zbuf
char buf[BUFSIZ], zbuf[BUFSIZ];
memset(zbuf, 0, BUFSIZ);
nb = write(fd, zbuf, j);
uint8_t buf[BUFSIZ], zbuf[BUFSIZ] = { 0 };
memset(zbuf, 0, BUFSIZ);
if (memcmp(buf, zbuf, len) != 0) {
len = write(fd, zbuf, len);
u_char zbuf[4096] = {0};
sshbuf_put(ts->s_template, zbuf, sizeof(zbuf)) != 0)
sshbuf_put(ts->c_template, zbuf, sizeof(zbuf)) != 0)
DECLARE_ML_KEM_KEYDATA(prvkey_##bits, ML_KEM_##bits##_RANK, ; scalar sbuf[ML_KEM_##bits##_RANK]; uint8_t zbuf[2 * ML_KEM_RANDOM_BYTES];)
const ASN1_OCTET_STRING *oct, int zbuf,
if (zbuf)
const ASN1_OCTET_STRING *oct, int zbuf)
return PKCS12_item_decrypt_d2i_ex(algor, it, pass, passlen, oct, zbuf,
void *obj, int zbuf,
if (zbuf)
void *obj, int zbuf)
return PKCS12_item_i2d_encrypt_ex(algor, it, pass, passlen, obj, zbuf, NULL, NULL);
const ASN1_OCTET_STRING *oct, int zbuf);
const ASN1_OCTET_STRING *oct, int zbuf,
void *obj, int zbuf);
void *obj, int zbuf,
const unsigned char *zbuf;
zbuf = &rr->data[rr->off];
if (!TEST_mem_eq(cbuf, sizeof(cbuf), zbuf, sizeof(cbuf)))
if (!TEST_mem_eq(cbuf, sizeof(cbuf), zbuf, sizeof(cbuf)))
static char *zbuf;
z->next_out = zbuf;
w = sparsefwrite(zbuf, zbufsize - z->avail_out, fp);
Zout.dst = zbuf;
w = sparsefwrite(zbuf, Zout.pos, fp);
if ((zbuf = malloc(zbufsize)) == NULL) {
const uint8_t *zbuf,
static int ecore_gunzip(struct bxe_softc *sc, const uint8_t *zbuf, int len);
void *zbuf;
zbuf = __DECONST(void *, zero_region);
error = uiomove(zbuf, len, uio);
uint8_t *buf, *zbuf;
zbuf = malloc(2*i + 1024);
if (buf != NULL && zbuf != NULL) {
zsize = block_deflate(buf, zbuf, i);
printf(" %02X", zbuf[j]);
free(zbuf);
zbuf_free(struct zbuf *zb)
struct zbuf **zbp)
struct zbuf *zb;
struct zbuf *zb;
zb = (struct zbuf *)buf;
struct zbuf *zb;
zb = (struct zbuf *)buf;
struct zbuf *zb;
zb = (struct zbuf *)d->bd_sbuf;
struct zbuf *zb;
zb = (struct zbuf *)d->bd_hbuf;
struct zbuf *zb;
zb = (struct zbuf *)d->bd_fbuf;
struct zbuf *zb;
zb = (struct zbuf *)d->bd_hbuf;
struct zbuf *zb;
zb = (struct zbuf *)d->bd_sbuf;
struct zbuf *zb;
zb = (struct zbuf *)d->bd_sbuf;
zb = (struct zbuf *)d->bd_hbuf;
zb = (struct zbuf *)d->bd_fbuf;
struct zbuf *bzh;
bzh = (struct zbuf *)d->bd_hbuf;
struct zbuf *zba, *zbb;
struct zbuf;
bzero(&zbuf, sizeof(z_stream));
zbuf.zalloc = crypto_zalloc;
zbuf.zfree = crypto_zfree;
zbuf.opaque = Z_NULL;
zbuf.next_in = data; /* Data that is going to be processed. */
zbuf.avail_in = size; /* Total length of data to be processed. */
zbuf.next_out = bufp->data;
zbuf.avail_out = bufp->size;
error = decomp ? inflateInit2(&zbuf, window_inflate) :
deflateInit2(&zbuf, Z_DEFAULT_COMPRESSION, Z_METHOD,
error = decomp ? inflate(&zbuf, Z_SYNC_FLUSH) :
deflate(&zbuf, Z_FINISH);
zbuf.avail_in, zbuf.avail_out, zbuf.total_out);
zbuf.avail_in, zbuf.avail_out, zbuf.total_out);
if (decomp && zbuf.avail_in == 0 && error == Z_STREAM_END) {
} else if (zbuf.avail_out == 0) {
zbuf.next_out = bufp->data;
zbuf.avail_out = bufp->size;
zbuf.avail_in, zbuf.avail_out, zbuf.total_out);
result = count = zbuf.total_out;
inflateEnd(&zbuf);
deflateEnd(&zbuf);
inflateEnd(&zbuf);
deflateEnd(&zbuf);
z_stream zbuf;
char zbuf[bufsize];
bzero(zbuf, bufsize);
expect_read(ino, 0, fsize, fsize, zbuf);
ASSERT_EQ(0, memcmp(buf, zbuf, fsize));
if (!rc->zbuf) {
rc->zbuf = malloc(RFB_ZLIB_BUFSZ + 16);
assert(rc->zbuf != NULL);
uint8_t *zbuf;
zbufp = rc->zbuf;
zbufp = rc->zbuf + rc->zstream.total_out;
return (stream_write(cfd, rc->zbuf, rc->zstream.total_out));
zbufp = rc->zbuf;
total = stream_write(cfd, rc->zbuf, total);
rc->zstream.next_out = (Bytef *)rc->zbuf;
return (stream_write(cfd, rc->zbuf, rc->zstream.total_out));