SIM_DESC
sim_open (SIM_OPEN_KIND kind,
host_callback *cb,
struct bfd *abfd,
char **argv)
{
int i;
SIM_DESC sd = sim_state_alloc (kind, cb);
mn10300_callback = cb;
SIM_ASSERT (STATE_MAGIC (sd) == SIM_MAGIC_NUMBER);
/* The cpu data is kept in a separately allocated chunk of memory. */
if (sim_cpu_alloc_all (sd, 1, /*cgen_cpu_max_extra_bytes ()*/0) != SIM_RC_OK)
return 0;
/* for compatibility */
simulator = sd;
/* FIXME: should be better way of setting up interrupts. For
moment, only support watchpoints causing a breakpoint (gdb
halt). */
STATE_WATCHPOINTS (sd)->pc = &(PC);
STATE_WATCHPOINTS (sd)->sizeof_pc = sizeof (PC);
STATE_WATCHPOINTS (sd)->interrupt_handler = NULL;
STATE_WATCHPOINTS (sd)->interrupt_names = NULL;
if (sim_pre_argv_init (sd, argv[0]) != SIM_RC_OK)
return 0;
sim_add_option_table (sd, NULL, mn10300_options);
/* Allocate core managed memory */
sim_do_command (sd, "memory region 0,0x100000");
sim_do_command (sd, "memory region 0x40000000,0x200000");
/* getopt will print the error message so we just have to exit if this fails.
FIXME: Hmmm... in the case of gdb we need getopt to call
print_filtered. */
if (sim_parse_args (sd, argv) != SIM_RC_OK)
{
/* Uninstall the modules to avoid memory leaks,
file descriptor leaks, etc. */
sim_module_uninstall (sd);
return 0;
}
if ( NULL != board
&& (strcmp(board, BOARD_AM32) == 0 ) )
{
/* environment */
STATE_ENVIRONMENT (sd) = OPERATING_ENVIRONMENT;
sim_do_command (sd, "memory region 0x44000000,0x40000");
sim_do_command (sd, "memory region 0x48000000,0x400000");
/* device support for mn1030002 */
/* interrupt controller */
sim_hw_parse (sd, "/mn103int@0x34000100/reg 0x34000100 0x7C 0x34000200 0x8 0x34000280 0x8");
/* DEBUG: NMI input's */
sim_hw_parse (sd, "/glue@0x30000000/reg 0x30000000 12");
sim_hw_parse (sd, "/glue@0x30000000 > int0 nmirq /mn103int");
sim_hw_parse (sd, "/glue@0x30000000 > int1 watchdog /mn103int");
sim_hw_parse (sd, "/glue@0x30000000 > int2 syserr /mn103int");
/* DEBUG: ACK input */
sim_hw_parse (sd, "/glue@0x30002000/reg 0x30002000 4");
sim_hw_parse (sd, "/glue@0x30002000 > int ack /mn103int");
/* DEBUG: LEVEL output */
sim_hw_parse (sd, "/glue@0x30004000/reg 0x30004000 8");
sim_hw_parse (sd, "/mn103int > nmi int0 /glue@0x30004000");
sim_hw_parse (sd, "/mn103int > level int1 /glue@0x30004000");
/* DEBUG: A bunch of interrupt inputs */
sim_hw_parse (sd, "/glue@0x30006000/reg 0x30006000 32");
sim_hw_parse (sd, "/glue@0x30006000 > int0 irq-0 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int1 irq-1 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int2 irq-2 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int3 irq-3 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int4 irq-4 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int5 irq-5 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int6 irq-6 /mn103int");
sim_hw_parse (sd, "/glue@0x30006000 > int7 irq-7 /mn103int");
/* processor interrupt device */
/* the device */
sim_hw_parse (sd, "/mn103cpu@0x20000000");
sim_hw_parse (sd, "/mn103cpu@0x20000000/reg 0x20000000 0x42");
/* DEBUG: ACK output wired upto a glue device */
sim_hw_parse (sd, "/glue@0x20002000");
sim_hw_parse (sd, "/glue@0x20002000/reg 0x20002000 4");
sim_hw_parse (sd, "/mn103cpu > ack int0 /glue@0x20002000");
/* DEBUG: RESET/NMI/LEVEL wired up to a glue device */
sim_hw_parse (sd, "/glue@0x20004000");
sim_hw_parse (sd, "/glue@0x20004000/reg 0x20004000 12");
sim_hw_parse (sd, "/glue@0x20004000 > int0 reset /mn103cpu");
sim_hw_parse (sd, "/glue@0x20004000 > int1 nmi /mn103cpu");
sim_hw_parse (sd, "/glue@0x20004000 > int2 level /mn103cpu");
/* REAL: The processor wired up to the real interrupt controller */
sim_hw_parse (sd, "/mn103cpu > ack ack /mn103int");
sim_hw_parse (sd, "/mn103int > level level /mn103cpu");
sim_hw_parse (sd, "/mn103int > nmi nmi /mn103cpu");
/* PAL */
/* the device */
sim_hw_parse (sd, "/pal@0x31000000");
sim_hw_parse (sd, "/pal@0x31000000/reg 0x31000000 64");
sim_hw_parse (sd, "/pal@0x31000000/poll? true");
/* DEBUG: PAL wired up to a glue device */
sim_hw_parse (sd, "/glue@0x31002000");
sim_hw_parse (sd, "/glue@0x31002000/reg 0x31002000 16");
sim_hw_parse (sd, "/pal@0x31000000 > countdown int0 /glue@0x31002000");
sim_hw_parse (sd, "/pal@0x31000000 > timer int1 /glue@0x31002000");
sim_hw_parse (sd, "/pal@0x31000000 > int int2 /glue@0x31002000");
sim_hw_parse (sd, "/glue@0x31002000 > int0 int3 /glue@0x31002000");
sim_hw_parse (sd, "/glue@0x31002000 > int1 int3 /glue@0x31002000");
sim_hw_parse (sd, "/glue@0x31002000 > int2 int3 /glue@0x31002000");
/* REAL: The PAL wired up to the real interrupt controller */
sim_hw_parse (sd, "/pal@0x31000000 > countdown irq-0 /mn103int");
sim_hw_parse (sd, "/pal@0x31000000 > timer irq-1 /mn103int");
sim_hw_parse (sd, "/pal@0x31000000 > int irq-2 /mn103int");
/* 8 and 16 bit timers */
sim_hw_parse (sd, "/mn103tim@0x34001000/reg 0x34001000 36 0x34001080 100 0x34004000 16");
/* Hook timer interrupts up to interrupt controller */
sim_hw_parse (sd, "/mn103tim > timer-0-underflow timer-0-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-1-underflow timer-1-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-2-underflow timer-2-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-3-underflow timer-3-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-4-underflow timer-4-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-5-underflow timer-5-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-6-underflow timer-6-underflow /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-6-compare-a timer-6-compare-a /mn103int");
sim_hw_parse (sd, "/mn103tim > timer-6-compare-b timer-6-compare-b /mn103int");
/* Serial devices 0,1,2 */
sim_hw_parse (sd, "/mn103ser@0x34000800/reg 0x34000800 48");
sim_hw_parse (sd, "/mn103ser@0x34000800/poll? true");
/* Hook serial interrupts up to interrupt controller */
sim_hw_parse (sd, "/mn103ser > serial-0-receive serial-0-receive /mn103int");
sim_hw_parse (sd, "/mn103ser > serial-0-transmit serial-0-transmit /mn103int");
sim_hw_parse (sd, "/mn103ser > serial-1-receive serial-1-receive /mn103int");
sim_hw_parse (sd, "/mn103ser > serial-1-transmit serial-1-transmit /mn103int");
sim_hw_parse (sd, "/mn103ser > serial-2-receive serial-2-receive /mn103int");
sim_hw_parse (sd, "/mn103ser > serial-2-transmit serial-2-transmit /mn103int");
sim_hw_parse (sd, "/mn103iop@0x36008000/reg 0x36008000 8 0x36008020 8 0x36008040 0xc 0x36008060 8 0x36008080 8");
/* Memory control registers */
sim_do_command (sd, "memory region 0x32000020,0x30");
/* Cache control register */
sim_do_command (sd, "memory region 0x20000070,0x4");
/* Cache purge regions */
sim_do_command (sd, "memory region 0x28400000,0x800");
sim_do_command (sd, "memory region 0x28401000,0x800");
/* DMA registers */
sim_do_command (sd, "memory region 0x32000100,0xF");
sim_do_command (sd, "memory region 0x32000200,0xF");
sim_do_command (sd, "memory region 0x32000400,0xF");
sim_do_command (sd, "memory region 0x32000800,0xF");
}
else
{
if (board != NULL)
{
sim_io_eprintf (sd, "Error: Board `%s' unknown.\n", board);
return 0;
}
}
/* check for/establish the a reference program image */
if (sim_analyze_program (sd,
(STATE_PROG_ARGV (sd) != NULL
? *STATE_PROG_ARGV (sd)
: NULL),
abfd) != SIM_RC_OK)
{
sim_module_uninstall (sd);
return 0;
}
/* establish any remaining configuration options */
if (sim_config (sd) != SIM_RC_OK)
{
sim_module_uninstall (sd);
return 0;
}
if (sim_post_argv_init (sd) != SIM_RC_OK)
{
/* Uninstall the modules to avoid memory leaks,
file descriptor leaks, etc. */
sim_module_uninstall (sd);
return 0;
}
/* set machine specific configuration */
/* STATE_CPU (sd, 0)->psw_mask = (PSW_NP | PSW_EP | PSW_ID | PSW_SAT */
/* | PSW_CY | PSW_OV | PSW_S | PSW_Z); */
/* CPU specific initialization. */
for (i = 0; i < MAX_NR_PROCESSORS; ++i)
{
SIM_CPU *cpu = STATE_CPU (sd, i);
CPU_PC_FETCH (cpu) = mn10300_pc_get;
CPU_PC_STORE (cpu) = mn10300_pc_set;
}
return sd;
}
SIM_DESC
sim_open (SIM_OPEN_KIND kind, host_callback *callback,
struct bfd *abfd, char **argv)
{
char c;
int i;
SIM_DESC sd = sim_state_alloc (kind, callback);
/* The cpu data is kept in a separately allocated chunk of memory. */
if (sim_cpu_alloc_all (sd, 1, /*cgen_cpu_max_extra_bytes ()*/0) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
{
/* XXX: Only first core gets profiled ? */
SIM_CPU *cpu = STATE_CPU (sd, 0);
STATE_WATCHPOINTS (sd)->pc = &PCREG;
STATE_WATCHPOINTS (sd)->sizeof_pc = sizeof (PCREG);
}
if (sim_pre_argv_init (sd, argv[0]) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* XXX: Default to the Virtual environment. */
if (STATE_ENVIRONMENT (sd) == ALL_ENVIRONMENT)
STATE_ENVIRONMENT (sd) = VIRTUAL_ENVIRONMENT;
/* These options override any module options.
Obviously ambiguity should be avoided, however the caller may wish to
augment the meaning of an option. */
#define e_sim_add_option_table(sd, options) \
do { \
extern const OPTION options[]; \
sim_add_option_table (sd, NULL, options); \
} while (0)
e_sim_add_option_table (sd, bfin_mmu_options);
e_sim_add_option_table (sd, bfin_mach_options);
/* getopt will print the error message so we just have to exit if this fails.
FIXME: Hmmm... in the case of gdb we need getopt to call
print_filtered. */
if (sim_parse_args (sd, argv) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* Allocate external memory if none specified by user.
Use address 4 here in case the user wanted address 0 unmapped. */
if (sim_core_read_buffer (sd, NULL, read_map, &c, 4, 1) == 0)
{
bu16 emuexcpt = 0x25;
sim_do_commandf (sd, "memory-size 0x%lx", BFIN_DEFAULT_MEM_SIZE);
sim_write (sd, 0, (void *)&emuexcpt, 2);
}
/* Check for/establish the a reference program image. */
if (sim_analyze_program (sd,
(STATE_PROG_ARGV (sd) != NULL
? *STATE_PROG_ARGV (sd)
: NULL), abfd) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* Establish any remaining configuration options. */
if (sim_config (sd) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
if (sim_post_argv_init (sd) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* CPU specific initialization. */
for (i = 0; i < MAX_NR_PROCESSORS; ++i)
{
SIM_CPU *cpu = STATE_CPU (sd, i);
bfin_initialize_cpu (sd, cpu);
}
return sd;
}
SIM_DESC
sim_open (SIM_OPEN_KIND kind, host_callback *callback,
bfd *abfd, char * const *argv)
{
int i;
SIM_DESC sd;
sim_cpu *cpu;
sd = sim_state_alloc (kind, callback);
SIM_ASSERT (STATE_MAGIC (sd) == SIM_MAGIC_NUMBER);
/* The cpu data is kept in a separately allocated chunk of memory. */
if (sim_cpu_alloc_all (sd, 1, /*cgen_cpu_max_extra_bytes ()*/0) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
cpu = STATE_CPU (sd, 0);
cpu_initialize (sd, cpu);
if (sim_pre_argv_init (sd, argv[0]) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* The parser will print an error message for us, so we silently return. */
if (sim_parse_args (sd, argv) != SIM_RC_OK)
{
/* Uninstall the modules to avoid memory leaks,
file descriptor leaks, etc. */
free_state (sd);
return 0;
}
/* Check for/establish the a reference program image. */
if (sim_analyze_program (sd,
(STATE_PROG_ARGV (sd) != NULL
? *STATE_PROG_ARGV (sd)
: NULL), abfd) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* Establish any remaining configuration options. */
if (sim_config (sd) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
if (sim_post_argv_init (sd) != SIM_RC_OK)
{
/* Uninstall the modules to avoid memory leaks,
file descriptor leaks, etc. */
free_state (sd);
return 0;
}
if (sim_prepare_for_program (sd, abfd) != SIM_RC_OK)
{
free_state (sd);
return 0;
}
/* CPU specific initialization. */
for (i = 0; i < MAX_NR_PROCESSORS; ++i)
{
SIM_CPU *cpu = STATE_CPU (sd, i);
CPU_REG_FETCH (cpu) = m68hc11_reg_fetch;
CPU_REG_STORE (cpu) = m68hc11_reg_store;
CPU_PC_FETCH (cpu) = m68hc11_pc_get;
CPU_PC_STORE (cpu) = m68hc11_pc_set;
}
return sd;
}