fix: gofmt -s across repo (CI format check)

aggregated/signature_aggregator.go

@@ -71,14 +71,14 @@ type SignatureConfig struct {
 	PreferredType SignatureType `json:"preferredType"`
 
 	// Enable specific signature types
-	EnableBLS      bool `json:"enableBLS"`
-	EnableCorona bool `json:"enableCorona"`
-	EnableCGGMP21  bool `json:"enableCGGMP21"`
+	EnableBLS     bool `json:"enableBLS"`
+	EnableCorona  bool `json:"enableCorona"`
+	EnableCGGMP21 bool `json:"enableCGGMP21"`
 
 	// Fee configuration (in nLUX - nano LUX)
-	BLSFee      uint64 `json:"blsFee"`      // 0 = free
-	CoronaFee uint64 `json:"coronaFee"` // Premium for enhanced privacy
-	CGGMP21Fee  uint64 `json:"cggmp21Fee"`  // Premium for threshold signatures
+	BLSFee     uint64 `json:"blsFee"`     // 0 = free
+	CoronaFee  uint64 `json:"coronaFee"`  // Premium for enhanced privacy
+	CGGMP21Fee uint64 `json:"cggmp21Fee"` // Premium for threshold signatures
 
 	// Performance settings
 	ParallelAggregation bool `json:"parallelAggregation"`

backend/backend_test.go

@@ -188,4 +188,3 @@ func TestEnvOverride(t *testing.T) {
 		t.Errorf("env override: Default() = %v; want Vanilla", got)
 	}
 }
-

blake3/blake3_test.go

@@ -22,10 +22,10 @@ type kat struct {
 	Key           string `json:"key"`
 	ContextString string `json:"context_string"`
 	Cases         []struct {
-		InputLen   int    `json:"input_len"`
-		Hash       string `json:"hash"`
-		KeyedHash  string `json:"keyed_hash"`
-		DeriveKey  string `json:"derive_key"`
+		InputLen  int    `json:"input_len"`
+		Hash      string `json:"hash"`
+		KeyedHash string `json:"keyed_hash"`
+		DeriveKey string `json:"derive_key"`
 	} `json:"cases"`
 }
 

hqc/backend_pqclean.go

@@ -68,8 +68,8 @@ type rngState struct {
 }
 
 var (
-	rngMu      sync.Mutex
-	activeRNG  *rngState
+	rngMu     sync.Mutex
+	activeRNG *rngState
 )
 
 // installRNG takes the cgo lock and registers `r` as the entropy
@@ -92,12 +92,12 @@ func clearRNG() error {
 	return s.err
 }
 
-//export hqcGoRandombytes
-//
 // Called from randombytes_shim.c. Reads exactly `n` bytes from the
 // installed RNG into the buffer at `buf`. Returns 0 on full read,
 // non-zero on partial read or reader error (PQClean checks the
 // return value of randombytes() == 0).
+//
+//export hqcGoRandombytes
 func hqcGoRandombytes(buf *C.uint8_t, n C.size_t) C.int {
 	if activeRNG == nil {
 		// Misuse — no RNG installed. Fail loudly via non-zero return

hqc/gpu.go

@@ -34,10 +34,11 @@ import (
 // amortises the cgo crossover across slots.
 //
 // Measured on Apple M1 Max (HQC-128 encaps):
-//   1-item batch:   accel = 35 us, direct = 30 us   (direct wins)
-//   4-item batch:   accel = 110 us, direct = 120 us (parity)
-//   16-item batch:  accel = 410 us, direct = 480 us (accel ~17% win)
-//   128-item batch: accel = 1.7 ms, direct = 3.8 ms (accel ~2.2x)
+//
+//	1-item batch:   accel = 35 us, direct = 30 us   (direct wins)
+//	4-item batch:   accel = 110 us, direct = 120 us (parity)
+//	16-item batch:  accel = 410 us, direct = 480 us (accel ~17% win)
+//	128-item batch: accel = 1.7 ms, direct = 3.8 ms (accel ~2.2x)
 //
 // The exact threshold is workload-dependent. We pick 4 (the first
 // batch size where accel matches direct) so the API remains useful
@@ -53,9 +54,9 @@ const batchSizeThreshold = 4
 // OpenMP at the C++ level. That parallelism is independent of whether
 // a "real" GPU device is present — the kernels share the same C++
 // host loop. We therefore key dispatch on:
-//   1. backend.IsVanilla() is false — i.e. the caller did NOT explicitly
-//      pick the pure-Go fallback.
-//   2. The batch is large enough to amortise the cgo crossover.
+//  1. backend.IsVanilla() is false — i.e. the caller did NOT explicitly
+//     pick the pure-Go fallback.
+//  2. The batch is large enough to amortise the cgo crossover.
 //
 // We do NOT consult a session handle here — accel/ops/code parallelises via
 // OpenMP at the C++ level whether or not a Metal/CUDA device exists, so the

hqc/gpu_nocgo.go

@@ -153,10 +153,10 @@ func karatsuba(o, a, b []uint64, size int, stack []uint64) {
 	ah := a[sizeL:]
 	bh := b[sizeL:]
 
-	karatsuba(o, a, b, sizeL, rest)            // o[0:2*sizeL] = a_L * b_L
-	karatsuba(tmp2, ah, bh, sizeH, rest)       // tmp2 = a_H * b_H
+	karatsuba(o, a, b, sizeL, rest)      // o[0:2*sizeL] = a_L * b_L
+	karatsuba(tmp2, ah, bh, sizeH, rest) // tmp2 = a_H * b_H
 	karatsubaAdd1(alh, blh, a, b, sizeL, sizeH)
-	karatsuba(tmp1, alh, blh, sizeL, rest)    // tmp1 = (a_L+a_H)*(b_L+b_H)
+	karatsuba(tmp1, alh, blh, sizeL, rest) // tmp1 = (a_L+a_H)*(b_L+b_H)
 	karatsubaAdd2(o, tmp1, tmp2, sizeL, sizeH)
 }
 

hqc/gpu_test.go

@@ -18,11 +18,11 @@ import (
 // CPU PQClean reference. The two paths share the same canonical
 // kernels via accel/ops/code so the test asserts that:
 //
-//   1. The GPU batch path returns valid (ct, ss) pairs (decap-able by
-//      the canonical PQClean reference).
-//   2. The byte layout matches what PQClean produces with the same
-//      entropy stream — there is no "shifted" or "padded" encoding
-//      difference between the two paths.
+//  1. The GPU batch path returns valid (ct, ss) pairs (decap-able by
+//     the canonical PQClean reference).
+//  2. The byte layout matches what PQClean produces with the same
+//     entropy stream — there is no "shifted" or "padded" encoding
+//     difference between the two paths.
 //
 // We can't compare against per-item GPU vs per-item CPU directly
 // because the batch surface takes a flat seed buffer while the

hqc/hqc.go

@@ -21,17 +21,17 @@
 //
 // Backends:
 //
-//	1. PQClean cgo (default for non-stub builds). Build with
-//	   `-tags=hqc_pqclean`. Wires the vendored PQClean HQC reference
-//	   implementation under crypto/hqc/pqclean/ (public domain). NIST
-//	   KAT vectors verify byte-for-byte — see
-//	   crypto/hqc/backend_pqclean_test.go's TestKAT_HQC{128,192,256}.
-//	2. Cloudflare CIRCL Go (placeholder; build tag `hqc_circl`).
-//	   Activates once CIRCL ships HQC support.
-//	3. Stub (default). When no backend tag is set, every operation
-//	   returns ErrBackendNotWired so the package still compiles on
-//	   hosts without cgo. The wire format and parameter constants are
-//	   fixed by NIST IR 8528 §4.1 and remain stable across backends.
+//  1. PQClean cgo (default for non-stub builds). Build with
+//     `-tags=hqc_pqclean`. Wires the vendored PQClean HQC reference
+//     implementation under crypto/hqc/pqclean/ (public domain). NIST
+//     KAT vectors verify byte-for-byte — see
+//     crypto/hqc/backend_pqclean_test.go's TestKAT_HQC{128,192,256}.
+//  2. Cloudflare CIRCL Go (placeholder; build tag `hqc_circl`).
+//     Activates once CIRCL ships HQC support.
+//  3. Stub (default). When no backend tag is set, every operation
+//     returns ErrBackendNotWired so the package still compiles on
+//     hosts without cgo. The wire format and parameter constants are
+//     fixed by NIST IR 8528 §4.1 and remain stable across backends.
 package hqc
 
 import (
@@ -58,12 +58,12 @@ const (
 
 // Params returns the fixed sizes for the parameter set.
 type Params struct {
-	Mode                 Mode
-	PublicKeySize        int
-	PrivateKeySize       int
-	CiphertextSize       int
-	SharedSecretSize     int
-	SecurityLevelBits    int // NIST PQ category mapped to ≈ AES key bits
+	Mode              Mode
+	PublicKeySize     int
+	PrivateKeySize    int
+	CiphertextSize    int
+	SharedSecretSize  int
+	SecurityLevelBits int // NIST PQ category mapped to ≈ AES key bits
 }
 
 // MustParamsFor returns the canonical Params for `mode` or panics on

internal/gpuhost/gpuhost.go

@@ -16,9 +16,9 @@ import (
 )
 
 var (
-	once     sync.Once
-	sess     *accel.Session
-	initErr  error
+	once      sync.Once
+	sess      *accel.Session
+	initErr   error
 	available bool
 )
 

keccak256/doc.go

@@ -6,7 +6,7 @@
 //   - vanilla: golang.org/x/crypto/sha3.NewLegacyKeccak256 (pure Go)
 //   - cgo:     uses libluxcrypto's optimised C implementation when CGO is on
 //   - gpu:     batch-routes through github.com/luxfi/accel for batches that
-//              exceed the BatchThreshold cutoff
+//     exceed the BatchThreshold cutoff
 //
 // The dispatcher honours backend.Default(); see github.com/luxfi/crypto/backend.
 package keccak256

mldsa/batch.go

@@ -26,12 +26,12 @@ var concurrentBatchThreshold = 8
 //
 // Dispatch ladder:
 //
-//   1. GPU substrate (accel.LatticeOps.MLDSAVerifyBatch) when n >= BatchThreshold
-//      AND a backend plugin is loaded AND mode is in {44, 65, 87}.
-//   2. Goroutine-parallel CPU verify when n >= concurrentBatchThreshold.
-//      Scales to GOMAXPROCS without GPU substrate. Useful on hosts that
-//      have CPU cores but no GPU plugin (Linux CI, no-Metal Macs, etc).
-//   3. Serial CPU verify as the floor.
+//  1. GPU substrate (accel.LatticeOps.MLDSAVerifyBatch) when n >= BatchThreshold
+//     AND a backend plugin is loaded AND mode is in {44, 65, 87}.
+//  2. Goroutine-parallel CPU verify when n >= concurrentBatchThreshold.
+//     Scales to GOMAXPROCS without GPU substrate. Useful on hosts that
+//     have CPU cores but no GPU plugin (Linux CI, no-Metal Macs, etc).
+//  3. Serial CPU verify as the floor.
 //
 // All paths are byte-equal: each path ends in cloudflare/circl's
 // FIPS 204-conformant Verify. The dispatch choice only affects throughput,
@@ -131,9 +131,9 @@ var ErrBatchLength = errors.New("mldsa: batch input slices have inconsistent len
 //
 // Dispatch ladder mirrors BatchVerify:
 //
-//   1. GPU substrate (accel.LatticeOps.MLDSASignBatch).
-//   2. Goroutine-parallel CPU sign.
-//   3. Serial CPU sign.
+//  1. GPU substrate (accel.LatticeOps.MLDSASignBatch).
+//  2. Goroutine-parallel CPU sign.
+//  3. Serial CPU sign.
 //
 // For deterministic-mode signing (FIPS 204 § Algorithm 2 with rnd=0^256),
 // callers can pass nil for randSource. The CPU path passes deterministic=true

mldsa/gpu_44_test.go

@@ -29,8 +29,6 @@ import (
 
 	"github.com/cloudflare/circl/sign/mldsa/mldsa44"
 	"github.com/luxfi/crypto/backend"
-
-
 )
 
 // genBatch44 produces n ML-DSA-44 keypairs + signs distinct messages with
@@ -223,9 +221,9 @@ func TestMLDSA44_BatchSign_RoundTrip(t *testing.T) {
 // BenchmarkMLDSA44_BatchVerify measures throughput of the ML-DSA-44 batch
 // verify dispatch ladder. Run with -bench=. to compare:
 //
-//   BenchmarkMLDSA44_BatchVerify/serial-1
-//   BenchmarkMLDSA44_BatchVerify/concurrent-8
-//   BenchmarkMLDSA44_BatchVerify/concurrent-32
+//	BenchmarkMLDSA44_BatchVerify/serial-1
+//	BenchmarkMLDSA44_BatchVerify/concurrent-8
+//	BenchmarkMLDSA44_BatchVerify/concurrent-32
 func BenchmarkMLDSA44_BatchVerify(b *testing.B) {
 	for _, size := range []int{1, 8, 32, 64} {
 		b.Run(fmt.Sprintf("n=%d", size), func(b *testing.B) {

mldsa/gpu_87_test.go

@@ -21,8 +21,6 @@ import (
 
 	"github.com/cloudflare/circl/sign/mldsa/mldsa87"
 	"github.com/luxfi/crypto/backend"
-
-
 )
 
 func genBatch87(t testing.TB, n int) (pubs []*PublicKey, msgs [][]byte, sigs [][]byte) {

mldsa/provenance.go

@@ -50,12 +50,12 @@ func (t DispatchTier) String() string {
 // Provenance is the auditable evidence record for the ML-DSA package.
 // See slhdsa.Provenance — same shape, same purpose.
 type Provenance struct {
-	Tier                  DispatchTier
-	AccelInitialised      bool
-	DeviceAvailable       bool
-	PluginStrongSymbol    bool
-	BatchThresholdN       int
-	ConcurrentThresholdN  int
+	Tier                 DispatchTier
+	AccelInitialised     bool
+	DeviceAvailable      bool
+	PluginStrongSymbol   bool
+	BatchThresholdN      int
+	ConcurrentThresholdN int
 }
 
 // GetProvenance returns the current dispatch provenance.

mlkem/ct/dudect/decaps_ct.go

@@ -81,27 +81,27 @@ func mlkem_decaps_ct_setup() C.int {
 	return 0
 }
 
-//export mlkem_decaps_ct_pool_size
-//
 // Returns the per-sample input width (FIPS 203 ML-KEM-768 ciphertext
 // is 1088 bytes). Named "pool_size" for harness API compatibility.
+//
+//export mlkem_decaps_ct_pool_size
 func mlkem_decaps_ct_pool_size() C.size_t {
 	return C.size_t(dMlkemCTSize)
 }
 
-//export mlkem_decaps_ct_input_size
-//
 // Same as pool_size — full ciphertext bytes per sample.
+//
+//export mlkem_decaps_ct_input_size
 func mlkem_decaps_ct_input_size() C.size_t {
 	return C.size_t(dMlkemCTSize)
 }
 
-//export mlkem_decaps_ct_copy_valid_ct
-//
 // Copies the class-A reference ciphertext into the caller-supplied C
 // buffer (must be at least mlkem_decaps_ct_input_size() bytes). Returns
 // 0 on success. Avoids passing a Go pointer back through cgo (which
 // would trip Go 1.26's cgocheck=1 unpinned-pointer panic).
+//
+//export mlkem_decaps_ct_copy_valid_ct
 func mlkem_decaps_ct_copy_valid_ct(dst *C.uint8_t) C.int {
 	if len(dMlkemValidCT) == 0 || dst == nil {
 		return 1
@@ -110,8 +110,6 @@ func mlkem_decaps_ct_copy_valid_ct(dst *C.uint8_t) C.int {
 	return 0
 }
 
-//export mlkem_decaps_ct
-//
 // One dudect sample: decapsulate the per-sample bytes. Class A → valid
 // reference ciphertext (FO-accept branch). Class B → caller-random
 // bytes (FO-reject branch via implicit rejection). Output is discarded;
@@ -120,6 +118,8 @@ func mlkem_decaps_ct_copy_valid_ct(dst *C.uint8_t) C.int {
 // Critical: this function MUST be branchless in its dispatch — only
 // the Decaps call may differ between samples. Any data-dependent
 // branch here would surface as a harness artifact.
+//
+//export mlkem_decaps_ct
 func mlkem_decaps_ct(data *C.uint8_t) {
 	if dMlkemSK == nil {
 		return

mlkem/ct/dudect/keygen_ct.go

@@ -33,9 +33,9 @@ import (
 
 const kKeygenRandSize = 64 // ML-KEM-768 keygen tape per FIPS 203
 
-//export mlkem_keygen_ct_setup
-//
 // Returns 0 on success.
+//
+//export mlkem_keygen_ct_setup
 func mlkem_keygen_ct_setup() C.int {
 	// Smoke test: ensure the underlying API is functional with a
 	// zero tape (the class-A input).
@@ -47,16 +47,16 @@ func mlkem_keygen_ct_setup() C.int {
 	return 0
 }
 
-//export mlkem_keygen_ct_input_size
-//
 // Returns the per-sample input width: 64 bytes (the keygen tape).
+//
+//export mlkem_keygen_ct_input_size
 func mlkem_keygen_ct_input_size() C.size_t {
 	return C.size_t(kKeygenRandSize)
 }
 
-//export mlkem_keygen_ct
-//
 // One dudect measurement sample. data points to a 64-byte tape.
+//
+//export mlkem_keygen_ct
 func mlkem_keygen_ct(data *C.uint8_t) {
 	src := unsafe.Slice((*byte)(unsafe.Pointer(data)), kKeygenRandSize)
 	r := bytes.NewReader(src)

p3q/ct/dudect/verify_ct.go

@@ -111,10 +111,10 @@ func buildValidInput(randSrc *[kProofBodyLen + kPubLen]byte) []byte {
 	return out
 }
 
-//export p3q_verify_ct_setup
-//
 // Initialise the per-startup pool of valid inputs. Returns 0 on
 // success, non-zero on failure.
+//
+//export p3q_verify_ct_setup
 func p3q_verify_ct_setup() C.int {
 	// Register a backend verifier that always accepts. This pins the
 	// CT measurement on the precompile dispatch + backend invocation
@@ -134,24 +134,24 @@ func p3q_verify_ct_setup() C.int {
 	return 0
 }
 
-//export p3q_verify_ct_input_size
-//
 // Returns the per-sample input size for the C harness scratch buffer.
+//
+//export p3q_verify_ct_input_size
 func p3q_verify_ct_input_size() C.size_t {
 	return C.size_t(kInputLen)
 }
 
-//export p3q_verify_ct_pool_size
-//
 // Returns the number of valid inputs in the per-startup pool.
+//
+//export p3q_verify_ct_pool_size
 func p3q_verify_ct_pool_size() C.size_t {
 	return C.size_t(kValidPool)
 }
 
-//export p3q_verify_ct_copy_pool
-//
 // Copies validPool[idx] into the caller-supplied dst buffer
 // (kInputLen bytes). Returns 0 on success, non-zero on bounds violation.
+//
+//export p3q_verify_ct_copy_pool
 func p3q_verify_ct_copy_pool(idx C.size_t, dst *C.uint8_t) C.int {
 	i := int(idx)
 	if i < 0 || i >= kValidPool || validPool[i] == nil {
@@ -168,8 +168,6 @@ var (
 	supplied    = uint64(1 << 30) // far above required for kInputLen
 )
 
-//export p3q_verify_ct
-//
 // One dudect measurement sample.
 //
 // data points to kInputLen bytes of caller-controlled wire calldata.
@@ -180,6 +178,8 @@ var (
 // The function MUST be branchless on `data` — any data-dependent
 // branch we introduce here pollutes the measurement before Run()
 // even starts. We only copy data into a fresh slice and dispatch.
+//
+//export p3q_verify_ct
 func p3q_verify_ct(data *C.uint8_t) {
 	inputSlice := unsafe.Slice((*byte)(unsafe.Pointer(data)), kInputLen)
 	input := append([]byte{}, inputSlice...)

pedersen/pedersen.go

@@ -56,9 +56,9 @@ func NewGenerators(rng io.Reader) (*Generators, error) {
 // SHA-256 and then dispatched to NewGeneratorsFromSeed, so the actual on-curve
 // derivation is identical to the C++/Metal/CUDA/WGSL canonical:
 //
-//   key = SHA-256(seed)
-//   G   = HashToG1(key || u64_le(0), DST=PEDERSEN_SEEDED_GEN_V1)
-//   H   = HashToG1(key || u64_le(1), DST=PEDERSEN_SEEDED_GEN_V1)
+//	key = SHA-256(seed)
+//	G   = HashToG1(key || u64_le(0), DST=PEDERSEN_SEEDED_GEN_V1)
+//	H   = HashToG1(key || u64_le(1), DST=PEDERSEN_SEEDED_GEN_V1)
 //
 // This collapses LP-137 issue N3 (RED-FINAL §2.4): the legacy two-DST
 // PEDERSEN_G_V1 / PEDERSEN_H_V1 path is removed; everything now flows through

poly_mul/poly_mul.go

@@ -8,14 +8,15 @@
 //
 //   - Schoolbook   O(n^2)  -- always correct, fastest below n=64
 //   - NTT-based    O(n log n) for the negacyclic convolution that lattice
-//                  cryptography (ML-KEM, ML-DSA, Corona) uses
+//     cryptography (ML-KEM, ML-DSA, Corona) uses
 //
 // Q = 998244353 is the canonical FFT-friendly prime used by AtCoder, Cyclone-FFT,
 // the SPOJ POLYMUL reference, and most competitive-programming NTT references.
 // Its 2-adicity is 23, so the NTT supports lengths up to N = 2^23.
 //
 // Negacyclic convolution: c[k] = sum_{i+j=k}    a[i]*b[j]
-//                              - sum_{i+j=k+n}  a[i]*b[j]
+//   - sum_{i+j=k+n}  a[i]*b[j]
+//
 // over Z_Q[X]/(X^n + 1) with q the prime above. This is the exact shape
 // used by lattice schemes; cyclic convolution is recovered by padding.
 //

poly_mul/poly_mul_test.go

@@ -27,9 +27,9 @@ func lcg(seed uint64, n int) []uint64 {
 // that C++ and Metal layers MUST match.
 func TestKATs(t *testing.T) {
 	type kat struct {
-		name      string
-		n         int
-		sA, sB    uint64
+		name             string
+		n                int
+		sA, sB           uint64
 		sum, first, last uint64
 	}
 	kats := []kat{

poseidon/poseidon_test.go

@@ -15,11 +15,11 @@ import (
 var poseidon2KATJSON []byte
 
 type kat struct {
-	Width         int        `json:"width"`
-	FullRounds    int        `json:"full_rounds"`
-	PartialRounds int        `json:"partial_rounds"`
-	SBox          int        `json:"sbox"`
-	Cases         []katCase  `json:"kat"`
+	Width         int       `json:"width"`
+	FullRounds    int       `json:"full_rounds"`
+	PartialRounds int       `json:"partial_rounds"`
+	SBox          int       `json:"sbox"`
+	Cases         []katCase `json:"kat"`
 }
 
 type katCase struct {

pq/mldsa/gpu/gpu_nocgo.go

@@ -160,4 +160,3 @@ func (e *cpuEngine) verifyBatch(mode Mode, msgs, sigs, pks [][]byte) ([]bool, er
 	})
 	return res, nil
 }
-

pq/mldsa/gpu/gpu_test.go

@@ -242,9 +242,9 @@ func TestReduce32_Bounds(t *testing.T) {
 // TestAddSubMod_Bounds exercises addModQ / subModQ around the boundary.
 func TestAddSubMod_Bounds(t *testing.T) {
 	tests := []struct {
-		a, b   uint32
-		wantA  uint32 // addModQ(a,b)
-		wantS  uint32 // subModQ(a,b)
+		a, b  uint32
+		wantA uint32 // addModQ(a,b)
+		wantS uint32 // subModQ(a,b)
 	}{
 		{0, 0, 0, 0},
 		{Q - 1, 1, 0, Q - 2},

slhdsa/gpu.go

@@ -451,9 +451,9 @@ func SignBatchGPU(privs []*PrivateKey, msgs, sigs [][]byte) (bool, error) {
 //
 // Dispatch ladder:
 //
-//   1. GPU substrate (SignBatchGPU) for n >= SignBatchThreshold.
-//   2. Goroutine-parallel CPU sign for n >= concurrentSignThreshold.
-//   3. Serial CPU sign as the floor.
+//  1. GPU substrate (SignBatchGPU) for n >= SignBatchThreshold.
+//  2. Goroutine-parallel CPU sign for n >= concurrentSignThreshold.
+//  3. Serial CPU sign as the floor.
 //
 // Equivalence: SLH-DSA-SHA2 sign is deterministic, so all tiers produce
 // byte-equal signatures for any given (sk, msg). Per FIPS 205 §10.2 the

slhdsa/gpu_sign_test.go

@@ -33,8 +33,6 @@ import (
 	"testing"
 
 	"github.com/luxfi/crypto/backend"
-
-
 )
 
 // genSignBatch192f produces n SLH-DSA-192f keypairs ready for SignBatch.

slhdsa/gpu_test.go

@@ -9,8 +9,6 @@ import (
 	"testing"
 
 	"github.com/luxfi/crypto/backend"
-
-
 )
 
 // genBatch produces n SLH-DSA-192f keypairs + signs distinct messages with

slhdsa/slhdsa.go

@@ -152,9 +152,10 @@ func GetSignatureSize(mode Mode) int {
 
 // GetPrivateKeySize returns the size of a private key for the given mode.
 // FIPS 205 §10 catalogue: sk = 4n where n is the hash output width:
-//   128-bit security : n=16 -> sk=64
-//   192-bit security : n=24 -> sk=96
-//   256-bit security : n=32 -> sk=128
+//
+//	128-bit security : n=16 -> sk=64
+//	192-bit security : n=24 -> sk=96
+//	256-bit security : n=32 -> sk=128
 func GetPrivateKeySize(mode Mode) int {
 	switch mode {
 	case SHA2_128s, SHAKE_128s, SHA2_128f, SHAKE_128f:

verkle/encoding_test.go

@@ -70,8 +70,8 @@ func TestParseNodeEoA(t *testing.T) {
 	// EmptyCodeHash deterministically (see parseEoAccountNode in
 	// encoding.go). values[2..255] stay nil after round-trip.
 	values := make([][]byte, 256)
-	values[0] = zero32[:]          // basic data (packed: version+balance+nonce+codesize)
-	values[1] = EmptyCodeHash[:]   // code hash — required = EmptyCodeHash for EoA
+	values[0] = zero32[:]        // basic data (packed: version+balance+nonce+codesize)
+	values[1] = EmptyCodeHash[:] // code hash — required = EmptyCodeHash for EoA
 	ln, err := NewLeafNode(ffx32KeyTest[:31], values)
 	if err != nil {
 		t.Fatalf("error creating leaf node: %v", err)