Increase the timeout for PQC CI tests from 6 to 10 minutes. The new
SLH-DSA tests take more time than the previous tests due to the slow
signing. With the old timeout, some tests sometimes hit the timeout
before finishing successfully.
ecc_key_tmp_final was guarded by `if (err == MP_OKAY)`, leaking
key->t1/t2 (and x/y/z under ALT_ECC_SIZE) whenever an allocation or
mulmod step after ecc_key_tmp_init failed.
Simply removing the guard is unsafe here: unlike wc_ecc_mulmod_ex2
(whose arg checks `return` directly), this function XMALLOC'd `key`
before the arg checks and used `goto exit`, so a bad-arg call would
hand uninitialized memory to ecc_key_tmp_final and XFREE garbage
pointers.
Defer the XMALLOC until after the arg/range checks so `key` is NULL
on the early-error paths, then call ecc_key_tmp_final unconditionally
to plug the leak on the late-error paths.
wolfssl/wolfcrypt/wc_slhdsa.h: implement WOLFSSL_SLHDSA_NO_SHAKE and WOLFSSL_SLHDSA_NO_SHA2, and fix WC_SLHDSA_MAX_SIG_LEN setup to reflect SHA2 variants;
wolfssl/wolfcrypt/settings.h: if WOLFSSL_KERNEL_MODE, set WOLFSSL_SLHDSA_VERIFY_ONLY unless WOLFSSL_SLHDSA_NO_VERIFY_ONLY;
wolfcrypt/src/wc_slhdsa.c: fix WOLFSSL_SLHDSA_VERIFY_ONLY to work with --enable-slhdsa=sha2,verifyonly;
fix -Wunused-variables in slhdsakey_wots_pk_from_sig_x4();
wolfcrypt/test/test.c: in slhdsa_test(), fix gating for compatibility with --enable-slhdsa=sha2,verifyonly;
tests/api/test_slhdsa.c: fix gating in test_wc_slhdsa() and test_wc_slhdsa_sizes().
linuxkm/Makefile: update the GENERATE_RELOC_TAB recipe to generate both wc_linuxkm_pie_text_reloc_tab[] and wc_linuxkm_pie_rodata_reloc_tab.
linuxkm/linuxkm-fips-hash-wrapper.sh: add handling for wc_linuxkm_pie_rodata_reloc_tab.
linuxkm/linuxkm-fips-hash.c: add handling for rodata_reloc_tab.*.
linuxkm/linuxkm_memory.c:
* refactor find_reloc_tab_offset() to be segment-agnostic and tolerate empty reloc tabs.
* refactor wc_reloc_normalize_segment():
* to be segment-agnostic,
* identify the src segment dynamically,
* return BAD_FUNC_ARG where previously returning literal -1,
* use seg_in_out_len arg to accommodate size skew between input and output (not currently used), and
* rename working vars for better mnemonicitude.
* update wc_fips_generate_hash() to
* handle seg_map->rodata_reloc_tab,
* use new calling convention for wc_reloc_normalize_segment(), and
* add wc_reloc_normalize_segment() loop for .rodata_wolfcrypt.
linuxkm/linuxkm_memory.h and linuxkm/linuxkm_wc_port.h: rename WOLFSSL_TEXT_SEGMENT_CANONICALIZER* to WOLFSSL_SEGMENT_CANONICALIZER*, with backward-compat provisions.
linuxkm/module_hooks.c:
* add wc_linuxkm_normalize_relocations_noresize() backward-compat wrapper.
* wolfssl_init(): add .rodata_wolfcrypt relocation handling alongside existing .text_wolfcrypt handling, and update for new wc_reloc_normalize_segment() calling convention.
* add seg_map.rodata_reloc_tab initialization.
* update wc_linuxkm_normalize_relocations() to be segment-agnostic and use new wc_reloc_normalize_segment() calling convention.
Reduce the number of tests running on macos in os-check.yml to the
minimum required number to cover all mac os specific features. All other
platform-agnostic configs and setups are only tested on Linux, which is
much faster in GitHub CI.
The cryptocb dispatcher opened and closed a fresh PKCS#11 session around
each HMAC invocation. PKCS#11 sign operations are session-scoped, so a
multi-call HMAC (wc_HmacUpdate then wc_HmacFinal, which arrive as
separate cryptocb dispatches) had its C_SignFinal land on a session
that never saw a C_SignInit, returning CKR_OPERATION_NOT_INITIALIZED
and surfacing as WC_HW_E. This broke any code path that drives Update
and Final separately under PKCS#11 routing.
Cache the PKCS#11 session handle on Hmac.devCtx (cast through wc_ptr_t,
matching the existing pattern for cached PKCS#11 object handles) and
rebuild the Pkcs11Session on the stack. The session is opened on the
first dispatch when the operation enters
WC_HMAC_INNER_HASH_KEYED_DEV state and released when it leaves that
state (Final completed or hard error).
RFC 8446 section 8 requires any server instance to accept 0-RTT for a
given ClientHello at most once. Prior to this change wolfSSL's behaviour
diverged from that requirement in several ways:
* ctx->maxEarlyDataSz defaulted to MAX_EARLY_DATA_SZ whenever the
library was built with WOLFSSL_EARLY_DATA, so servers auto-
advertised 0-RTT in NewSessionTicket without the application
asking. RFC 8446 E.5 says 0-RTT MUST NOT be enabled unless
specifically requested.
* The post-accept eviction is compiled out under NO_SESSION_CACHE,
so builds without the cache accepted 0-RTT with no replay defence.
* Stateless self-encrypted tickets do not carry a session ID on the
stateless DoClientTicket decrypt path, so wolfSSL_SSL_CTX_remove_
session could not locate them to evict.
* wolfSSL_SSL_CTX_remove_session always returned 0 on success
regardless of whether the session was actually in the cache,
diverging from OpenSSL's SSL_CTX_remove_session (1 on success,
0 on not-found).
Changes:
* src/internal.c: ctx->maxEarlyDataSz defaults to 0; applications
must opt in with wolfSSL_CTX_set_max_early_data.
* src/tls13.c: #error when WOLFSSL_EARLY_DATA is built with
HAVE_SESSION_TICKET and NO_SESSION_CACHE. Escape hatch
WOLFSSL_EARLY_DATA_NO_ANTI_REPLAY for deployments that take
application-layer responsibility.
* wolfssl/internal.h: imply WOLFSSL_TICKET_HAVE_ID from
WOLFSSL_EARLY_DATA so stateless-ticket issuance populates the
cache under an ID that eviction can find.
* src/ssl_sess.c: wolfSSL_SSL_CTX_remove_session returns 1 when the
session was found (internal-cache hit, or ctx->rem_sess_cb fired
for an external cache), 0 otherwise. Matches OpenSSL semantics.
* src/tls13.c: the 0-RTT acceptance condition in CheckPreSharedKeys
now calls wolfSSL_SSL_CTX_remove_session and checks its return:
the eviction is the check. If the session was in the cache, 0-RTT
is accepted and the single-use requirement is satisfied. If not,
the early_data extension is rejected through the normal path so
the record layer correctly skips in-flight 0-RTT records.
WOLFSSL_MSG at each rejection site.
* doc/dox_comments/header_files/ssl.h: document runtime opt-in.
* tests: four new tests —
test_tls13_0rtt_default_off (fails without default-to-0 fix),
test_tls13_0rtt_stateless_replay (fails without TICKET_HAVE_ID
implication and remove_session gate),
test_tls13_remove_session_return (fails without return-value fix),
test_tls13_0rtt_ext_cache_eviction (fails without ext-cache
counts-as-found fix).
test_tls13_early_data explicitly opts in via
wolfSSL_CTX_set_max_early_data.
tests/api.c: two SSL_CTX_remove_session == 0 assertions updated
to == 1.
ReadPemFromBioToBuffer slurps the entire BIO in one shot, so iterative
callers like wolfSSL_PEM_read_bio_X509_CRL (and by extension
wolfSSL_X509_load_crl_file's BIO branch) saw EOF after the first block
and silently dropped every CRL after the first in a multi-CRL bundle.
Refactor wolfSSL_PEM_read_bio_X509_CRL to delegate to
wolfSSL_PEM_X509_X509_CRL_X509_PKEY_read_bio, which already reads one
PEM BEGIN/END pair per call and leaves the BIO positioned just past the
END line. Loop over it so we skip past intervening cert/key blocks and
return the next CRL in the stream — matching OpenSSL's
PEM_read_bio_X509_CRL, verified against OpenSSL 3.0.13 with cases
{cert,CRL}, {CRL,cert}, {CRL,cert,CRL}, {key,CRL}, {CRL,key,CRL}: in
each case OpenSSL skips non-CRL blocks until EOF.
When the caller passes a non-NULL `x` whose `*x` is already populated,
free the previous CRL before overwriting the slot — matching the
d2i_X509_CRL reuse contract the old body relied on.
To keep both helpers visible at the new call site, drop their `static`
qualifier (wolfSSL_PEM_X509_X509_CRL_X509_PKEY_read_bio for the per-block
read, wolfSSL_X509_PKEY_free to free defensively-allocated keys parsed
from intervening non-CRL blocks). Their definitions in src/x509.c and
declarations in wolfssl/internal.h are widened from OPENSSL_ALL to
OPENSSL_EXTRA || OPENSSL_ALL so the OPENSSL_EXTRA-only build (which
compiles wolfSSL_PEM_read_bio_X509_CRL) links cleanly. The unrelated
INFO_read_bio / INFO_read_bio_X509_INFO group below them keeps its
OPENSSL_ALL gate because it depends on wolfSSL_X509_INFO_new/free that
are still OPENSSL_ALL-only.
Also register the previously-orphaned test_wolfSSL_X509_load_crl_file
(its slot in TEST_OSSL_X509_LOOKUP_DECLS was a duplicated
test_wolfSSL_X509_LOOKUP_ctrl_hash_dir entry), update its assertion for
crl2.pem (which already contains two CRLs) to expect 2 instead of 1, and
add a multi-CRL bundle case that builds a memory BIO from
crl.pem + server-cert.pem + crl2.pem and asserts that the reader walks
past the cert and returns all 3 CRLs before NULL.