void buf_put (Buf_s **bp)
{
Buf_s *b = *bp;
*bp = NULL;
aver(b->blknum == ((Node_s *)b->d)->blknum);
aver(0 < b->inuse);
++Cache.stat.puts;
--b->inuse;
if (!b->inuse) {
u64 crc = crc64(b->d, BLOCK_SIZE);
if (b->dirty) {
if (crc == b->crc) {
printf("Didn't change %lld\n", b->blknum);
}
//XXX: this can be true. aver(crc != b->crc);
b->crc = crc;
dev_flush(b);
b->dirty = FALSE;
} else {
if (crc != b->crc) {
PRd(b->blknum);
}
aver(crc == b->crc);
}
}
}
void
BzTest5(void)
{
enum { NUM_RECS = 20 };
VAR_LUMP(v, MAX_DATA);
Key key = {{0}};
Lump a, b;
Bz t;
bool found;
printf("%s\n", __FUNCTION__);
init_twister(17);
BzInit(&t, KEY_LEN);
for (u64 i = 0; i < NUM_RECS; i++) {
IntLump(v, i);
BzPut(&t, RandKey().s, v);
}
BzDump(__FUNCTION__, &t);
for (;;) {
bool done;
a = BzNext(&t, key.s, key.s, &done);
if (done) {
break;
}
b = BzGet(&t, key.s, &found);
if (!found) {
fatal("didn't find %llu", key);
}
aver(a.len == b.len);
aver(strcmp(a.p, b.p) == 0);
}
BzDump(__FUNCTION__, &t);
}
static buf_s *victim (void)
{
buf_s *buf;
unint wrap = 0;
for (;;) {
++Clock;
if (Clock == &Buf[Num_bufs]) {
Clock = Buf;
if (++wrap > 2) {
bdump();
fatal("All buffers in use");
return NULL;
}
}
buf = Clock;
if (buf->b_use < 0) {
if (buf->b_ant.a_state == ANT_FLUSHING) continue;
bflush(buf);
aver(buf->b_ant.a_state != ANT_FLUSHING);
aver(buf->b_ant.a_state != ANT_DIRTY);
buf->b_use = 1;
rmv(buf);
return buf;
}
if (buf->b_use == 0) {
buf->b_use = -1;
}
}
}
static void add (Buf_s *b)
{
Buf_s *prev = hash(b->inode, b->blknum);
aver(b->blknum);
aver(b->next == NULL);
b->next = prev->next;
prev->next = b;
}
void *bdata (ant_s *ant)
{
buf_s *buf = container(ant, buf_s, b_ant);
aver(buf >= Buf);
aver(buf < &Buf[Num_bufs]);
return buf->b_data;
}
void
BcTest6(void)
{
enum { NUM_RECS = 2000, NUM_TRIALS = ONE_MILLION };
Bc t;
VAR_LUMP(v, MAX_DATA);
Key a[NUM_RECS];
u64 n = 0;
u64 puts = 0;
u64 deletes = 0;
printf("%s\n", __FUNCTION__);
init_twister(37);
BcInit(&t, KEY_LEN);
for (u64 j = 0; j < NUM_TRIALS; j++) {
Key key;
bool found;
if (Prob(((NUM_RECS - n) * 100) / NUM_RECS)) {
aver(n < NUM_RECS);
key = IntKey(twister_urand(10000));
BcGet(&t, key.s, &found);
if (!found) {
a[n++] = key;
RandLump(v);
BcPut(&t, key.s, v);
++puts;
}
if (0 || Prob(2)) Audit("Put", &t, a, n, j);
} else {
aver(0 < n);
u64 i = twister_urand(n);
key = a[i];
BcGet(&t, key.s, &found);
if (!found) {
BcDump("not found", &t);
fatal("didn't find %s %llu %llu", key.s, puts, deletes);
}
BcDelete(&t, key.s);
BcGet(&t, key.s, &found);
if (found) {
BcDump("found", &t);
fatal("found %llu", key);
}
a[i] = a[--n];
++deletes;
if (0 || Prob(2)) Audit("Delete", &t, a, n, j);
}
}
BcDoAudit(&t);
printf("\tputs=%llu deletes=%llu\n", puts, deletes);
BcReport(__FUNCTION__, BcDoAudit(&t));
BcDump(__FUNCTION__, &t);
BcFree(&t);
}
STATIC void store_key(Node_s *node, Key_t key)
{
u8 *start;
aver(sizeof(Key_t) <= node->free);
aver(sizeof(Key_t) <= node->end);
node->end -= sizeof(Key_t);
node->free -= sizeof(Key_t);
start = &((u8 *)node)[node->end];
PACK(start, key);
}
int main(int argc, char *argv[]) {
for (Test *t = test; t->string; t++) {
const char *suffix = Suffix(t->string);
if (t->suffix == NULL) {
aver(suffix == NULL);
} else {
aver(suffix != NULL);
aver(strcmp(suffix, t->suffix) == 0);
}
}
return 0;
}
void bput (void *data)
{
buf_s *buf;
buf = addr2buf(data);
aver(buf->b_use > 0);
if (!Lazy) {
bflush(buf);
}
aver(buf->b_use > 0);
--buf->b_use;
}
void
BaTest6(void)
{
enum { NUM_RECS = 2000, NUM_TRIALS = ONE_MILLION };
Ba t;
u64 a[NUM_RECS];
u64 n = 0;
u64 puts = 0;
u64 deletes = 0;
printf("%s\n", __FUNCTION__);
init_twister(17);
BaInit(&t);
for (u64 j = 0; j < NUM_TRIALS; j++) {
u64 key;
bool found;
if (Prob(((NUM_RECS - n) * 100) / NUM_RECS)) {
aver(n < NUM_RECS);
key = twister_urand(10000);
BaGet(&t, key, &found);
if (!found) {
a[n++] = key;
BaPut(&t, key);
++puts;
}
if (0 || twister_urand(100) < 2) Audit("Put", &t, a, n, j);
} else {
aver(0 < n);
u64 i = twister_urand(n);
key = a[i];
BaGet(&t, key, &found);
if (!found) {
BaDump("not found", &t);
fatal("didn't find %llu %llu %llu", key, puts, deletes);
}
BaDelete(&t, key);
BaGet(&t, key, &found);
if (found) {
BaDump("found", &t);
fatal("found %llu", key);
}
a[i] = a[--n];
++deletes;
if (0 || twister_urand(100) < 2) Audit("Delete", &t, a, n, j);
}
}
BaDoAudit(&t);
printf("\tputs=%llu deletes=%llu\n", puts, deletes);
BaReportAudit(__FUNCTION__, BaDoAudit(&t));
BaDump(__FUNCTION__, &t);
}
STATIC Key_t get_key(Node_s *node, unint i)
{
Key_t key;
unint x;
u8 *start;
aver(i < node->numrecs);
x = node->rec[i];
aver(x < BLOCK_SIZE);
start = &((u8 *)node)[x];
UNPACK(start, key);
return key;
}
void buf_free (Buf_s **bp)
{
Buf_s *b = *bp;
*bp = NULL;
aver(b->blknum == ((Node_s *)b->d)->blknum);
aver(0 < b->inuse);
++Cache.stat.puts;
--b->inuse;
if (!b->inuse) {
if (b->blknum) rmv(b->inode, b->blknum);
}
//XXX: Don't know what to do yet with freed block
}
symbol_list *
symbol_list_n_get (symbol_list *l, int n)
{
int i;
aver (0 <= n);
for (i = 0; i < n; ++i)
{
l = l->next;
aver (l);
}
aver (l->content_type == SYMLIST_SYMBOL);
aver (l->content.sym);
return l;
}
void
BcTest8(void)
{
/*
* Extensive test of all functions. Want to cover most code paths.
* 1. Dynamically adjust number of records by a factor of 100.
* 2. Randomly pick operations.
* 3. Test iteration intermixed with other operations.
*/
enum { MAX_RECS = 100 * ONE_THOUSAND };
Bc t;
u64 key;
u64 keys[MAX_RECS];
u64 numKeys = 0;
u64 numPuts = 0;
u64 numDeletes = 0;
VAR_LUMP(v, MAX_DATA);
init_twister(37);
BcInit(&t, KEY_LEN);
RandLump(v);
for (u64 i = 0; i < 10; i++) {
u64 maxKeys = twister_urand(MAX_RECS);
PRu(maxKeys);
while (numKeys != maxKeys) {
aver(numKeys <= MAX_RECS);
if (numKeys < maxKeys && Prob(75)) {
key = twister_random();
keys[numKeys++] = key;
BcPut(&t, IntKey(key).s, v);
++numPuts;
} else {
if (numKeys) {
u64 j = twister_urand(numKeys);
key = keys[j];
keys[j] = keys[--numKeys];
BcDelete(&t, IntKey(key).s);
++numDeletes;
}
}
}
}
aver(numPuts - numDeletes == numKeys);
PRu(numPuts);
PRu(numDeletes);
PRu(numKeys);
BcReport(__FUNCTION__, BcDoAudit(&t));
}
void
boundary_set_from_string (boundary *bound, char *loc_str)
{
/* Must search in reverse since the file name field may
* contain `.' or `:'. */
char *delim = _mbsrchr (loc_str, '.');
aver (delim);
*delim = '\0';
bound->column = atoi (delim+1);
delim = _mbsrchr (loc_str, ':');
aver (delim);
*delim = '\0';
bound->line = atoi (delim+1);
bound->file = uniqstr_new (loc_str);
}
static inline buf_s *addr2buf (void *data)
{
addr x;
addr y;
aver(data);
x = (addr)data - (addr)Base;
y = x >> BLK_SHIFT;
aver(y < Num_bufs);
aver((y << BLK_SHIFT) == x);
return &Buf[y];
}
static u64 GetRing(void) {
aver(Tail != Head);
if (Tail == RING) {
Tail = 0;
}
return Ring[Tail++];
}
void
BzTest7(void)
{
enum { NUM_RECS = 20 };
VAR_LUMP(v, MAX_DATA);
Key key = {{0}};
Bz t;
printf("%s\n", __FUNCTION__);
init_twister(17);
BzInit(&t, KEY_LEN);
for (u64 i = 0; i < NUM_RECS; i++) {
RandLump(v);
BzPut(&t, RandKey().s, v);
}
BzDump(__FUNCTION__, &t);
for (;;) {
bool done;
BzNext(&t, key.s, key.s, &done);
if (done) {
break;
}
BzDelete(&t, key.s);
}
BzDelete(&t, key.s);
BzDump("Should be empty", &t);
BzReportAudit(__FUNCTION__, BzDoAudit(&t));
if (1) aver(t.root == NULL);
}
void
BzTest4(void)
{
enum { NUM_RECS = 20 };
VAR_LUMP(v, MAX_DATA);
Lump a;
Bz t;
bool found;
printf("%s\n", __FUNCTION__);
init_twister(17);
BzInit(&t, KEY_LEN);
for (u64 i = 0; i < NUM_RECS; i++) {
IntLump(v, i);
BzPut(&t, RandKey().s, v);
}
init_twister(17);
for (u64 i = 0; i < NUM_RECS; i++) {
IntLump(v, i);
a = BzGet(&t, RandKey().s, &found);
if (!found) {
fatal("didn't find %llu", i);
}
aver(memcmp(a.p, v.p, v.len) == 0);
}
BzDump(__FUNCTION__, &t);
}
static void
save_reductions (state *s)
{
int count = 0;
size_t i;
/* Find and count the active items that represent ends of rules. */
for (i = 0; i < nitemset; ++i)
{
item_number item = ritem[itemset[i]];
if (item_number_is_rule_number (item))
{
rule_number r = item_number_as_rule_number (item);
redset[count++] = &rules[r];
if (r == 0)
{
/* This is "reduce 0", i.e., accept. */
aver (!final_state);
final_state = s;
}
}
}
/* Make a reductions structure and copy the data into it. */
state_reductions_set (s, count, redset);
}
int AirqualityGp2y10::APIair(int Time)
{
int DensityAPI;
float Density;
Density = aver(Time*10);//////
//Serial.println(Density);//test
if(Density<0.05)//1
{
DensityAPI=Density/0.001;
}
else if(Density>0.05 && Density<0.15) //2
{
DensityAPI=50+(Density-0.05)/0.002;
}
else if(Density>0.15 && Density<0.35) //3
{
DensityAPI=98+(Density-0.15)/0.002;
}
else if(Density>0.35 && Density<0.4) //4
{
DensityAPI=200+(Density-0.35)/0.0007;
}
else if(Density>0.42 && Density<0.5) //5
{
DensityAPI=300+(Density-0.42)/0.008;
}
else if(Density>0.5 && Density<0.6) //6
{
DensityAPI=400+(Density-0.5)/0.001;
}
return(DensityAPI);
}
void
BaTest7(void)
{
enum { NUM_RECS = 200 };
Ba t;
printf("%s\n", __FUNCTION__);
init_twister(17);
BaInit(&t);
for (u64 i = 0; i < NUM_RECS; i++) {
BaPut(&t, twister_random());
}
BaDump(__FUNCTION__, &t);
for (u64 key = 0, i = 0;; i++) {
bool done;
BaNext(&t, key, &key, &done);
if (done) {
if (i != NUM_RECS) fatal("Didn't find all the keys %llu %u", i, NUM_RECS);
break;
}
BaDelete(&t, key);
}
BaDelete(&t, 0);
BaDump(__FUNCTION__, &t);
BaReportAudit(__FUNCTION__, BaDoAudit(&t));
if (0) aver(t.root == NULL);
}
static int insert_search (
void *data,
u64 rec_key,
void *rec,
unint len)
{
insert_search_s *s = data;
char *name = rec;
if ((s->key & HASH_MASK) < (rec_key & HASH_MASK)) {
return qERR_NOT_FOUND;
}
aver((s->key & HASH_MASK) == (rec_key & HASH_MASK));
if (strcmp(s->name, name) == 0) {
return qERR_DUP;
}
if (!s->set_new_key) {
if (s->key != rec_key) {
s->set_new_key = TRUE;
} else {
s->key = rec_key + 1;
if ((s->key & UNIQUE_MASK) == 0) {
printf("OVERFLOW: %s\n", s->name);
return qERR_HASH_OVERFLOW;
}
}
}
return qERR_TRY_NEXT;
}
STATIC void lf_move_recs(Node_s *node, Node_s *sibling)
{
int i;
int j;
int size;
int total;
node_compact(node);
j = node->numrecs;
for (i = 0; i < sibling->numrecs; i++, j++) {
unint x = sibling->rec[i];
u8 *start = &((u8 *)sibling)[x];
size = start[sizeof(Key_t)];
size |= start[sizeof(Key_t) + 1] << 8;
size += sizeof(u16) + sizeof(Key_t);
total = size + sizeof(u16);
aver(total <= node->free);
node->end -= size;
node->rec[j] = node->end;
node->free -= total;
memmove(&((u8 *)node)[node->end], start, size);
++node->numrecs;
}
sibling->numrecs = 0;
sibling->free = BLOCK_SIZE - SZ_HEAD;
}
STATIC void store_lump(Node_s *node, Lump_s lump)
{
int total = lump.size + SZ_U16;
u8 *start;
aver(total <= node->free);
aver(total <= node->end);
aver(lump.size < MAX_U16);
node->end -= total;
node->free -= total;
start = &((u8 *)node)[node->end];
*start++ = lump.size & MASK_U8;
*start++ = (lump.size >> BITS_U8) & MASK_U8;
memmove(start, lump.d, lump.size);
}
Sbitset
Sbitset__new (Sbitset__Index nbits)
{
/* Some functions, like Sbitset__last_byte_mask, will fail if nbits = 0. */
aver (nbits);
return xcalloc (1, Sbitset__nbytes (nbits));
}
STATIC Lump_s get_val(Node_s *node, unint i)
{
Lump_s val;
unint x;
u8 *start;
aver(i < node->numrecs);
x = node->rec[i];
aver(x < BLOCK_SIZE);
start = &((u8 *)node)[x];
start += sizeof(Key_t);
val.size = *start++;
val.size |= (*start++) << 8;
val.d = start;
return val;
}
static Tree_s *object (void)
{
FN;
Tree_s *tree = NULL;
Tree_s *obj;
Tree_s *p;
Token_s t;
t = get_token();
if (t.type != '{') return NULL;
for (;;) {
p = pair();
if (!p) break;
if (tree) {
tree->right = p;
} else {
tree = p;
}
t = get_token();
if (t.type == ',') continue;
}
t = get_token();
aver(t.type == '}');
obj = new_tree();
obj->token.type = T_OBJECT;
obj->left = tree;
return obj;
}
void bput (buf_s *buf)
{
aver(buf->b_use > 0);
if (!buf->b_dev->d_lazy) {
bflush(buf);
}
--buf->b_use;
}
void put_info (info_s *info)
{
FN;
aver(info->in_use);
if (!info) return;
if (--info->in_use) return;
rmv_info(info);
}