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9a8e1d93c6c4825a73dfe3c9559c224d5958c206
littlefs/benches/bench_rbyd.toml
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Christopher Haster 9a8e1d93c6 Added some rbyd benchmarks, fixed/tweaked some related scripts 
- Added both uattr (limited to 256) and id (limited to 65535) benchmarks
  covering the main rbyd operations

- Fixed issue where --defines gets passed to the test/bench runners when
  querying id-specific information. After changing the test/bench
  runners to prioritize explicit defines, this causes problems for
  recorded benchmark results and debug related things.

- In plot.py/plotmpl.py, made --by/-x/-y in subplots behave somewhat
  reasonably, contributing to a global dataset and the figure's legend,
  colors, etc, but only shown in the specified subplot. This is useful
  mainly for showing different -y values on different subplots.

- In plot.py/plotmpl.py, added --labels to allow explicit configuration
  of legend labels, much like --colors/--formats/--chars/etc. This
  removes one of the main annoying needs for modifying benchmark results.
2023-02-12 17:14:42 -06:00

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[cases.bench_rbyd_attr_commit]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*N <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// build the attribute list for the current permutations
//
// NOTE we only have 256 user attributes, so this benchmark is
// a bit limited
uint32_t prng = 42;
BENCH_START();
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
attrs[i] = *LFSR_ATTR2(
UATTR, i_, -1, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(UATTR, i_ & 0xff, -1, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
BENCH_STOP();
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
'''
[cases.bench_rbyd_attr_fetch]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*N <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// build the attribute list for the current permutations
//
// NOTE we only have 256 user attributes, so this benchmark is
// a bit limited
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
attrs[i] = *LFSR_ATTR2(
UATTR, i_, -1, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(UATTR, i_ & 0xff, -1, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
BENCH_START();
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_STOP();
'''
[cases.bench_rbyd_attr_lookup]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*N <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// build the attribute list for the current permutations
//
// NOTE we only have 256 user attributes, so this benchmark is
// a bit limited
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
attrs[i] = *LFSR_ATTR2(
UATTR, i_, -1, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(UATTR, i_ & 0xff, -1, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_START();
lfs_off_t i_ = BENCH_PRNG(&prng) % N;
lfs_off_t off;
lfs_size_t size;
lfsr_rbyd_lookup(&lfs, &rbyd, LFSR_TAG2(UATTR, i_ & 0xff, -1), &off, &size);
BENCH_STOP();
'''
[cases.bench_rbyd_attr_append]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*(N+1) <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// build the attribute list for the current permutations
//
// NOTE we only have 256 user attributes, so this benchmark is
// a bit limited
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
attrs[i] = *LFSR_ATTR2(
UATTR, i_, -1, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(UATTR, i_ & 0xff, -1, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_START();
lfs_off_t i_ = BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(UATTR, i_, -1, "\xbb\xbb\xbb\xbb", 4, NULL)) => 0;
BENCH_STOP();
uint8_t buffer[4];
lfsr_rbyd_get(&lfs, &rbyd, LFSR_TAG2(UATTR, i_, -1), buffer, 4) => 4;
assert(memcmp(buffer, "\xbb\xbb\xbb\xbb", 4) == 0);
'''
[cases.bench_rbyd_attr_remove]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*(N+1) <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// build the attribute list for the current permutations
//
// NOTE we only have 256 user attributes, so this benchmark is
// a bit limited
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
attrs[i] = *LFSR_ATTR2(
UATTR, i_, -1, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? (N-1-i)
: BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(UATTR, i_ & 0xff, -1, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_START();
lfs_off_t i_ = BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR2(RMUATTR, i_, -1, NULL, 0, NULL)) => 0;
BENCH_STOP();
uint8_t buffer[4];
lfsr_rbyd_get(&lfs, &rbyd, LFSR_TAG2(UATTR, i_, -1), buffer, 4)
=> LFS_ERR_NOENT;
'''
[cases.bench_rbyd_id_commit]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256, 1024, 2048, 4096]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*N <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// create commits, note we need to take care to generate
// indexes within a valid range as the rbyd grows
uint32_t prng = 42;
BENCH_START();
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
attrs[i] = *LFSR_ATTR(
MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
BENCH_STOP();
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
'''
[cases.bench_rbyd_id_fetch]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256, 1024, 2048, 4096]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*N <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// create commits, note we need to take care to generate
// indexes within a valid range as the rbyd grows
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
attrs[i] = *LFSR_ATTR(
MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
BENCH_START();
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_STOP();
'''
[cases.bench_rbyd_id_lookup]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256, 1024, 2048, 4096]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*N <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// create commits, note we need to take care to generate
// indexes within a valid range as the rbyd grows
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
attrs[i] = *LFSR_ATTR(
MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_START();
lfs_off_t i_ = BENCH_PRNG(&prng) % N;
lfs_off_t off;
lfs_size_t size;
lfsr_rbyd_lookup(&lfs, &rbyd, LFSR_TAG(MKREG, i_), &off, &size)
=> LFSR_TAG(MKREG, i_);
BENCH_STOP();
'''
[cases.bench_rbyd_id_create]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256, 1024, 2048, 4096]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*(N+1) <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// create commits, note we need to take care to generate
// indexes within a valid range as the rbyd grows
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
attrs[i] = *LFSR_ATTR(
MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_START();
lfs_off_t i_ = BENCH_PRNG(&prng) % (N+1);
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(MKREG, i_, "\xbb\xbb\xbb\xbb", 4,
NULL)) => 0;
BENCH_STOP();
uint8_t buffer[4];
lfsr_rbyd_get(&lfs, &rbyd, LFSR_TAG(MKREG, i_), buffer, 4) => 4;
assert(memcmp(buffer, "\xbb\xbb\xbb\xbb", 4) == 0);
'''
[cases.bench_rbyd_id_delete]
# 0 = in-order
# 1 = reversed-order
# 2 = random-order
defines.ORDER = [0, 1, 2]
# 0 = 1 commit
# 1 = N commits
defines.COMMIT = [0, 1]
defines.N = [8, 16, 32, 64, 128, 256, 1024, 2048, 4096]
in = 'lfs.c'
if = 'COMMIT == 0 || PROG_SIZE*(N+1) <= BLOCK_SIZE'
code = '''
// set block_size to the full size of disk so we can test arbitrarily
// large rbyd trees, we don't really care about block sizes at this
// abstraction level
struct lfs_config cfg_ = *cfg;
cfg_.block_size = cfg->block_size*cfg->block_count;
cfg_.block_count = 1;
lfs_t lfs;
lfs_init(&lfs, &cfg_) => 0;
lfsr_rbyd_t rbyd = {
.block = 0,
.trunk = 0,
.off = 0,
.rev = 1,
.crc = 0,
.count = 0,
.erased = true,
};
lfs_bd_erase(&lfs, rbyd.block) => 0;
// create commits, note we need to take care to generate
// indexes within a valid range as the rbyd grows
uint32_t prng = 42;
if (COMMIT == 0) {
struct lfsr_attr attrs[N];
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
attrs[i] = *LFSR_ATTR(
MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
(i+1 < N) ? &attrs[i+1] : NULL);
}
lfsr_rbyd_commit(&lfs, &rbyd, attrs) => 0;
} else {
for (lfs_size_t i = 0; i < N; i++) {
lfs_off_t i_
= (ORDER == 0) ? i
: (ORDER == 1) ? 0
: BENCH_PRNG(&prng) % (rbyd.count+1);
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(MKREG, i_, "\xaa\xaa\xaa\xaa", 4,
NULL)) => 0;
}
}
lfsr_rbyd_fetch(&lfs, &rbyd, rbyd.block, NULL) => 0;
BENCH_START();
lfs_off_t i_ = BENCH_PRNG(&prng) % N;
lfsr_rbyd_commit(&lfs, &rbyd,
LFSR_ATTR(RM, i_, NULL, 0,
NULL)) => 0;
BENCH_STOP();
'''
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