Major security, observability, and configuration improvements:
## Security Hardening
- Implemented configurable CORS (no more wildcards)
- Added comprehensive auth middleware for admin endpoints
- Enhanced webhook HMAC validation
- Added input validation and rate limiting
- Security headers and CSP policies
## Configuration Management
- Made N8N webhook URL configurable (WHOOSH_N8N_BASE_URL)
- Replaced all hardcoded endpoints with environment variables
- Added feature flags for LLM vs heuristic composition
- Gitea fetch hardening with EAGER_FILTER and FULL_RESCAN options
## API Completeness
- Implemented GetCouncilComposition function
- Added GET /api/v1/councils/{id} endpoint
- Council artifacts API (POST/GET /api/v1/councils/{id}/artifacts)
- /admin/health/details endpoint with component status
- Database lookup for repository URLs (no hardcoded fallbacks)
## Observability & Performance
- Added OpenTelemetry distributed tracing with goal/pulse correlation
- Performance optimization database indexes
- Comprehensive health monitoring
- Enhanced logging and error handling
## Infrastructure
- Production-ready P2P discovery (replaces mock implementation)
- Removed unused Redis configuration
- Enhanced Docker Swarm integration
- Added migration files for performance indexes
## Code Quality
- Comprehensive input validation
- Graceful error handling and failsafe fallbacks
- Backwards compatibility maintained
- Following security best practices
🤖 Generated with [Claude Code](https://claude.ai/code)
Co-Authored-By: Claude <noreply@anthropic.com>
135 lines
3.4 KiB
Go
135 lines
3.4 KiB
Go
package jwt
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import (
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"crypto"
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"crypto/ecdsa"
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"crypto/rand"
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"errors"
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"math/big"
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)
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var (
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// Sadly this is missing from crypto/ecdsa compared to crypto/rsa
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ErrECDSAVerification = errors.New("crypto/ecdsa: verification error")
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)
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// SigningMethodECDSA implements the ECDSA family of signing methods.
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// Expects *ecdsa.PrivateKey for signing and *ecdsa.PublicKey for verification
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type SigningMethodECDSA struct {
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Name string
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Hash crypto.Hash
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KeySize int
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CurveBits int
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}
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// Specific instances for EC256 and company
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var (
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SigningMethodES256 *SigningMethodECDSA
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SigningMethodES384 *SigningMethodECDSA
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SigningMethodES512 *SigningMethodECDSA
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)
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func init() {
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// ES256
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SigningMethodES256 = &SigningMethodECDSA{"ES256", crypto.SHA256, 32, 256}
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RegisterSigningMethod(SigningMethodES256.Alg(), func() SigningMethod {
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return SigningMethodES256
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})
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// ES384
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SigningMethodES384 = &SigningMethodECDSA{"ES384", crypto.SHA384, 48, 384}
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RegisterSigningMethod(SigningMethodES384.Alg(), func() SigningMethod {
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return SigningMethodES384
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})
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// ES512
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SigningMethodES512 = &SigningMethodECDSA{"ES512", crypto.SHA512, 66, 521}
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RegisterSigningMethod(SigningMethodES512.Alg(), func() SigningMethod {
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return SigningMethodES512
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})
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}
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func (m *SigningMethodECDSA) Alg() string {
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return m.Name
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}
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// Verify implements token verification for the SigningMethod.
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// For this verify method, key must be an ecdsa.PublicKey struct
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func (m *SigningMethodECDSA) Verify(signingString string, sig []byte, key any) error {
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// Get the key
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var ecdsaKey *ecdsa.PublicKey
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switch k := key.(type) {
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case *ecdsa.PublicKey:
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ecdsaKey = k
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default:
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return newError("ECDSA verify expects *ecdsa.PublicKey", ErrInvalidKeyType)
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}
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if len(sig) != 2*m.KeySize {
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return ErrECDSAVerification
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}
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r := big.NewInt(0).SetBytes(sig[:m.KeySize])
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s := big.NewInt(0).SetBytes(sig[m.KeySize:])
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// Create hasher
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if !m.Hash.Available() {
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return ErrHashUnavailable
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}
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hasher := m.Hash.New()
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hasher.Write([]byte(signingString))
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// Verify the signature
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if verifystatus := ecdsa.Verify(ecdsaKey, hasher.Sum(nil), r, s); verifystatus {
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return nil
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}
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return ErrECDSAVerification
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}
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// Sign implements token signing for the SigningMethod.
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// For this signing method, key must be an ecdsa.PrivateKey struct
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func (m *SigningMethodECDSA) Sign(signingString string, key any) ([]byte, error) {
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// Get the key
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var ecdsaKey *ecdsa.PrivateKey
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switch k := key.(type) {
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case *ecdsa.PrivateKey:
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ecdsaKey = k
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default:
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return nil, newError("ECDSA sign expects *ecdsa.PrivateKey", ErrInvalidKeyType)
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}
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// Create the hasher
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if !m.Hash.Available() {
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return nil, ErrHashUnavailable
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}
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hasher := m.Hash.New()
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hasher.Write([]byte(signingString))
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// Sign the string and return r, s
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if r, s, err := ecdsa.Sign(rand.Reader, ecdsaKey, hasher.Sum(nil)); err == nil {
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curveBits := ecdsaKey.Curve.Params().BitSize
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if m.CurveBits != curveBits {
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return nil, ErrInvalidKey
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}
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keyBytes := curveBits / 8
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if curveBits%8 > 0 {
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keyBytes += 1
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}
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// We serialize the outputs (r and s) into big-endian byte arrays
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// padded with zeros on the left to make sure the sizes work out.
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// Output must be 2*keyBytes long.
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out := make([]byte, 2*keyBytes)
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r.FillBytes(out[0:keyBytes]) // r is assigned to the first half of output.
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s.FillBytes(out[keyBytes:]) // s is assigned to the second half of output.
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return out, nil
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} else {
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return nil, err
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}
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}
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