sha1
_(sha1),
sha1(data, len, out);
PCR_ATTR_BUILD(TPM_ALG_SHA1, sha1);
struct hmac_sha1_key sha1;
hmac_sha1_preparekey(&k.sha1, raw_key, raw_key_len);
for (int i = 0; i < ARRAY_SIZE(k.sha1.istate.h); i++) {
istate32[i] = cpu_to_be32(k.sha1.istate.h[i]);
ostate32[i] = cpu_to_be32(k.sha1.ostate.h[i]);
struct sha1_state *sha1;
sha1 = (struct sha1_state *)pad;
swap_data32(sha1->state, SHA1_DIGEST_SIZE);
struct sha1_state *sha1;
sha1 = (struct sha1_state *)pad;
swap_data32(sha1->state, SHA1_DIGEST_SIZE);
struct shash_alg *sha1;
sha1 = &sha1_alg;
sha1 = &sha1_alg_nano;
rc = crypto_register_shash(sha1);
crypto_unregister_shash(sha1);
struct sha1_state *sha1;
sha1 = state;
result = sha1->state;
struct sha1_state sha1;
sha1(it6505->sha1_input, i, (u8 *)av);
u8 *sha1 = it6505->sha1_input;
DRM_HDCP_KSV_LEN, sha1);
sha1 += DRM_HDCP_KSV_LEN;
sha1, sha1 + 2);
u32 sha1 = 0;
sha1 = le32_to_cpup((const __le32 *)data);
sha1);
pnvm_data->version = sha1;
u8 sha1[20];
sha1(fw->image, image_size, hash_data);
void sha1(const u8 *data, size_t len, u8 out[at_least SHA1_DIGEST_SIZE]);
struct hmac_sha1_key sha1;
EXPORT_SYMBOL_GPL(sha1);
sha1(raw_key, raw_key_len, derived_key.b);
#define HASH sha1
hmac_sha1(&hinfo->key.sha1, ring, plen, output);
hmac_sha1_preparekey(&hinfo->key.sha1,
data.hdr.xattr.sha1.type = EVM_XATTR_HMAC;
iint->ima_hash->xattr.sha1.type = IMA_XATTR_DIGEST;
} sha1;
sha1(td->xorwork, SHA1_DIGEST_SIZE * 2, td->xorhash);