ram_reply_t ramtra_mktrash2(ramtra_trash_t *trash_arg)
{
assert(trash_arg != NULL);
RAM_FAIL_TRAP(rammtx_mkmutex(&trash_arg->ramtrat_mutex));
RAM_FAIL_TRAP(ramslst_mklist(&trash_arg->ramtrat_items));
trash_arg->ramtrat_size = 0;
return RAM_REPLY_OK;
}
ram_reply_t ramtest_inittest2(ramtest_test_t *test_arg,
const ramtest_params_t *params_arg)
{
size_t i = 0;
size_t seqlen = 0;
size_t maxthreads = 0;
size_t unused = 0;
RAM_FAIL_NOTNULL(params_arg);
RAM_FAIL_NOTZERO(params_arg->ramtestp_alloccount);
RAM_FAIL_EXPECT(RAM_REPLY_RANGEFAIL, params_arg->ramtestp_minsize > 0);
RAM_FAIL_EXPECT(RAM_REPLY_RANGEFAIL,
params_arg->ramtestp_minsize <= params_arg->ramtestp_maxsize);
RAM_FAIL_EXPECT(RAM_REPLY_RANGEFAIL, params_arg->ramtestp_mallocchance >= 0);
RAM_FAIL_EXPECT(RAM_REPLY_RANGEFAIL, params_arg->ramtestp_mallocchance <= 100);
RAM_FAIL_NOTNULL(params_arg->ramtestp_acquire);
RAM_FAIL_NOTNULL(params_arg->ramtestp_release);
RAM_FAIL_NOTNULL(params_arg->ramtestp_query);
/* *params_arg->ramtestp_flush* is allowed to be NULL. */
RAM_FAIL_NOTNULL(params_arg->ramtestp_check);
RAM_FAIL_TRAP(ramtest_maxthreadcount(&maxthreads));
RAM_FAIL_EXPECT(RAM_REPLY_DISALLOWED,
params_arg->ramtestp_threadcount <= maxthreads);
test_arg->ramtestt_params = *params_arg;
if (0 == test_arg->ramtestt_params.ramtestp_threadcount)
{
RAM_FAIL_TRAP(ramtest_defaultthreadcount(
&test_arg->ramtestt_params.ramtestp_threadcount));
}
test_arg->ramtestt_records =
calloc(test_arg->ramtestt_params.ramtestp_alloccount,
sizeof(*test_arg->ramtestt_records));
RAM_FAIL_EXPECT(RAM_REPLY_RESOURCEFAIL,
NULL != test_arg->ramtestt_records);
test_arg->ramtestt_threads =
calloc(test_arg->ramtestt_params.ramtestp_threadcount,
sizeof(*test_arg->ramtestt_threads));
RAM_FAIL_EXPECT(RAM_REPLY_RESOURCEFAIL,
NULL != test_arg->ramtestt_threads);
seqlen = test_arg->ramtestt_params.ramtestp_alloccount * 2;
test_arg->ramtestt_sequence = calloc(seqlen,
sizeof(*test_arg->ramtestt_sequence));
RAM_FAIL_EXPECT(RAM_REPLY_RESOURCEFAIL,
NULL != test_arg->ramtestt_sequence);
RAM_FAIL_TRAP(rammtx_mkmutex(&test_arg->ramtestt_mtx));
for (i = 0; i < test_arg->ramtestt_params.ramtestp_alloccount; ++i)
{
RAM_FAIL_TRAP(rammtx_mkmutex(
&test_arg->ramtestt_records[i].ramtestar_mtx));
}
/* the sequence array must contain two copies of each index into
* *test_arg->ramtestt_records*. the first represents an allocation.
* the second, a deallocation. */
for (i = 0; i < seqlen; ++i)
test_arg->ramtestt_sequence[i] = (i / 2);
/* i shuffle the sequence array to ensure a randomized order of
* operations. */
RAM_FAIL_TRAP(ramtest_shuffle(test_arg->ramtestt_sequence,
sizeof(test_arg->ramtestt_sequence[0]), seqlen));
if (!test_arg->ramtestt_params.ramtestp_userngseed)
test_arg->ramtestt_params.ramtestp_rngseed = (unsigned int)time(NULL);
srand(test_arg->ramtestt_params.ramtestp_rngseed);
RAM_FAIL_TRAP(ramtest_fprintf(&unused, stderr,
"[0] i seeded the random generator with the value %u.\n",
test_arg->ramtestt_params.ramtestp_rngseed));
test_arg->ramtestt_nextrec = 0;
return RAM_REPLY_OK;
}
