void grpc_passthru_endpoint_create(grpc_endpoint **client,
grpc_endpoint **server,
grpc_resource_quota *resource_quota) {
passthru_endpoint *m = gpr_malloc(sizeof(*m));
m->halves = 2;
m->shutdown = 0;
half_init(&m->client, m, resource_quota, "client");
half_init(&m->server, m, resource_quota, "server");
gpr_mu_init(&m->mu);
*client = &m->client.base;
*server = &m->server.base;
}
void grpc_passthru_endpoint_create(grpc_endpoint **client,
grpc_endpoint **server,
grpc_resource_quota *resource_quota,
grpc_passthru_endpoint_stats *stats) {
passthru_endpoint *m = (passthru_endpoint *)gpr_malloc(sizeof(*m));
m->halves = 2;
m->shutdown = 0;
m->stats = stats == NULL ? &m->dummy_stats : stats;
memset(m->stats, 0, sizeof(*m->stats));
half_init(&m->client, m, resource_quota, "client");
half_init(&m->server, m, resource_quota, "server");
gpr_mu_init(&m->mu);
*client = &m->client.base;
*server = &m->server.base;
}
bool test_max_alc_1_byte( void ) {
bool rslt = true;
uint32_t c = 0;
size_t max_sz;
half_init();
max_sz = find_max_block();
// Allocate 1 bytes until no half_aloc returns NULL
while ( half_alloc( 1 ) != NULL ) {
c++;
}
#ifdef DO_PRINT
printf( "Only %d 1-Byte block can be allocated within %d addressable Bytes.\n", c, max_sz );
#endif
if ( c == 0 || !(max_sz >= smlst_blk_sz * c || smlst_blk_sz * c >= lrgst_blk_sz) ) {
#ifdef DO_PRINT
printf( "32 * %d = %d is not equal to the maximum allocable block which is %d\n", c, c*32 , max_sz );
#endif
rslt = false;
}
return rslt;
}
void hp98035_io_card::device_reset()
{
hp9845_io_card_device::device_reset();
install_readwrite_handler(read16_delegate(FUNC(hp98035_io_card::reg_r) , this) , write16_delegate(FUNC(hp98035_io_card::reg_w) , this));
m_idr_full = false;
m_idr = 0;
m_odr = 0;
m_ibuffer_ptr = 0;
m_obuffer_len = 0;
m_obuffer_ptr = 0;
sts_w(true);
set_flg(true);
// Set real time from the real world
system_time systime;
machine().base_datetime(systime);
m_msec = 0;
m_sec = systime.local_time.second;
m_min = systime.local_time.minute;
m_hrs = systime.local_time.hour;
m_dom = systime.local_time.mday;
m_mon = systime.local_time.month + 1;
attotime period(attotime::from_msec(1));
m_msec_timer->adjust(period , 0 , period);
half_init();
}
bool test_static_alc_free( void ) {
bool rslt = true;
uint32_t max_sz;
void *ptr_1, *ptr_2, *ptr_3, *ptr_4, *ptr_5, *ptr_6;
half_init();
max_sz = find_max_block();
ptr_1 = half_alloc(1 << 5 + 1);
if (ptr_1 == NULL) return false;
ptr_2 = half_alloc(1 << 9 - 1);
if (ptr_2 == NULL) return false;
ptr_3 = half_alloc(1 << 5 + 1);
if (ptr_3 == NULL) return false;
ptr_4 = half_alloc(1 << 10);
if (ptr_4 == NULL) return false;
ptr_5 = half_alloc(12345);
if (ptr_5 == NULL) return false;
half_free(ptr_1);
ptr_6 = half_alloc(1);
if (ptr_6 == NULL) return false;
half_free(ptr_3);
half_free(ptr_4);
ptr_1 = half_alloc(1 << 9);
if (ptr_1 == NULL) return false;
half_free(ptr_6);
half_free(ptr_1);
half_free(ptr_2);
half_free(ptr_5);
// Check wether all allocated memory blocks are freed.
ptr_1 = half_alloc(max_sz);
if ( ptr_1 == NULL ) {
rslt = false;
printf("Memory is defraged.\n");
} else {
half_free(ptr_1);
}
return rslt;
}
bool test_alc_free_max( void ) {
bool rslt = true;
uint32_t blk_sz;
void* ptr;
half_init();
blk_sz = find_max_block();
ptr = half_alloc( blk_sz );
if ( ptr == NULL ) {
rslt = false;
}
return rslt;
}
bool test_max_alc( void ) {
bool rslt = true;
uint32_t blk_sz, max_blk_sz;
half_init();
blk_sz = find_max_block();
printf("blk_sz = %d", blk_sz);
max_blk_sz = 0x01 << lrgst_blk;
if ( ((int)max_blk_sz - (int)blk_sz) / max_blk_sz > 1 ) {
// The algorithm wasted more than 1% of memory.
rslt = false;
}
return rslt;
}
void hp98035_io_card_device::device_reset()
{
hp9845_io_card_device::device_reset();
m_idr_full = false;
m_idr = 0;
m_odr = 0;
sts_w(true);
set_flg(true);
attotime period(attotime::from_msec(1));
m_msec_timer->adjust(period , 0 , period);
period = attotime::from_hz(DIGIT_MUX_FREQ);
m_clock_timer->adjust(period , 0 , period);
half_init();
}
void hp98035_io_card::device_reset()
{
hp9845_io_card_device::device_reset();
install_readwrite_handler(read16_delegate(FUNC(hp98035_io_card::reg_r) , this) , write16_delegate(FUNC(hp98035_io_card::reg_w) , this));
m_idr_full = false;
m_idr = 0;
m_odr = 0;
sts_w(true);
set_flg(true);
attotime period(attotime::from_msec(1));
m_msec_timer->adjust(period , 0 , period);
period = attotime::from_hz(DIGIT_MUX_FREQ);
m_clock_timer->adjust(period , 0 , period);
half_init();
}
bool test_rndm_alc_free( void ) {
bool rslt = true;
size_t line = 0, max_sz, blks_sz, alc_rec, tbf, blk_sz;
int i;
block_t blks[RNDM_TESTS << 1];
block_t blk;
void *ptr_1;
blks_sz = 0;
half_init();
max_sz = find_max_block();
// 'alc_rec' stores how many times 'half_alloc' successfully returns a requested block.
alc_rec = 0;
// Allocating random memory blocks
for ( i = 0; i < RNDM_TESTS; ++i ) {
// Making a new memory block and storing its pointer in the array
size_t blk_sz = get_random_block_size();
block_t blk;
blk.ptr = half_alloc(blk_sz);
blk.len = blk_sz;
if ( blk.ptr != 0 ) {
blks[blks_sz] = blk;
++blks_sz;
alc_rec++;
#ifdef DO_PRINT
printf( "%i)The allocated %d Byte block starts from %d \n", ++line, blk.len, blk.ptr );
#endif
}
}
// Checking any violation
if ( is_violated(find_violation(blks, blks_sz)) ) {
return false;
}
// Free almost half of the allocation blocks
for ( i = 0; i < RNDM_TESTS >> 1 ; ++i ) {
if ( (rand() % 2) && (blks_sz > 0) ) {
// Free a random block
tbf = rand() % blks_sz; // To be freed idex
half_free(blks[tbf].ptr);
#ifdef DO_PRINT
printf( "%i)The %d Byte block starting from %d is free1\n", ++line, blks[tbf].len, blks[tbf].ptr );
#endif
--blks_sz;
blks[tbf] = blks[blks_sz];
} else {
blk_sz = get_random_block_size();
blk.ptr = half_alloc(blk_sz);
blk.len = blk_sz;
if ( blk.ptr != 0 ) {
blks[blks_sz] = blk;
++blks_sz;
alc_rec++;
#ifdef DO_PRINT
printf( "%i)The allocated %d Byte block starts from %d \n", ++line, blk.len, blk.ptr );
#endif
}
}
}
// Checking any violation
if ( is_violated( find_violation( blks, blks_sz ) ) ) {
return false;
}
for ( i = blks_sz - 1; i >= 0; --i ) {
half_free(blks[i].ptr);
--blks_sz;
#ifdef DO_PRINT
printf( "%i)The %d Byte block starting from %d is free2\n", ++line, blks[i].len, blks[i].ptr );
#endif
}
// All allocated memories have to be freed now.
#ifdef DO_PRINT
printf("%d random blocks are allocated and freed without any violation.\n", alc_rec);
#endif
ptr_1 = half_alloc(max_sz);
if ( ptr_1 == NULL ) {
rslt = false;
#ifdef DO_PRINT
printf( "Memory is defraged.\n" );
#endif
} else {
half_free( ptr_1 );
}
return rslt;
}
bool test_static_alc_free_violation( void ) {
bool rslt = true;
size_t max_sz, blks_sz;
block_t blks[5];
void* ptr_1;
half_init();
max_sz = find_max_block();
blks_sz = 0;
alloc_blk_in_arr( blks, &blks_sz, (1 << 5) + 1 );
alloc_blk_in_arr( blks, &blks_sz, (1 << 9) - 1 );
alloc_blk_in_arr( blks, &blks_sz, (1 << 5) + 1 );
alloc_blk_in_arr( blks, &blks_sz, (1 << 10) );
alloc_blk_in_arr( blks, &blks_sz, 12345 );
if ( blks_sz == 0 ) {
#ifdef DO_PRINT
printf( "Failure on allocating any memory block. The memory access violation is irrelevant.\n" );
#endif
return false;
}
// Checking any violation
if ( is_violated( find_violation( blks, blks_sz ) ) ) {
return false;
}
--blks_sz;
half_free(blks[blks_sz].ptr);
--blks_sz;
half_free(blks[blks_sz].ptr);
--blks_sz;
half_free(blks[blks_sz].ptr);
--blks_sz;
half_free(blks[blks_sz].ptr);
alloc_blk_in_arr(blks, &blks_sz, (1 << 9));
// Checking any violation
if ( is_violated(find_violation(blks, blks_sz)) ) {
return false;
}
--blks_sz;
half_free(blks[blks_sz].ptr);
--blks_sz;
half_free(blks[blks_sz].ptr);
// Check wether all allocated memory blocks are freed.
ptr_1 = half_alloc(max_sz);
if ( ptr_1 == NULL ) {
rslt = false;
#ifdef DO_PRINT
printf( "Memory is defraged.\n" );
#endif
} else {
half_free( ptr_1 );
}
return rslt;
}
void hp98035_io_card::process_ibuffer(void)
{
m_ibuffer[ m_ibuffer_ptr ] = '\0';
const uint8_t *p = &m_ibuffer[ 0 ];
clear_obuffer();
bool get_out = false;
while (*p != '\0' && !get_out) {
std::ostringstream out;
uint8_t datetime[ 5 ];
unsigned unit_no;
switch (*p++) {
case 'A':
// Halt all timer units
for (timer_unit_t& unit : m_units) {
unit.deactivate();
}
m_inten = false;
m_intflag = false;
update_irq();
break;
case 'B':
// Warm reset
half_init();
get_out = true;
break;
case 'E':
// Read and clear errors
set_obuffer(m_error);
m_error = 0;
break;
case 'F':
// Activate all timer units
for (timer_unit_t& unit : m_units) {
if (unit.m_port) {
unit.adv_state(true);
}
}
break;
case 'R':
// Read time
// Assume US format of dates
util::stream_format(out , "%02u:%02u:%02u:%02u:%02u" , m_mon , m_dom , m_hrs , m_min , m_sec);
set_obuffer(out.str().c_str());
break;
case 'S':
// Set time
if (parse_datetime(p , datetime)) {
// Cannot set time when there's one or more active output units
if (std::any_of(std::begin(m_units) , std::end(m_units) , [](const timer_unit_t& u) { return u.m_state != UNIT_IDLE && !u.m_input; })) {
set_error(ERR_MASK_CANT_EXEC);
} else {
m_msec = 0;
m_sec = datetime[ 4 ];
if (datetime[ 3 ] != EMPTY_FIELD) {
m_min = datetime[ 3 ];
if (datetime[ 2 ] != EMPTY_FIELD) {
m_hrs = datetime[ 2 ];
if (datetime[ 1 ] != EMPTY_FIELD) {
m_dom = datetime[ 1 ];
if (datetime[ 0 ] != EMPTY_FIELD) {
m_mon = datetime[ 0 ];
}
}
}
}
}
} else {
set_error(ERR_MASK_WRONG_INS);
get_out = true;
}
break;
case 'T':
// Read triggered outputs
set_obuffer(m_triggered);
m_triggered = 0;
break;
case 'U':
// Control timer units
if (parse_unit_no(p , unit_no)) {
get_out = parse_unit_command(p , unit_no);
} else {
set_error(ERR_MASK_WRONG_INS);
get_out = true;
}
break;
case 'W':
// Read unserviced interrupts
set_obuffer(m_lost_irq);
m_lost_irq = 0;
break;
default:
set_error(ERR_MASK_WRONG_INS);
get_out = true;
break;
}
}
m_ibuffer_ptr = 0;
}