; there shouldn't
|
||
be any minimal symbols in the middle of a function.
|
||
FIXME: (Not necessarily true. What about text labels?) */
|
||
|
||
struct minimal_symbol *msymbol = lookup_minimal_symbol_by_pc (fi->pc);
|
||
|
||
if (msymbol != NULL
|
||
&& (SYMBOL_VALUE_ADDRESS (msymbol)
|
||
> BLOCK_START (SYMBOL_BLOCK_VALUE (func))))
|
||
funname = SYMBOL_LINKAGE_NAME (msymbol);
|
||
else
|
||
funname = SYMBOL_LINKAGE_NAME (func);
|
||
}
|
||
else
|
||
{
|
||
struct minimal_symbol *msymbol =
|
||
lookup_minimal_symbol_by_pc (fi->pc);
|
||
|
||
if (msymbol != NULL)
|
||
funname = SYMBOL_LINKAGE_NAME (msymbol);
|
||
}
|
||
|
||
the_common = find_common_for_function (comname, funname);
|
||
|
||
return (the_common ? 1 : 0);
|
||
}
|
||
#endif
|
||
|
||
void
|
||
_initialize_f_valprint (void)
|
||
{
|
||
add_info ("common", info_common_command,
|
||
_("Print out the values contained in a Fortran COMMON block."));
|
||
if (xdb_commands)
|
||
add_com ("lc", class_info, info_common_command,
|
||
_("Print out the values contained in a Fortran COMMON block."));
|
||
}
|