if (is_elf64)
{
struct aarch64_features features;
+ int pid = current_thread->id.pid ();
features.vq = aarch64_sve_get_vq (tid);
/* A-profile PAC is 64-bit only. */
- features.pauth = linux_get_hwcap (8) & AARCH64_HWCAP_PACA;
+ features.pauth = linux_get_hwcap (pid, 8) & AARCH64_HWCAP_PACA;
/* A-profile MTE is 64-bit only. */
- features.mte = linux_get_hwcap2 (8) & HWCAP2_MTE;
+ features.mte = linux_get_hwcap2 (pid, 8) & HWCAP2_MTE;
features.tls = aarch64_tls_register_count (tid);
current_process ()->tdesc = aarch64_linux_read_description (features);
#endif
}
- return (linux_get_hwcap2 (8) & HWCAP2_MTE) != 0;
+ return (linux_get_hwcap2 (current_thread->id.pid (), 8) & HWCAP2_MTE) != 0;
}
bool
static const struct target_desc *
arm_read_description (void)
{
- unsigned long arm_hwcap = linux_get_hwcap (4);
+ unsigned long arm_hwcap = linux_get_hwcap (current_thread->id.pid (), 4);
if (arm_hwcap & HWCAP_IWMMXT)
return arm_linux_read_description (ARM_FP_TYPE_IWMMXT);
to debugger memory starting at MYADDR. */
int
-linux_process_target::read_auxv (CORE_ADDR offset, unsigned char *myaddr,
- unsigned int len)
+linux_process_target::read_auxv (int pid, CORE_ADDR offset,
+ unsigned char *myaddr, unsigned int len)
{
char filename[PATH_MAX];
int fd, n;
- int pid = lwpid_of (current_thread);
xsnprintf (filename, sizeof filename, "/proc/%d/auxv", pid);
/* See linux-low.h. */
int
-linux_get_auxv (int wordsize, CORE_ADDR match, CORE_ADDR *valp)
+linux_get_auxv (int pid, int wordsize, CORE_ADDR match, CORE_ADDR *valp)
{
gdb_byte *data = (gdb_byte *) alloca (2 * wordsize);
int offset = 0;
gdb_assert (wordsize == 4 || wordsize == 8);
- while (the_target->read_auxv (offset, data, 2 * wordsize) == 2 * wordsize)
+ while (the_target->read_auxv (pid, offset, data, 2 * wordsize)
+ == 2 * wordsize)
{
if (wordsize == 4)
{
/* See linux-low.h. */
CORE_ADDR
-linux_get_hwcap (int wordsize)
+linux_get_hwcap (int pid, int wordsize)
{
CORE_ADDR hwcap = 0;
- linux_get_auxv (wordsize, AT_HWCAP, &hwcap);
+ linux_get_auxv (pid, wordsize, AT_HWCAP, &hwcap);
return hwcap;
}
/* See linux-low.h. */
CORE_ADDR
-linux_get_hwcap2 (int wordsize)
+linux_get_hwcap2 (int pid, int wordsize)
{
CORE_ADDR hwcap2 = 0;
- linux_get_auxv (wordsize, AT_HWCAP2, &hwcap2);
+ linux_get_auxv (pid, wordsize, AT_HWCAP2, &hwcap2);
return hwcap2;
}
bool supports_read_auxv () override;
- int read_auxv (CORE_ADDR offset, unsigned char *myaddr,
+ int read_auxv (int pid, CORE_ADDR offset, unsigned char *myaddr,
unsigned int len) override;
int insert_point (enum raw_bkpt_type type, CORE_ADDR addr,
extern int have_ptrace_getregset;
-/* Search for the value with type MATCH in the auxv vector with
- entries of length WORDSIZE bytes. If found, store the value in
- *VALP and return 1. If not found or if there is an error, return
- 0. */
+/* Search for the value with type MATCH in the auxv vector, with entries of
+ length WORDSIZE bytes, of process with pid PID. If found, store the
+ value in *VALP and return 1. If not found or if there is an error,
+ return 0. */
-int linux_get_auxv (int wordsize, CORE_ADDR match,
- CORE_ADDR *valp);
+int linux_get_auxv (int pid, int wordsize, CORE_ADDR match, CORE_ADDR *valp);
/* Fetch the AT_HWCAP entry from the auxv vector, where entries are length
- WORDSIZE. If no entry was found, return zero. */
+ WORDSIZE, of process with pid PID. If no entry was found, return 0. */
-CORE_ADDR linux_get_hwcap (int wordsize);
+CORE_ADDR linux_get_hwcap (int pid, int wordsize);
/* Fetch the AT_HWCAP2 entry from the auxv vector, where entries are length
- WORDSIZE. If no entry was found, return zero. */
+ WORDSIZE, of process with pid PID. If no entry was found, return 0. */
-CORE_ADDR linux_get_hwcap2 (int wordsize);
+CORE_ADDR linux_get_hwcap2 (int pid, int wordsize);
#endif /* GDBSERVER_LINUX_LOW_H */
/* The value of current_process ()->tdesc needs to be set for this
call. */
- ppc_hwcap = linux_get_hwcap (features.wordsize);
- ppc_hwcap2 = linux_get_hwcap2 (features.wordsize);
+ ppc_hwcap = linux_get_hwcap (current_thread->id.pid (), features.wordsize);
+ ppc_hwcap2 = linux_get_hwcap2 (current_thread->id.pid (), features.wordsize);
features.isa205 = ppc_linux_has_isa205 (ppc_hwcap);
const struct target_desc *tdesc = current_process ()->tdesc;
int wordsize = register_size (tdesc, 0);
- if (!linux_get_auxv (wordsize, AT_PHDR, &phdr))
+ if (!linux_get_auxv (current_thread->id.pid (), wordsize, AT_PHDR, &phdr))
return def_res;
/* Assume ELF header is at the beginning of the page where program headers
/* Determine word size and HWCAP. */
int pid = pid_of (current_thread);
int wordsize = s390_get_wordsize (pid);
- unsigned long hwcap = linux_get_hwcap (wordsize);
+ unsigned long hwcap = linux_get_hwcap (pid, wordsize);
/* Check whether the kernel supports extra register sets. */
int have_regset_last_break
to debugger memory starting at MYADDR. */
int
-netbsd_process_target::read_auxv (CORE_ADDR offset,
+netbsd_process_target::read_auxv (int pid, CORE_ADDR offset,
unsigned char *myaddr, unsigned int len)
{
- pid_t pid = pid_of (current_thread);
-
return netbsd_read_auxv (pid, (void *) (intptr_t) offset, myaddr, len);
}
bool supports_read_auxv () override;
- int read_auxv (CORE_ADDR offset, unsigned char *myaddr,
+ int read_auxv (int pid, CORE_ADDR offset, unsigned char *myaddr,
unsigned int len) override;
bool supports_hardware_single_step () override;
if (annex[0] != '\0' || current_thread == NULL)
return -1;
- return the_target->read_auxv (offset, readbuf, len);
+ return the_target->read_auxv (current_thread->id.pid (), offset, readbuf,
+ len);
}
/* Handle qXfer:exec-file:read. */
}
int
-process_stratum_target::read_auxv (CORE_ADDR offset, unsigned char *myaddr,
- unsigned int len)
+process_stratum_target::read_auxv (int pid, CORE_ADDR offset,
+ unsigned char *myaddr, unsigned int len)
{
gdb_assert_not_reached ("target op read_auxv not supported");
}
/* Return true if the read_auxv target op is supported. */
virtual bool supports_read_auxv ();
- /* Read auxiliary vector data from the inferior process.
+ /* Read auxiliary vector data from the process with pid PID.
Read LEN bytes at OFFSET into a buffer at MYADDR. */
- virtual int read_auxv (CORE_ADDR offset, unsigned char *myaddr,
+ virtual int read_auxv (int pid, CORE_ADDR offset, unsigned char *myaddr,
unsigned int len);
/* Returns true if GDB Z breakpoint type TYPE is supported, false