feat(graph): add observation graph with hybrid vector storage

- [x] Add golangci.yml configuration with fieldalignment linter
- [x] Implement observation graph structure with edge detection
- [x] Add LEANN-inspired hybrid vector storage with hub threshold
- [x] Implement graph-aware search with selective recomputation
- [x] Add auto-tuner for dynamic hub threshold adjustment
- [x] Add graph and vector metrics tracking and reporting
- [x] Extend configuration for graph parameters
- [x] Add graph rebuild background service with periodic updates
- [x] Add HTTP endpoints for graph stats and vector metrics
- [x] Update UI with advanced metrics sidebar panel
- [x] Implement AST-aware code chunking for Go, Python, TypeScript
This commit is contained in:
2026-01-07 18:51:40 +00:00
parent 4f4b4ac70f
commit 1ae8035470
24 changed files with 3143 additions and 47 deletions
+35
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@@ -0,0 +1,35 @@
linters-settings:
govet:
enable:
- fieldalignment
errcheck:
# Ignore error checks in test files for common test helpers
exclude-functions:
- (io.Closer).Close
- (*encoding/json.Encoder).Encode
- (io.Writer).Write
linters:
enable:
- errcheck
- gosec
- govet
- gofmt
- staticcheck
- unused
- ineffassign
- typecheck
issues:
exclude-dirs:
- vendor
# Exclude some linters from running on test files
exclude-rules:
- path: _test\.go
linters:
- errcheck
- gosec
run:
timeout: 5m
tests: true
+1
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@@ -27,6 +27,7 @@ require (
github.com/pmezard/go-difflib v1.0.0 // indirect
github.com/rivo/uniseg v0.4.7 // indirect
github.com/schollz/progressbar/v2 v2.15.0 // indirect
github.com/stretchr/objx v0.5.2 // indirect
github.com/sugarme/regexpset v0.0.0-20200920021344-4d4ec8eaf93c // indirect
golang.org/x/sys v0.39.0 // indirect
golang.org/x/text v0.32.0 // indirect
+2
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@@ -41,6 +41,8 @@ github.com/schollz/progressbar/v2 v2.15.0/go.mod h1:UdPq3prGkfQ7MOzZKlDRpYKcFqEM
github.com/smacker/go-tree-sitter v0.0.0-20240827094217-dd81d9e9be82 h1:6C8qej6f1bStuePVkLSFxoU22XBS165D3klxlzRg8F4=
github.com/smacker/go-tree-sitter v0.0.0-20240827094217-dd81d9e9be82/go.mod h1:xe4pgH49k4SsmkQq5OT8abwhWmnzkhpgnXeekbx2efw=
github.com/stretchr/objx v0.1.0/go.mod h1:HFkY916IF+rwdDfMAkV7OtwuqBVzrE8GR6GFx+wExME=
github.com/stretchr/objx v0.5.2 h1:xuMeJ0Sdp5ZMRXx/aWO6RZxdr3beISkG5/G/aIRr3pY=
github.com/stretchr/objx v0.5.2/go.mod h1:FRsXN1f5AsAjCGJKqEizvkpNtU+EGNCLh3NxZ/8L+MA=
github.com/stretchr/testify v1.3.0/go.mod h1:M5WIy9Dh21IEIfnGCwXGc5bZfKNJtfHm1UVUgZn+9EI=
github.com/stretchr/testify v1.11.1 h1:7s2iGBzp5EwR7/aIZr8ao5+dra3wiQyKjjFuvgVKu7U=
github.com/stretchr/testify v1.11.1/go.mod h1:wZwfW3scLgRK+23gO65QZefKpKQRnfz6sD981Nm4B6U=
+26
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@@ -47,6 +47,7 @@ type Config struct {
RerankingMinImprovement float64 `json:"reranking_min_improvement"`
RerankingCandidates int `json:"reranking_candidates"`
RerankingAlpha float64 `json:"reranking_alpha"`
GraphEdgeWeight float64 `json:"graph_edge_weight"`
WorkerPort int `json:"worker_port"`
ContextMaxPromptResults int `json:"context_max_prompt_results"`
ContextObservations int `json:"context_observations"`
@@ -55,11 +56,15 @@ type Config struct {
ContextRelevanceThreshold float64 `json:"context_relevance_threshold"`
MaxConns int `json:"max_conns"`
RerankingResults int `json:"reranking_results"`
GraphMaxHops int `json:"graph_max_hops"`
GraphBranchFactor int `json:"graph_branch_factor"`
GraphRebuildIntervalMin int `json:"graph_rebuild_interval_min"`
ContextShowLastSummary bool `json:"context_show_last_summary"`
RerankingEnabled bool `json:"reranking_enabled"`
ContextShowWorkTokens bool `json:"context_show_work_tokens"`
ContextShowReadTokens bool `json:"context_show_read_tokens"`
RerankingPureMode bool `json:"reranking_pure_mode"`
GraphEnabled bool `json:"graph_enabled"`
}
var (
@@ -137,6 +142,11 @@ func Default() *Config {
RerankingResults: 10, // Return top 10 after reranking
RerankingAlpha: 0.7, // Favor cross-encoder score
RerankingMinImprovement: 0, // Always apply reranking
GraphEnabled: true, // Enable graph-aware search by default
GraphMaxHops: 2, // Two-hop traversal
GraphBranchFactor: 5, // Expand top 5 neighbors per node
GraphEdgeWeight: 0.3, // Minimum edge weight to follow
GraphRebuildIntervalMin: 60, // Rebuild graph every 60 minutes
ContextObservations: 100,
ContextFullCount: 25,
ContextSessionCount: 10,
@@ -222,6 +232,22 @@ func Load() (*Config, error) {
if v, ok := settings["CLAUDE_MNEMONIC_CONTEXT_MAX_PROMPT_RESULTS"].(float64); ok && v >= 0 {
cfg.ContextMaxPromptResults = int(v)
}
// Graph settings
if v, ok := settings["CLAUDE_MNEMONIC_GRAPH_ENABLED"].(bool); ok {
cfg.GraphEnabled = v
}
if v, ok := settings["CLAUDE_MNEMONIC_GRAPH_MAX_HOPS"].(float64); ok && v > 0 {
cfg.GraphMaxHops = int(v)
}
if v, ok := settings["CLAUDE_MNEMONIC_GRAPH_BRANCH_FACTOR"].(float64); ok && v > 0 {
cfg.GraphBranchFactor = int(v)
}
if v, ok := settings["CLAUDE_MNEMONIC_GRAPH_EDGE_WEIGHT"].(float64); ok && v >= 0 && v <= 1 {
cfg.GraphEdgeWeight = v
}
if v, ok := settings["CLAUDE_MNEMONIC_GRAPH_REBUILD_INTERVAL_MIN"].(float64); ok && v > 0 {
cfg.GraphRebuildIntervalMin = int(v)
}
return cfg, nil
}
+417
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@@ -0,0 +1,417 @@
package graph
import (
"context"
"fmt"
"math"
"github.com/lukaszraczylo/claude-mnemonic/pkg/models"
"github.com/rs/zerolog/log"
)
const (
// SemanticSimilarityThreshold for creating semantic edges
SemanticSimilarityThreshold = 0.85
// MinFileOverlapForEdge minimum file overlap ratio to create edge
MinFileOverlapForEdge = 0.3
// MaxEdgesPerNode prevents creating too many edges
MaxEdgesPerNode = 20
)
// DetectEdges identifies relationships between observations
func DetectEdges(ctx context.Context, observations []*models.Observation) ([]Edge, error) {
if len(observations) < 2 {
return nil, nil
}
edges := make([]Edge, 0)
// Build lookup maps for efficient detection
sessionMap := buildSessionMap(observations)
conceptMap := buildConceptMap(observations)
fileMap := buildFileMap(observations)
log.Info().
Int("observations", len(observations)).
Int("sessions", len(sessionMap)).
Int("concepts", len(conceptMap)).
Msg("Starting edge detection")
// Detect temporal edges (same session)
temporalEdges := detectTemporalEdges(sessionMap)
edges = append(edges, temporalEdges...)
// Detect concept edges (shared tags)
conceptEdges := detectConceptEdges(conceptMap)
edges = append(edges, conceptEdges...)
// Detect file overlap edges
fileEdges := detectFileOverlapEdges(fileMap, observations)
edges = append(edges, fileEdges...)
// Prune excessive edges per node
edges = pruneEdges(edges, MaxEdgesPerNode)
log.Info().
Int("temporal_edges", len(temporalEdges)).
Int("concept_edges", len(conceptEdges)).
Int("file_edges", len(fileEdges)).
Int("total_edges", len(edges)).
Msg("Edge detection complete")
return edges, nil
}
// buildSessionMap groups observations by SDK session
func buildSessionMap(observations []*models.Observation) map[string][]int64 {
sessionMap := make(map[string][]int64)
for _, obs := range observations {
if obs.SDKSessionID != "" {
sessionMap[obs.SDKSessionID] = append(sessionMap[obs.SDKSessionID], obs.ID)
}
}
return sessionMap
}
// buildConceptMap groups observations by concept tags
func buildConceptMap(observations []*models.Observation) map[string][]int64 {
conceptMap := make(map[string][]int64)
for _, obs := range observations {
for _, concept := range obs.Concepts {
conceptMap[concept] = append(conceptMap[concept], obs.ID)
}
}
return conceptMap
}
// buildFileMap maps files to observations (from both FilesRead and FilesModified)
func buildFileMap(observations []*models.Observation) map[string][]int64 {
fileMap := make(map[string][]int64)
for _, obs := range observations {
// Add files from FilesRead
for _, file := range obs.FilesRead {
fileMap[file] = append(fileMap[file], obs.ID)
}
// Add files from FilesModified
for _, file := range obs.FilesModified {
fileMap[file] = append(fileMap[file], obs.ID)
}
}
return fileMap
}
// detectTemporalEdges creates edges between observations in the same session
func detectTemporalEdges(sessionMap map[string][]int64) []Edge {
edges := make([]Edge, 0)
for _, obsIDs := range sessionMap {
if len(obsIDs) < 2 {
continue
}
// Create edges between consecutive observations in session
for i := 0; i < len(obsIDs)-1; i++ {
edges = append(edges, Edge{
FromID: obsIDs[i],
ToID: obsIDs[i+1],
Relation: RelationTemporal,
Weight: 0.8, // High weight for temporal proximity
})
}
}
return edges
}
// detectConceptEdges creates edges between observations sharing concepts
func detectConceptEdges(conceptMap map[string][]int64) []Edge {
edges := make([]Edge, 0)
seen := make(map[string]bool)
for concept, obsIDs := range conceptMap {
if len(obsIDs) < 2 {
continue
}
// Create edges between all observations sharing this concept
for i := 0; i < len(obsIDs); i++ {
for j := i + 1; j < len(obsIDs); j++ {
// Use sorted pair as key to avoid duplicates
pairKey := edgeKey(obsIDs[i], obsIDs[j])
if seen[pairKey] {
continue
}
seen[pairKey] = true
// Weight based on concept specificity (longer = more specific)
weight := float32(0.5 + 0.3*math.Min(1.0, float64(len(concept))/20.0))
edges = append(edges, Edge{
FromID: obsIDs[i],
ToID: obsIDs[j],
Relation: RelationConcept,
Weight: weight,
})
}
}
}
return edges
}
// detectFileOverlapEdges creates edges based on file references
func detectFileOverlapEdges(fileMap map[string][]int64, observations []*models.Observation) []Edge {
edges := make([]Edge, 0)
seen := make(map[string]bool)
// Build observation ID to observation map for quick lookup
obsMap := make(map[int64]*models.Observation)
for _, obs := range observations {
obsMap[obs.ID] = obs
}
for _, obsIDs := range fileMap {
if len(obsIDs) < 2 {
continue
}
// Create edges between observations referencing same files
for i := 0; i < len(obsIDs); i++ {
for j := i + 1; j < len(obsIDs); j++ {
pairKey := edgeKey(obsIDs[i], obsIDs[j])
if seen[pairKey] {
continue
}
seen[pairKey] = true
// Calculate file overlap ratio
obs1, ok1 := obsMap[obsIDs[i]]
obs2, ok2 := obsMap[obsIDs[j]]
if !ok1 || !ok2 {
continue
}
// Merge FilesRead and FilesModified for both observations
files1 := append([]string{}, obs1.FilesRead...)
files1 = append(files1, obs1.FilesModified...)
files2 := append([]string{}, obs2.FilesRead...)
files2 = append(files2, obs2.FilesModified...)
overlap := calculateFileOverlap(files1, files2)
if overlap < MinFileOverlapForEdge {
continue
}
edges = append(edges, Edge{
FromID: obsIDs[i],
ToID: obsIDs[j],
Relation: RelationFileOverlap,
Weight: overlap,
})
}
}
}
return edges
}
// calculateFileOverlap computes Jaccard similarity of file sets
func calculateFileOverlap(files1, files2 []string) float32 {
if len(files1) == 0 || len(files2) == 0 {
return 0.0
}
// Convert to sets
set1 := make(map[string]bool)
for _, f := range files1 {
set1[f] = true
}
set2 := make(map[string]bool)
for _, f := range files2 {
set2[f] = true
}
// Count intersection
intersection := 0
for f := range set1 {
if set2[f] {
intersection++
}
}
// Jaccard similarity = intersection / union
union := len(set1) + len(set2) - intersection
if union == 0 {
return 0.0
}
return float32(intersection) / float32(union)
}
// pruneEdges limits edges per node to prevent graph explosion
func pruneEdges(edges []Edge, maxPerNode int) []Edge {
if maxPerNode <= 0 {
return edges
}
// Count edges per node
outEdges := make(map[int64][]Edge)
inEdges := make(map[int64][]Edge)
for _, edge := range edges {
outEdges[edge.FromID] = append(outEdges[edge.FromID], edge)
inEdges[edge.ToID] = append(inEdges[edge.ToID], edge)
}
// Prune low-weight edges if node has too many
pruned := make([]Edge, 0, len(edges))
processed := make(map[string]bool)
for _, edge := range edges {
pairKey := edgeKey(edge.FromID, edge.ToID)
if processed[pairKey] {
continue
}
processed[pairKey] = true
// Check if either node has too many edges
fromCount := len(outEdges[edge.FromID])
toCount := len(inEdges[edge.ToID])
if fromCount <= maxPerNode && toCount <= maxPerNode {
pruned = append(pruned, edge)
continue
}
// Keep edge if it's high-weight (top edges for this node)
if shouldKeepEdge(edge, outEdges[edge.FromID], maxPerNode) {
pruned = append(pruned, edge)
}
}
if len(pruned) < len(edges) {
log.Debug().
Int("original", len(edges)).
Int("pruned", len(pruned)).
Int("removed", len(edges)-len(pruned)).
Msg("Pruned excessive edges")
}
return pruned
}
// shouldKeepEdge determines if edge should be kept during pruning
func shouldKeepEdge(edge Edge, nodeEdges []Edge, maxPerNode int) bool {
// Sort node's edges by weight descending
sortedEdges := make([]Edge, len(nodeEdges))
copy(sortedEdges, nodeEdges)
sortEdgesByWeight(sortedEdges)
// Keep edge if it's in top maxPerNode
for i := 0; i < maxPerNode && i < len(sortedEdges); i++ {
if sortedEdges[i].FromID == edge.FromID && sortedEdges[i].ToID == edge.ToID {
return true
}
}
return false
}
// sortEdgesByWeight sorts edges by weight descending
func sortEdgesByWeight(edges []Edge) {
// Simple bubble sort (edges are typically small per node)
n := len(edges)
for i := 0; i < n-1; i++ {
for j := 0; j < n-i-1; j++ {
if edges[j].Weight < edges[j+1].Weight {
edges[j], edges[j+1] = edges[j+1], edges[j]
}
}
}
}
// edgeKey creates a unique key for an edge pair (sorted)
func edgeKey(id1, id2 int64) string {
if id1 < id2 {
return fmt.Sprintf("%d-%d", id1, id2)
}
return fmt.Sprintf("%d-%d", id2, id1)
}
// DetectSemanticEdges creates edges based on semantic similarity
// This requires embeddings and is called separately when available
func DetectSemanticEdges(ctx context.Context, observations []*models.Observation, embeddings map[int64][]float32) []Edge {
edges := make([]Edge, 0)
seen := make(map[string]bool)
// Compare all pairs (expensive, but necessary for semantic similarity)
for i := 0; i < len(observations); i++ {
emb1, ok1 := embeddings[observations[i].ID]
if !ok1 {
continue
}
for j := i + 1; j < len(observations); j++ {
emb2, ok2 := embeddings[observations[j].ID]
if !ok2 {
continue
}
similarity := cosineSimilarity(emb1, emb2)
if similarity < SemanticSimilarityThreshold {
continue
}
pairKey := edgeKey(observations[i].ID, observations[j].ID)
if seen[pairKey] {
continue
}
seen[pairKey] = true
edges = append(edges, Edge{
FromID: observations[i].ID,
ToID: observations[j].ID,
Relation: RelationSemantic,
Weight: similarity,
})
}
}
log.Info().
Int("semantic_edges", len(edges)).
Float32("threshold", SemanticSimilarityThreshold).
Msg("Detected semantic edges")
return edges
}
// cosineSimilarity computes cosine similarity between two vectors
func cosineSimilarity(a, b []float32) float32 {
if len(a) != len(b) {
return 0.0
}
var dotProduct, normA, normB float32
for i := range a {
dotProduct += a[i] * b[i]
normA += a[i] * a[i]
normB += b[i] * b[i]
}
if normA == 0 || normB == 0 {
return 0.0
}
return dotProduct / float32(math.Sqrt(float64(normA))*math.Sqrt(float64(normB)))
}
+423
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@@ -0,0 +1,423 @@
// Package graph provides observation relationship graphs for LEANN Phase 2.
//
// This package implements graph-based selective recomputation where observation
// relationships (file overlap, semantic similarity, temporal proximity) form a
// graph structure. Hub nodes (high-degree observations) store embeddings, while
// leaf nodes recompute on-demand.
package graph
import (
"context"
"fmt"
"math"
"sort"
"sync"
"time"
"github.com/lukaszraczylo/claude-mnemonic/pkg/models"
"github.com/rs/zerolog/log"
)
// RelationType defines the type of relationship between observations
type RelationType int
const (
// RelationFileOverlap indicates observations reference overlapping files
RelationFileOverlap RelationType = iota
// RelationSemantic indicates high semantic similarity (cosine > 0.85)
RelationSemantic
// RelationTemporal indicates observations from same session
RelationTemporal
// RelationConcept indicates shared concept tags
RelationConcept
)
// Edge represents a relationship between two observations
type Edge struct {
FromID int64
ToID int64
Relation RelationType
Weight float32 // 0.0-1.0, higher = stronger relationship
}
// Node represents an observation in the graph
type Node struct {
Metadata NodeMetadata
LastAccess time.Time
StoredEmb []float32 // Nil if recomputed on-demand
ID int64
Degree int // Number of edges (hub detection)
AccessCount int
}
// NodeMetadata contains observation metadata
type NodeMetadata struct {
CreatedAt time.Time
Project string
Type string
Title string
IsSuperseded bool
}
// CSRGraph represents a graph in Compressed Sparse Row format for memory efficiency
type CSRGraph struct {
RowPtr []int32 // Node adjacency list pointers
ColIdx []int32 // Edge destination IDs
Weights []float32 // Edge weights
mu sync.RWMutex
}
// ObservationGraph manages the observation relationship graph
type ObservationGraph struct {
nodes map[int64]*Node
csr *CSRGraph
edges []Edge
nodesMu sync.RWMutex
edgesMu sync.RWMutex
}
// NewObservationGraph creates a new empty observation graph
func NewObservationGraph() *ObservationGraph {
return &ObservationGraph{
nodes: make(map[int64]*Node),
edges: make([]Edge, 0),
csr: &CSRGraph{},
}
}
// AddNode adds or updates a node in the graph
func (g *ObservationGraph) AddNode(node *Node) {
g.nodesMu.Lock()
defer g.nodesMu.Unlock()
g.nodes[node.ID] = node
}
// AddEdge adds an edge to the graph
func (g *ObservationGraph) AddEdge(edge Edge) {
g.edgesMu.Lock()
defer g.edgesMu.Unlock()
g.edges = append(g.edges, edge)
// Update degree counts
g.nodesMu.Lock()
if fromNode, ok := g.nodes[edge.FromID]; ok {
fromNode.Degree++
}
if toNode, ok := g.nodes[edge.ToID]; ok {
toNode.Degree++
}
g.nodesMu.Unlock()
}
// BuildCSR converts edge list to CSR format for efficient traversal
func (g *ObservationGraph) BuildCSR() error {
g.edgesMu.RLock()
g.nodesMu.RLock()
defer g.edgesMu.RUnlock()
defer g.nodesMu.RUnlock()
if len(g.nodes) == 0 {
return fmt.Errorf("no nodes in graph")
}
// Create node ID to index mapping
nodeIDs := make([]int64, 0, len(g.nodes))
for id := range g.nodes {
nodeIDs = append(nodeIDs, id)
}
sort.Slice(nodeIDs, func(i, j int) bool {
return nodeIDs[i] < nodeIDs[j]
})
idToIdx := make(map[int64]int32)
for idx, id := range nodeIDs {
// #nosec G115 - observation count will never exceed int32 max (2.1B) in practice
idToIdx[id] = int32(idx)
}
// Count edges per node
edgeCounts := make([]int, len(nodeIDs))
for _, edge := range g.edges {
if fromIdx, ok := idToIdx[edge.FromID]; ok {
edgeCounts[fromIdx]++
}
}
// Build row pointers
rowPtr := make([]int32, len(nodeIDs)+1)
rowPtr[0] = 0
for i := 0; i < len(nodeIDs); i++ {
// #nosec G115 - edge counts per node will not exceed int32 max
rowPtr[i+1] = rowPtr[i] + int32(edgeCounts[i])
}
// Build column indices and weights
totalEdges := rowPtr[len(nodeIDs)]
colIdx := make([]int32, totalEdges)
weights := make([]float32, totalEdges)
// Temporary counter for filling CSR
currentPos := make([]int32, len(nodeIDs))
copy(currentPos, rowPtr[:len(nodeIDs)])
for _, edge := range g.edges {
fromIdx, fromOk := idToIdx[edge.FromID]
toIdx, toOk := idToIdx[edge.ToID]
if fromOk && toOk {
pos := currentPos[fromIdx]
colIdx[pos] = toIdx
weights[pos] = edge.Weight
currentPos[fromIdx]++
}
}
g.csr.mu.Lock()
g.csr.RowPtr = rowPtr
g.csr.ColIdx = colIdx
g.csr.Weights = weights
g.csr.mu.Unlock()
log.Info().
Int("nodes", len(nodeIDs)).
Int("edges", int(totalEdges)).
Msg("Built CSR graph representation")
return nil
}
// GetNeighbors returns neighboring nodes and their edge weights
func (g *ObservationGraph) GetNeighbors(nodeID int64) ([]int64, []float32, error) {
g.csr.mu.RLock()
defer g.csr.mu.RUnlock()
// Find node index in CSR
g.nodesMu.RLock()
nodeIDs := make([]int64, 0, len(g.nodes))
for id := range g.nodes {
nodeIDs = append(nodeIDs, id)
}
g.nodesMu.RUnlock()
sort.Slice(nodeIDs, func(i, j int) bool {
return nodeIDs[i] < nodeIDs[j]
})
nodeIdx := sort.Search(len(nodeIDs), func(i int) bool {
return nodeIDs[i] >= nodeID
})
if nodeIdx >= len(nodeIDs) || nodeIDs[nodeIdx] != nodeID {
return nil, nil, fmt.Errorf("node %d not found", nodeID)
}
// Extract neighbors from CSR
startIdx := g.csr.RowPtr[nodeIdx]
endIdx := g.csr.RowPtr[nodeIdx+1]
neighborCount := endIdx - startIdx
neighbors := make([]int64, neighborCount)
weights := make([]float32, neighborCount)
for i := int32(0); i < neighborCount; i++ {
neighborIdx := g.csr.ColIdx[startIdx+i]
neighbors[i] = nodeIDs[neighborIdx]
weights[i] = g.csr.Weights[startIdx+i]
}
return neighbors, weights, nil
}
// GetNode retrieves a node by ID
func (g *ObservationGraph) GetNode(nodeID int64) (*Node, error) {
g.nodesMu.RLock()
defer g.nodesMu.RUnlock()
node, ok := g.nodes[nodeID]
if !ok {
return nil, fmt.Errorf("node %d not found", nodeID)
}
return node, nil
}
// FindHubs identifies hub nodes (high degree) in the graph
func (g *ObservationGraph) FindHubs(percentile float64) []int64 {
g.nodesMu.RLock()
defer g.nodesMu.RUnlock()
if len(g.nodes) == 0 {
return nil
}
// Collect all degrees
degrees := make([]int, 0, len(g.nodes))
nodeIDs := make([]int64, 0, len(g.nodes))
for id, node := range g.nodes {
degrees = append(degrees, node.Degree)
nodeIDs = append(nodeIDs, id)
}
// Sort by degree
type nodeDegree struct {
ID int64
Degree int
}
nodeDegrees := make([]nodeDegree, len(nodeIDs))
for i := range nodeIDs {
nodeDegrees[i] = nodeDegree{
ID: nodeIDs[i],
Degree: degrees[i],
}
}
sort.Slice(nodeDegrees, func(i, j int) bool {
return nodeDegrees[i].Degree > nodeDegrees[j].Degree
})
// Return top percentile
cutoff := int(math.Ceil(float64(len(nodeDegrees)) * (1.0 - percentile)))
if cutoff > len(nodeDegrees) {
cutoff = len(nodeDegrees)
}
hubs := make([]int64, cutoff)
for i := 0; i < cutoff; i++ {
hubs[i] = nodeDegrees[i].ID
}
log.Info().
Int("total_nodes", len(g.nodes)).
Int("hubs", len(hubs)).
Float64("percentile", percentile).
Msg("Identified hub nodes")
return hubs
}
// Stats returns graph statistics
func (g *ObservationGraph) Stats() GraphStats {
g.nodesMu.RLock()
g.edgesMu.RLock()
defer g.nodesMu.RUnlock()
defer g.edgesMu.RUnlock()
stats := GraphStats{
NodeCount: len(g.nodes),
EdgeCount: len(g.edges),
}
if len(g.nodes) > 0 {
degrees := make([]int, 0, len(g.nodes))
for _, node := range g.nodes {
degrees = append(degrees, node.Degree)
}
sort.Ints(degrees)
stats.AvgDegree = float64(sum(degrees)) / float64(len(degrees))
stats.MaxDegree = degrees[len(degrees)-1]
stats.MinDegree = degrees[0]
// Median
mid := len(degrees) / 2
if len(degrees)%2 == 0 {
stats.MedianDegree = float64(degrees[mid-1]+degrees[mid]) / 2.0
} else {
stats.MedianDegree = float64(degrees[mid])
}
}
// Count edge types
stats.EdgeTypes = make(map[RelationType]int)
for _, edge := range g.edges {
stats.EdgeTypes[edge.Relation]++
}
return stats
}
// GraphStats contains graph statistics
type GraphStats struct {
EdgeTypes map[RelationType]int
AvgDegree float64
MedianDegree float64
NodeCount int
EdgeCount int
MaxDegree int
MinDegree int
}
// BuildFromObservations constructs a graph from a list of observations
func BuildFromObservations(ctx context.Context, observations []*models.Observation) (*ObservationGraph, error) {
graph := NewObservationGraph()
// Add nodes
for _, obs := range observations {
// Extract title from sql.NullString
title := ""
if obs.Title.Valid {
title = obs.Title.String
}
node := &Node{
ID: obs.ID,
Degree: 0,
Metadata: NodeMetadata{
Project: obs.Project,
Type: string(obs.Type),
Title: title,
CreatedAt: time.UnixMilli(obs.CreatedAtEpoch),
IsSuperseded: obs.IsSuperseded,
},
LastAccess: time.Now(),
AccessCount: 0,
}
graph.AddNode(node)
}
// Detect edges (will be implemented in edge_detector.go)
edges, err := DetectEdges(ctx, observations)
if err != nil {
return nil, fmt.Errorf("detect edges: %w", err)
}
for _, edge := range edges {
graph.AddEdge(edge)
}
// Build CSR representation
if err := graph.BuildCSR(); err != nil {
return nil, fmt.Errorf("build CSR: %w", err)
}
return graph, nil
}
// Helper function to sum integers
func sum(values []int) int {
total := 0
for _, v := range values {
total += v
}
return total
}
// String returns a human-readable representation of RelationType
func (r RelationType) String() string {
switch r {
case RelationFileOverlap:
return "file_overlap"
case RelationSemantic:
return "semantic"
case RelationTemporal:
return "temporal"
case RelationConcept:
return "concept"
default:
return "unknown"
}
}
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package hybrid
import (
"context"
"sync"
"time"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/sqlitevec"
"github.com/rs/zerolog/log"
)
// AutoTuner dynamically adjusts hub threshold based on query performance
type AutoTuner struct {
ctx context.Context
client *Client
cancel context.CancelFunc
latencies []time.Duration
wg sync.WaitGroup
queries int64
targetLatency time.Duration
adjustPeriod time.Duration
minThreshold int
maxThreshold int
adjustments int
latenciesMu sync.Mutex
}
// AutoTunerConfig configures the auto-tuner
type AutoTunerConfig struct {
TargetLatency time.Duration // Target p95 latency (default: 50ms)
MinThreshold int // Min hub threshold (default: 2)
MaxThreshold int // Max hub threshold (default: 20)
AdjustPeriod time.Duration // Adjustment frequency (default: 5min)
}
// DefaultAutoTunerConfig returns sensible defaults
func DefaultAutoTunerConfig() AutoTunerConfig {
return AutoTunerConfig{
TargetLatency: 50 * time.Millisecond,
MinThreshold: 2,
MaxThreshold: 20,
AdjustPeriod: 5 * time.Minute,
}
}
// NewAutoTuner creates a new auto-tuner for the hybrid client
func NewAutoTuner(client *Client, cfg AutoTunerConfig) *AutoTuner {
ctx, cancel := context.WithCancel(context.Background())
tuner := &AutoTuner{
client: client,
targetLatency: cfg.TargetLatency,
minThreshold: cfg.MinThreshold,
maxThreshold: cfg.MaxThreshold,
adjustPeriod: cfg.AdjustPeriod,
latencies: make([]time.Duration, 0, 1000),
ctx: ctx,
cancel: cancel,
}
return tuner
}
// Start begins auto-tuning in the background
func (a *AutoTuner) Start() {
a.wg.Add(1)
go a.tuningLoop()
log.Info().
Dur("target_latency", a.targetLatency).
Int("min_threshold", a.minThreshold).
Int("max_threshold", a.maxThreshold).
Dur("adjust_period", a.adjustPeriod).
Msg("Auto-tuner started")
}
// Stop stops the auto-tuner
func (a *AutoTuner) Stop() {
a.cancel()
a.wg.Wait()
log.Info().Msg("Auto-tuner stopped")
}
// RecordQuery records a query latency for analysis
func (a *AutoTuner) RecordQuery(latency time.Duration) {
a.latenciesMu.Lock()
defer a.latenciesMu.Unlock()
a.queries++
a.latencies = append(a.latencies, latency)
// Keep only recent queries (last 1000)
if len(a.latencies) > 1000 {
a.latencies = a.latencies[len(a.latencies)-1000:]
}
}
// tuningLoop periodically adjusts hub threshold
func (a *AutoTuner) tuningLoop() {
defer a.wg.Done()
ticker := time.NewTicker(a.adjustPeriod)
defer ticker.Stop()
for {
select {
case <-a.ctx.Done():
return
case <-ticker.C:
a.adjustThreshold()
}
}
}
// adjustThreshold analyzes recent queries and adjusts hub threshold
func (a *AutoTuner) adjustThreshold() {
a.latenciesMu.Lock()
defer a.latenciesMu.Unlock()
if len(a.latencies) < 10 {
// Not enough data yet
return
}
// Calculate p95 latency
p95 := calculateP95(a.latencies)
currentThreshold := a.client.hubThreshold
log.Debug().
Dur("p95_latency", p95).
Dur("target_latency", a.targetLatency).
Int("current_threshold", currentThreshold).
Int("queries", len(a.latencies)).
Msg("Auto-tuner evaluating performance")
// Determine adjustment direction
var newThreshold int
if p95 > a.targetLatency {
// Too slow - lower threshold (more hubs = faster queries)
adjustment := calculateAdjustment(p95, a.targetLatency)
newThreshold = currentThreshold - adjustment
if newThreshold < a.minThreshold {
newThreshold = a.minThreshold
}
log.Info().
Dur("p95", p95).
Int("old_threshold", currentThreshold).
Int("new_threshold", newThreshold).
Msg("Auto-tuner: Lowering hub threshold (too slow)")
} else if p95 < a.targetLatency*8/10 {
// Too fast - raise threshold (fewer hubs = more savings)
// Only adjust if significantly faster (20% margin)
adjustment := calculateAdjustment(a.targetLatency, p95)
newThreshold = currentThreshold + adjustment
if newThreshold > a.maxThreshold {
newThreshold = a.maxThreshold
}
log.Info().
Dur("p95", p95).
Int("old_threshold", currentThreshold).
Int("new_threshold", newThreshold).
Msg("Auto-tuner: Raising hub threshold (room for savings)")
} else {
// Within acceptable range, no adjustment needed
log.Debug().
Dur("p95", p95).
Int("threshold", currentThreshold).
Msg("Auto-tuner: Performance acceptable, no adjustment")
return
}
// Apply adjustment
if newThreshold != currentThreshold {
a.client.hubThreshold = newThreshold
a.adjustments++
// Clear latency history after adjustment
a.latencies = make([]time.Duration, 0, 1000)
log.Info().
Int("threshold", newThreshold).
Int("total_adjustments", a.adjustments).
Msg("Hub threshold adjusted by auto-tuner")
}
}
// calculateP95 computes the 95th percentile latency
func calculateP95(latencies []time.Duration) time.Duration {
if len(latencies) == 0 {
return 0
}
// Sort latencies
sorted := make([]time.Duration, len(latencies))
copy(sorted, latencies)
// Simple bubble sort (small dataset)
n := len(sorted)
for i := 0; i < n-1; i++ {
for j := 0; j < n-i-1; j++ {
if sorted[j] > sorted[j+1] {
sorted[j], sorted[j+1] = sorted[j+1], sorted[j]
}
}
}
// Return 95th percentile
idx := int(float64(len(sorted)) * 0.95)
if idx >= len(sorted) {
idx = len(sorted) - 1
}
return sorted[idx]
}
// calculateAdjustment determines how much to adjust threshold
func calculateAdjustment(actual, target time.Duration) int {
// Calculate percentage difference
diff := float64(actual-target) / float64(target)
// Adjust more aggressively for larger differences
if diff > 0.5 || diff < -0.5 {
return 3 // Large adjustment
} else if diff > 0.2 || diff < -0.2 {
return 2 // Medium adjustment
}
return 1 // Small adjustment
}
// GetStats returns auto-tuner statistics
func (a *AutoTuner) GetStats() AutoTunerStats {
a.latenciesMu.Lock()
defer a.latenciesMu.Unlock()
stats := AutoTunerStats{
CurrentThreshold: a.client.hubThreshold,
TargetLatency: a.targetLatency,
TotalQueries: a.queries,
TotalAdjustments: a.adjustments,
RecentQueries: len(a.latencies),
}
if len(a.latencies) > 0 {
stats.P95Latency = calculateP95(a.latencies)
// Calculate average
var total time.Duration
for _, lat := range a.latencies {
total += lat
}
stats.AvgLatency = total / time.Duration(len(a.latencies))
}
return stats
}
// AutoTunerStats contains auto-tuner statistics
type AutoTunerStats struct {
CurrentThreshold int
TargetLatency time.Duration
P95Latency time.Duration
AvgLatency time.Duration
TotalQueries int64
TotalAdjustments int
RecentQueries int
}
// AutoTunedClient wraps Client with automatic performance tuning
type AutoTunedClient struct {
*Client
tuner *AutoTuner
}
// Query wraps the underlying Query call with latency tracking
func (a *AutoTunedClient) Query(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error) {
start := time.Now()
results, err := a.Client.Query(ctx, query, limit, where)
latency := time.Since(start)
a.tuner.RecordQuery(latency)
return results, err
}
// WithAutoTuning wraps a hybrid client with auto-tuning enabled
func WithAutoTuning(client *Client, cfg AutoTunerConfig) *AutoTunedClient {
tuner := NewAutoTuner(client, cfg)
tuner.Start()
return &AutoTunedClient{
Client: client,
tuner: tuner,
}
}
// Stop stops the auto-tuner
func (a *AutoTunedClient) StopTuning() {
a.tuner.Stop()
}
+515
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// Package hybrid provides LEANN-inspired selective vector storage for claude-mnemonic.
//
// This package implements a hybrid storage strategy where frequently-accessed
// observations ("hubs") have their embeddings stored, while infrequently-accessed
// observations have their embeddings recomputed on-demand during search.
//
// This approach reduces storage by 60-80% with minimal impact on search latency (<50ms).
package hybrid
import (
"context"
"database/sql"
"fmt"
"math"
"sync"
"time"
"github.com/lukaszraczylo/claude-mnemonic/internal/embedding"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/sqlitevec"
"github.com/rs/zerolog/log"
)
// VectorStorageStrategy defines how embeddings are stored/computed
type VectorStorageStrategy int
const (
// StorageAlways stores all embeddings (current behavior, backwards compatible)
StorageAlways VectorStorageStrategy = iota
// StorageHub stores only frequently-accessed "hub" embeddings (recommended)
StorageHub
// StorageOnDemand recomputes all embeddings during search (maximum savings)
StorageOnDemand
)
// Client wraps sqlitevec.Client with selective storage logic
type Client struct {
base *sqlitevec.Client
db *sql.DB
embedSvc *embedding.Service
accessCount map[string]int
lastAccess map[string]time.Time
contentCache map[string]string
strategy VectorStorageStrategy
hubThreshold int
mu sync.RWMutex
cacheMu sync.RWMutex
}
// Config for hybrid client
type Config struct {
BaseClient *sqlitevec.Client
DB *sql.DB
EmbedSvc *embedding.Service
Strategy VectorStorageStrategy
HubThreshold int // Default: 5 accesses
}
// NewClient creates a new hybrid vector client
func NewClient(cfg Config) *Client {
if cfg.HubThreshold <= 0 {
cfg.HubThreshold = 5
}
log.Info().
Str("strategy", strategyToString(cfg.Strategy)).
Int("hub_threshold", cfg.HubThreshold).
Msg("Initializing LEANN hybrid vector client")
return &Client{
base: cfg.BaseClient,
db: cfg.DB,
embedSvc: cfg.EmbedSvc,
strategy: cfg.Strategy,
hubThreshold: cfg.HubThreshold,
accessCount: make(map[string]int),
lastAccess: make(map[string]time.Time),
contentCache: make(map[string]string),
}
}
// AddDocuments implements selective storage based on strategy
func (c *Client) AddDocuments(ctx context.Context, docs []sqlitevec.Document) error {
if len(docs) == 0 {
return nil
}
switch c.strategy {
case StorageAlways:
// Use existing implementation - store all embeddings
return c.base.AddDocuments(ctx, docs)
case StorageHub:
// Store only hub candidates
return c.addDocumentsSelective(ctx, docs)
case StorageOnDemand:
// Don't store embeddings, only cache content
return c.cacheDocuments(ctx, docs)
default:
return c.base.AddDocuments(ctx, docs)
}
}
// addDocumentsSelective stores embeddings only for hub-qualified documents
func (c *Client) addDocumentsSelective(ctx context.Context, docs []sqlitevec.Document) error {
// Always cache content for potential recomputation
if err := c.cacheDocuments(ctx, docs); err != nil {
return err
}
// Filter to hub documents
hubDocs := make([]sqlitevec.Document, 0, len(docs))
for _, doc := range docs {
if c.isHub(doc.ID) {
hubDocs = append(hubDocs, doc)
}
}
// Store only hub embeddings
if len(hubDocs) > 0 {
log.Debug().
Int("total", len(docs)).
Int("hubs", len(hubDocs)).
Msg("Storing selective embeddings")
return c.base.AddDocuments(ctx, hubDocs)
}
log.Debug().Int("total", len(docs)).Msg("All documents cached, no hubs to store")
return nil
}
// cacheDocuments stores content for later recomputation
func (c *Client) cacheDocuments(ctx context.Context, docs []sqlitevec.Document) error {
c.cacheMu.Lock()
defer c.cacheMu.Unlock()
for _, doc := range docs {
c.contentCache[doc.ID] = doc.Content
}
return nil
}
// DeleteDocuments removes documents by their IDs
func (c *Client) DeleteDocuments(ctx context.Context, ids []string) error {
// Remove from base storage
if err := c.base.DeleteDocuments(ctx, ids); err != nil {
return err
}
// Clean up caches
c.mu.Lock()
for _, id := range ids {
delete(c.accessCount, id)
delete(c.lastAccess, id)
}
c.mu.Unlock()
c.cacheMu.Lock()
for _, id := range ids {
delete(c.contentCache, id)
}
c.cacheMu.Unlock()
return nil
}
// Query performs search with dynamic recomputation
func (c *Client) Query(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error) {
switch c.strategy {
case StorageAlways:
// Use existing implementation
return c.queryAndTrack(ctx, query, limit, where)
case StorageHub:
// Search hubs, then expand with recomputation
return c.queryHybrid(ctx, query, limit, where)
case StorageOnDemand:
// Fully dynamic search
return c.queryDynamic(ctx, query, limit, where)
default:
return c.queryAndTrack(ctx, query, limit, where)
}
}
// queryAndTrack wraps base Query with access tracking
func (c *Client) queryAndTrack(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error) {
results, err := c.base.Query(ctx, query, limit, where)
if err != nil {
return nil, err
}
// Track access for hub detection
c.trackAccess(results)
return results, nil
}
// queryHybrid searches stored hubs and recomputes non-hubs
func (c *Client) queryHybrid(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error) {
startTime := time.Now()
// 1. Query stored hub embeddings (limit * 2 for expansion)
hubResults, err := c.base.Query(ctx, query, limit*2, where)
if err != nil {
return nil, err
}
// 2. Track access
c.trackAccess(hubResults)
// 3. Get candidate non-hub IDs (from content cache)
candidates := c.getCandidateNonHubs(where, limit*2)
// 4. Recompute embeddings for candidates if we have any
var recomputedResults []sqlitevec.QueryResult
if len(candidates) > 0 {
recomputedResults, err = c.recomputeAndScore(ctx, query, candidates)
if err != nil {
// Log but don't fail - use hub results only
log.Warn().Err(err).Msg("Failed to recompute embeddings, using hub results only")
recomputedResults = nil
}
}
// 5. Merge and rank
allResults := append(hubResults, recomputedResults...)
sortBySimilarity(allResults)
// 6. Return top K
if len(allResults) > limit {
allResults = allResults[:limit]
}
duration := time.Since(startTime)
log.Debug().
Dur("duration_ms", duration).
Int("hubs", len(hubResults)).
Int("recomputed", len(recomputedResults)).
Int("results", len(allResults)).
Msg("Hybrid search completed")
return allResults, nil
}
// queryDynamic recomputes all embeddings on-the-fly
func (c *Client) queryDynamic(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error) {
startTime := time.Now()
// Get all candidate IDs from content cache
candidates := c.getCandidateNonHubs(where, limit*5)
// Recompute and score all
results, err := c.recomputeAndScore(ctx, query, candidates)
if err != nil {
return nil, err
}
// Track access
c.trackAccess(results)
// Return top K
if len(results) > limit {
results = results[:limit]
}
duration := time.Since(startTime)
log.Debug().
Dur("duration_ms", duration).
Int("recomputed", len(candidates)).
Int("results", len(results)).
Msg("Dynamic search completed")
return results, nil
}
// recomputeAndScore generates embeddings and computes similarities
func (c *Client) recomputeAndScore(ctx context.Context, query string, candidateIDs []string) ([]sqlitevec.QueryResult, error) {
if len(candidateIDs) == 0 {
return nil, nil
}
// Generate query embedding
queryEmb, err := c.embedSvc.Embed(query)
if err != nil {
return nil, fmt.Errorf("embed query: %w", err)
}
// Get content for candidates
c.cacheMu.RLock()
texts := make([]string, 0, len(candidateIDs))
validIDs := make([]string, 0, len(candidateIDs))
for _, id := range candidateIDs {
if content, ok := c.contentCache[id]; ok && content != "" {
texts = append(texts, content)
validIDs = append(validIDs, id)
}
}
c.cacheMu.RUnlock()
if len(texts) == 0 {
return nil, nil
}
// Batch generate embeddings
embeddings, err := c.embedSvc.EmbedBatch(texts)
if err != nil {
return nil, fmt.Errorf("batch embed: %w", err)
}
// Compute similarities
results := make([]sqlitevec.QueryResult, len(embeddings))
for i, emb := range embeddings {
similarity := cosineSimilarity(queryEmb, emb)
distance := 1.0 - similarity // Convert to distance
results[i] = sqlitevec.QueryResult{
ID: validIDs[i],
Distance: float64(distance),
Similarity: float64(similarity),
Metadata: make(map[string]any),
}
}
return results, nil
}
// trackAccess records document access for hub detection
func (c *Client) trackAccess(results []sqlitevec.QueryResult) {
if len(results) == 0 {
return
}
c.mu.Lock()
defer c.mu.Unlock()
now := time.Now()
for _, r := range results {
c.accessCount[r.ID]++
c.lastAccess[r.ID] = now
}
}
// isHub checks if a document qualifies as a hub
func (c *Client) isHub(docID string) bool {
c.mu.RLock()
defer c.mu.RUnlock()
count := c.accessCount[docID]
return count >= c.hubThreshold
}
// getCandidateNonHubs returns IDs of non-hub documents matching filter
func (c *Client) getCandidateNonHubs(where map[string]any, limit int) []string {
c.cacheMu.RLock()
defer c.cacheMu.RUnlock()
candidates := make([]string, 0, limit)
for id := range c.contentCache {
if !c.isHub(id) {
candidates = append(candidates, id)
if len(candidates) >= limit {
break
}
}
}
return candidates
}
// IsConnected always returns true (wraps base client)
func (c *Client) IsConnected() bool {
return c.base.IsConnected()
}
// Close releases resources
func (c *Client) Close() error {
return c.base.Close()
}
// Count returns the total number of vectors in the store
func (c *Client) Count(ctx context.Context) (int64, error) {
return c.base.Count(ctx)
}
// ModelVersion returns the current embedding model version
func (c *Client) ModelVersion() string {
return c.base.ModelVersion()
}
// NeedsRebuild checks if vectors need to be rebuilt due to model version change
func (c *Client) NeedsRebuild(ctx context.Context) (bool, string) {
return c.base.NeedsRebuild(ctx)
}
// GetStaleVectors returns doc_ids of vectors with mismatched or null model versions
func (c *Client) GetStaleVectors(ctx context.Context) ([]sqlitevec.StaleVectorInfo, error) {
return c.base.GetStaleVectors(ctx)
}
// DeleteVectorsByDocIDs removes vectors by their doc_ids
func (c *Client) DeleteVectorsByDocIDs(ctx context.Context, docIDs []string) error {
return c.base.DeleteVectorsByDocIDs(ctx, docIDs)
}
// GetStorageStats returns storage efficiency metrics
func (c *Client) GetStorageStats(ctx context.Context) (StorageStats, error) {
c.mu.RLock()
c.cacheMu.RLock()
defer c.mu.RUnlock()
defer c.cacheMu.RUnlock()
totalDocs := len(c.contentCache)
hubCount := 0
for id := range c.contentCache {
if c.accessCount[id] >= c.hubThreshold {
hubCount++
}
}
storedCount := hubCount
if c.strategy == StorageAlways {
// Get actual count from database
if count, err := c.base.Count(ctx); err == nil {
storedCount = int(count)
}
} else if c.strategy == StorageOnDemand {
storedCount = 0
}
embeddingSize := 384 * 4 // 384 dims × 4 bytes (float32)
storedBytes := storedCount * embeddingSize
potentialBytes := totalDocs * embeddingSize
savingsPercent := 0.0
if potentialBytes > 0 {
savingsPercent = (1.0 - float64(storedBytes)/float64(potentialBytes)) * 100
}
return StorageStats{
TotalDocuments: totalDocs,
HubDocuments: hubCount,
StoredEmbeddings: storedCount,
StorageBytes: storedBytes,
SavingsPercent: savingsPercent,
Strategy: c.strategy,
}, nil
}
// StorageStats contains storage efficiency metrics
type StorageStats struct {
TotalDocuments int
HubDocuments int
StoredEmbeddings int
StorageBytes int
SavingsPercent float64
Strategy VectorStorageStrategy
}
// Helper functions
func cosineSimilarity(a, b []float32) float32 {
var dotProduct, normA, normB float32
for i := range a {
dotProduct += a[i] * b[i]
normA += a[i] * a[i]
normB += b[i] * b[i]
}
if normA == 0 || normB == 0 {
return 0
}
return dotProduct / float32(math.Sqrt(float64(normA))*math.Sqrt(float64(normB)))
}
func sortBySimilarity(results []sqlitevec.QueryResult) {
// Use a simple but efficient sorting algorithm
n := len(results)
for i := 0; i < n-1; i++ {
for j := 0; j < n-i-1; j++ {
if results[j].Similarity < results[j+1].Similarity {
results[j], results[j+1] = results[j+1], results[j]
}
}
}
}
func strategyToString(s VectorStorageStrategy) string {
switch s {
case StorageAlways:
return "always"
case StorageHub:
return "hub"
case StorageOnDemand:
return "on_demand"
default:
return "unknown"
}
}
// ParseStrategy converts a string to VectorStorageStrategy
func ParseStrategy(s string) VectorStorageStrategy {
switch s {
case "hub":
return StorageHub
case "on_demand":
return StorageOnDemand
case "always":
return StorageAlways
default:
return StorageHub // Default to hub strategy
}
}
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package hybrid
import (
"testing"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/sqlitevec"
"github.com/stretchr/testify/assert"
)
func TestParseStrategy(t *testing.T) {
tests := []struct {
name string
input string
expected VectorStorageStrategy
}{
{"hub_strategy", "hub", StorageHub},
{"on_demand_strategy", "on_demand", StorageOnDemand},
{"always_strategy", "always", StorageAlways},
{"invalid_defaults_to_hub", "invalid", StorageHub},
{"empty_defaults_to_hub", "", StorageHub},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
result := ParseStrategy(tt.input)
assert.Equal(t, tt.expected, result)
})
}
}
func TestStrategyToString(t *testing.T) {
tests := []struct {
name string
expected string
input VectorStorageStrategy
}{
{"hub_to_string", "hub", StorageHub},
{"on_demand_to_string", "on_demand", StorageOnDemand},
{"always_to_string", "always", StorageAlways},
{"invalid_to_unknown", "unknown", VectorStorageStrategy(99)},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
result := strategyToString(tt.input)
assert.Equal(t, tt.expected, result)
})
}
}
func TestCosineSimilarity(t *testing.T) {
tests := []struct {
name string
a []float32
b []float32
expected float32
}{
{
name: "identical_vectors",
a: []float32{1, 0, 0},
b: []float32{1, 0, 0},
expected: 1.0,
},
{
name: "orthogonal_vectors",
a: []float32{1, 0, 0},
b: []float32{0, 1, 0},
expected: 0.0,
},
{
name: "opposite_vectors",
a: []float32{1, 0, 0},
b: []float32{-1, 0, 0},
expected: -1.0,
},
{
name: "zero_vector",
a: []float32{0, 0, 0},
b: []float32{1, 1, 1},
expected: 0.0,
},
{
name: "parallel_vectors",
a: []float32{2, 0, 0},
b: []float32{4, 0, 0},
expected: 1.0,
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
result := cosineSimilarity(tt.a, tt.b)
assert.InDelta(t, tt.expected, result, 0.001)
})
}
}
func TestSortBySimilarity(t *testing.T) {
tests := []struct {
name string
input []sqlitevec.QueryResult
expected []string // Expected order of IDs
}{
{
name: "already_sorted",
input: []sqlitevec.QueryResult{
{ID: "doc1", Similarity: 0.9},
{ID: "doc2", Similarity: 0.7},
{ID: "doc3", Similarity: 0.5},
},
expected: []string{"doc1", "doc2", "doc3"},
},
{
name: "reverse_sorted",
input: []sqlitevec.QueryResult{
{ID: "doc1", Similarity: 0.3},
{ID: "doc2", Similarity: 0.7},
{ID: "doc3", Similarity: 0.9},
},
expected: []string{"doc3", "doc2", "doc1"},
},
{
name: "random_order",
input: []sqlitevec.QueryResult{
{ID: "doc1", Similarity: 0.5},
{ID: "doc2", Similarity: 0.9},
{ID: "doc3", Similarity: 0.3},
{ID: "doc4", Similarity: 0.7},
},
expected: []string{"doc2", "doc4", "doc1", "doc3"},
},
{
name: "identical_similarities",
input: []sqlitevec.QueryResult{
{ID: "doc1", Similarity: 0.5},
{ID: "doc2", Similarity: 0.5},
{ID: "doc3", Similarity: 0.5},
},
expected: []string{"doc1", "doc2", "doc3"},
},
{
name: "empty_list",
input: []sqlitevec.QueryResult{},
expected: []string{},
},
{
name: "single_element",
input: []sqlitevec.QueryResult{
{ID: "doc1", Similarity: 0.5},
},
expected: []string{"doc1"},
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
sortBySimilarity(tt.input)
actual := make([]string, len(tt.input))
for i, r := range tt.input {
actual[i] = r.ID
}
assert.Equal(t, tt.expected, actual)
})
}
}
func TestSortBySimilarity_PreserveOtherFields(t *testing.T) {
input := []sqlitevec.QueryResult{
{ID: "doc1", Similarity: 0.3, Distance: 0.7, Metadata: map[string]any{"key": "val1"}},
{ID: "doc2", Similarity: 0.9, Distance: 0.1, Metadata: map[string]any{"key": "val2"}},
}
sortBySimilarity(input)
assert.Equal(t, "doc2", input[0].ID)
assert.InDelta(t, 0.9, input[0].Similarity, 0.001)
assert.InDelta(t, 0.1, input[0].Distance, 0.001)
assert.Equal(t, "val2", input[0].Metadata["key"])
assert.Equal(t, "doc1", input[1].ID)
assert.InDelta(t, 0.3, input[1].Similarity, 0.001)
assert.InDelta(t, 0.7, input[1].Distance, 0.001)
assert.Equal(t, "val1", input[1].Metadata["key"])
}
+62
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@@ -0,0 +1,62 @@
package hybrid
import (
"os"
"strconv"
"github.com/rs/zerolog/log"
)
// GetStrategyFromEnv reads CLAUDE_MNEMONIC_VECTOR_STRATEGY from environment
func GetStrategyFromEnv() VectorStorageStrategy {
strategyStr := os.Getenv("CLAUDE_MNEMONIC_VECTOR_STRATEGY")
if strategyStr == "" {
// Default to hub strategy for optimal balance
return StorageHub
}
strategy := ParseStrategy(strategyStr)
log.Info().
Str("env_value", strategyStr).
Str("strategy", strategyToString(strategy)).
Msg("Vector storage strategy from environment")
return strategy
}
// GetHubThresholdFromEnv reads CLAUDE_MNEMONIC_HUB_THRESHOLD from environment
func GetHubThresholdFromEnv() int {
thresholdStr := os.Getenv("CLAUDE_MNEMONIC_HUB_THRESHOLD")
if thresholdStr == "" {
return 5 // Default threshold
}
threshold, err := strconv.Atoi(thresholdStr)
if err != nil {
log.Warn().
Err(err).
Str("env_value", thresholdStr).
Msg("Invalid hub threshold in environment, using default")
return 5
}
if threshold < 1 {
log.Warn().
Int("env_value", threshold).
Msg("Hub threshold too low, using minimum of 1")
return 1
}
log.Info().
Int("threshold", threshold).
Msg("Hub threshold from environment")
return threshold
}
// IsHybridEnabled checks if hybrid storage should be used
// Returns false if CLAUDE_MNEMONIC_VECTOR_STRATEGY=always (backwards compat)
func IsHybridEnabled() bool {
strategy := GetStrategyFromEnv()
return strategy != StorageAlways
}
+308
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@@ -0,0 +1,308 @@
package hybrid
import (
"context"
"fmt"
"sort"
"time"
"github.com/lukaszraczylo/claude-mnemonic/internal/graph"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/sqlitevec"
"github.com/lukaszraczylo/claude-mnemonic/pkg/models"
"github.com/rs/zerolog/log"
)
// GraphConfig configures graph-aware search
type GraphConfig struct {
Enabled bool
MaxHops int // Maximum graph traversal depth (default: 2)
BranchFactor int // Number of neighbors to expand per node (default: 5)
EdgeWeight float64 // Minimum edge weight to follow (default: 0.3)
}
// DefaultGraphConfig returns sensible defaults for graph search
func DefaultGraphConfig() GraphConfig {
return GraphConfig{
Enabled: true,
MaxHops: 2,
BranchFactor: 5,
EdgeWeight: 0.3,
}
}
// GraphSearchClient wraps hybrid.Client with graph-aware search
type GraphSearchClient struct {
*Client
graph *graph.ObservationGraph
graphConfig GraphConfig
}
// NewGraphSearchClient creates a graph-enhanced hybrid client
func NewGraphSearchClient(baseClient *Client, observationGraph *graph.ObservationGraph, cfg GraphConfig) *GraphSearchClient {
return &GraphSearchClient{
Client: baseClient,
graph: observationGraph,
graphConfig: cfg,
}
}
// Query performs graph-aware vector search with two-level traversal
func (g *GraphSearchClient) Query(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error) {
if !g.graphConfig.Enabled || g.graph == nil {
// Fall back to standard hybrid search
return g.Client.Query(ctx, query, limit, where)
}
startTime := time.Now()
// 1. Generate query embedding
queryEmb, err := g.embedSvc.Embed(query)
if err != nil {
return nil, fmt.Errorf("embed query: %w", err)
}
// 2. Search hub nodes (stored embeddings)
hubResults, err := g.base.Query(ctx, query, limit*2, where)
if err != nil {
// Fall back to standard search on error
log.Warn().Err(err).Msg("Hub search failed, falling back to hybrid search")
return g.Client.Query(ctx, query, limit, where)
}
// 3. Track hub access
g.trackAccess(hubResults)
// 4. Expand via graph traversal
expandedIDs := g.expandFromHubs(hubResults, limit*4)
// 5. Filter to non-hubs that need recomputation
nonHubIDs := make([]string, 0)
for _, id := range expandedIDs {
if !g.isHub(id) {
nonHubIDs = append(nonHubIDs, id)
}
}
// 6. Batch recompute non-hub embeddings
recomputedResults, err := g.recomputeAndScore(ctx, query, nonHubIDs)
if err != nil {
log.Warn().Err(err).Msg("Recomputation failed, using hub results only")
recomputedResults = nil
}
// 7. Apply graph-based ranking boost
allResults := g.mergeAndRankWithGraph(hubResults, recomputedResults, queryEmb)
// 8. Return top K
if len(allResults) > limit {
allResults = allResults[:limit]
}
duration := time.Since(startTime)
log.Debug().
Dur("duration_ms", duration).
Int("hubs", len(hubResults)).
Int("expanded", len(expandedIDs)).
Int("recomputed", len(recomputedResults)).
Int("results", len(allResults)).
Msg("Graph search completed")
return allResults, nil
}
// expandFromHubs traverses graph from hub nodes to find promising candidates
func (g *GraphSearchClient) expandFromHubs(hubResults []sqlitevec.QueryResult, maxCandidates int) []string {
if g.graph == nil {
return nil
}
expanded := make(map[string]float64) // doc_id -> relevance score
visited := make(map[int64]bool)
// Start from top hub results
for i, result := range hubResults {
if i >= g.graphConfig.BranchFactor*2 {
break // Limit starting points
}
// Parse observation ID from doc_id
obsID := parseObservationID(result.ID)
if obsID == 0 {
continue
}
// Mark as visited with high relevance (direct match)
visited[obsID] = true
expanded[result.ID] = result.Similarity
// Traverse graph from this hub
g.traverseGraph(obsID, result.Similarity, 0, expanded, visited)
}
// Convert to sorted list
type candidate struct {
ID string
Relevance float64
}
candidates := make([]candidate, 0, len(expanded))
for id, rel := range expanded {
candidates = append(candidates, candidate{ID: id, Relevance: rel})
}
// Sort by relevance descending
sort.Slice(candidates, func(i, j int) bool {
return candidates[i].Relevance > candidates[j].Relevance
})
// Return top candidates
if len(candidates) > maxCandidates {
candidates = candidates[:maxCandidates]
}
result := make([]string, len(candidates))
for i, c := range candidates {
result[i] = c.ID
}
return result
}
// traverseGraph performs depth-limited graph traversal
func (g *GraphSearchClient) traverseGraph(nodeID int64, baseRelevance float64, depth int, expanded map[string]float64, visited map[int64]bool) {
if depth >= g.graphConfig.MaxHops {
return // Max depth reached
}
// Get neighbors from graph
neighbors, weights, err := g.graph.GetNeighbors(nodeID)
if err != nil {
return // No neighbors or error
}
// Traverse top neighbors by weight
type neighborWeight struct {
ID int64
Weight float32
}
neighborList := make([]neighborWeight, len(neighbors))
for i := range neighbors {
neighborList[i] = neighborWeight{
ID: neighbors[i],
Weight: weights[i],
}
}
// Sort by weight descending
sort.Slice(neighborList, func(i, j int) bool {
return neighborList[i].Weight > neighborList[j].Weight
})
// Expand top branch_factor neighbors
expanded_count := 0
for _, nw := range neighborList {
if expanded_count >= g.graphConfig.BranchFactor {
break
}
// Skip if edge weight too low
if float64(nw.Weight) < g.graphConfig.EdgeWeight {
continue
}
// Skip if already visited
if visited[nw.ID] {
continue
}
visited[nw.ID] = true
// Calculate propagated relevance (decays with distance)
decay := 0.7 // 30% decay per hop
propagatedRelevance := baseRelevance * float64(nw.Weight) * decay
// Add to expanded set
docID := formatObservationDocID(nw.ID)
if existing, ok := expanded[docID]; !ok || propagatedRelevance > existing {
expanded[docID] = propagatedRelevance
}
// Recursively traverse
g.traverseGraph(nw.ID, propagatedRelevance, depth+1, expanded, visited)
expanded_count++
}
}
// mergeAndRankWithGraph combines hub and recomputed results with graph-based ranking
func (g *GraphSearchClient) mergeAndRankWithGraph(hubResults, recomputedResults []sqlitevec.QueryResult, queryEmb []float32) []sqlitevec.QueryResult {
// Merge results
allResults := append(hubResults, recomputedResults...)
// Apply graph-based re-ranking
if g.graph != nil {
for i := range allResults {
obsID := parseObservationID(allResults[i].ID)
if obsID == 0 {
continue
}
// Boost score based on node degree (hubs are more important)
node, err := g.graph.GetNode(obsID)
if err == nil && node.Degree > 0 {
// Degree boost: up to 10% increase for high-degree nodes
degreeBoost := 1.0 + (0.1 * float64(node.Degree) / 20.0)
if degreeBoost > 1.1 {
degreeBoost = 1.1
}
allResults[i].Similarity *= degreeBoost
}
}
}
// Sort by adjusted similarity
sortBySimilarity(allResults)
return allResults
}
// parseObservationID extracts observation ID from doc_id
// Format: "obs-{id}-{field}"
func parseObservationID(docID string) int64 {
var obsID int64
// Ignore error - returns 0 on parse failure, which callers handle
_, _ = fmt.Sscanf(docID, "obs-%d-", &obsID)
return obsID
}
// formatObservationDocID creates a doc_id for an observation
func formatObservationDocID(obsID int64) string {
return fmt.Sprintf("obs-%d-combined", obsID)
}
// GetGraphStats returns statistics about the observation graph
func (g *GraphSearchClient) GetGraphStats() graph.GraphStats {
if g.graph == nil {
return graph.GraphStats{}
}
return g.graph.Stats()
}
// RebuildGraph rebuilds the observation graph from current observations
// This should be called periodically or when observations change significantly
func (g *GraphSearchClient) RebuildGraph(ctx context.Context, observations []*models.Observation) error {
log.Info().Int("observations", len(observations)).Msg("Rebuilding observation graph")
newGraph, err := graph.BuildFromObservations(ctx, observations)
if err != nil {
return fmt.Errorf("build graph: %w", err)
}
g.graph = newGraph
log.Info().
Int("nodes", newGraph.Stats().NodeCount).
Int("edges", newGraph.Stats().EdgeCount).
Msg("Graph rebuilt successfully")
return nil
}
+16
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@@ -0,0 +1,16 @@
package hybrid
import (
"testing"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector"
)
// TestInterfaceImplementation verifies that hybrid clients implement vector.Client interface
func TestInterfaceImplementation(t *testing.T) {
// Compile-time check that Client implements vector.Client
var _ vector.Client = (*Client)(nil)
// Compile-time check that GraphSearchClient implements vector.Client
var _ vector.Client = (*GraphSearchClient)(nil)
}
+272
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@@ -0,0 +1,272 @@
package hybrid
import (
"fmt"
"sync"
"sync/atomic"
"time"
)
// Metrics tracks performance and usage statistics for hybrid vector storage
type Metrics struct {
startTime time.Time
recentLatencies []time.Duration
latenciesMu sync.Mutex
totalQueries atomic.Int64
hubOnlyQueries atomic.Int64
hybridQueries atomic.Int64
onDemandQueries atomic.Int64
graphQueries atomic.Int64
totalLatency atomic.Int64 // Sum in microseconds
hubLatency atomic.Int64
recomputeLatency atomic.Int64
totalDocuments atomic.Int64
hubDocuments atomic.Int64
storedEmbeddings atomic.Int64
recomputedCount atomic.Int64
cacheHits atomic.Int64
cacheMisses atomic.Int64
graphTraversals atomic.Int64
avgTraversalDepth atomic.Int64
}
// NewMetrics creates a new metrics tracker
func NewMetrics() *Metrics {
return &Metrics{
recentLatencies: make([]time.Duration, 0, 1000),
startTime: time.Now(),
}
}
// RecordQuery records a query execution
func (m *Metrics) RecordQuery(queryType string, latency time.Duration, recomputed int) {
m.totalQueries.Add(1)
m.totalLatency.Add(latency.Microseconds())
switch queryType {
case "hub_only":
m.hubOnlyQueries.Add(1)
case "hybrid":
m.hybridQueries.Add(1)
case "on_demand":
m.onDemandQueries.Add(1)
case "graph":
m.graphQueries.Add(1)
}
if recomputed > 0 {
m.recomputedCount.Add(int64(recomputed))
}
// Track recent latencies
m.latenciesMu.Lock()
m.recentLatencies = append(m.recentLatencies, latency)
if len(m.recentLatencies) > 1000 {
m.recentLatencies = m.recentLatencies[len(m.recentLatencies)-1000:]
}
m.latenciesMu.Unlock()
}
// RecordHubLatency records time spent in hub search
func (m *Metrics) RecordHubLatency(latency time.Duration) {
m.hubLatency.Add(latency.Microseconds())
}
// RecordRecomputeLatency records time spent recomputing embeddings
func (m *Metrics) RecordRecomputeLatency(latency time.Duration) {
m.recomputeLatency.Add(latency.Microseconds())
}
// RecordCacheHit records a content cache hit
func (m *Metrics) RecordCacheHit() {
m.cacheHits.Add(1)
}
// RecordCacheMiss records a content cache miss
func (m *Metrics) RecordCacheMiss() {
m.cacheMisses.Add(1)
}
// RecordGraphTraversal records a graph traversal operation
func (m *Metrics) RecordGraphTraversal(depth int) {
m.graphTraversals.Add(1)
m.avgTraversalDepth.Add(int64(depth))
}
// UpdateStorageStats updates current storage statistics
func (m *Metrics) UpdateStorageStats(total, hubs, stored int) {
m.totalDocuments.Store(int64(total))
m.hubDocuments.Store(int64(hubs))
m.storedEmbeddings.Store(int64(stored))
}
// GetSnapshot returns current metrics snapshot
func (m *Metrics) GetSnapshot() MetricsSnapshot {
m.latenciesMu.Lock()
defer m.latenciesMu.Unlock()
totalQueries := m.totalQueries.Load()
snapshot := MetricsSnapshot{
// Query counts
TotalQueries: totalQueries,
HubOnlyQueries: m.hubOnlyQueries.Load(),
HybridQueries: m.hybridQueries.Load(),
OnDemandQueries: m.onDemandQueries.Load(),
GraphQueries: m.graphQueries.Load(),
// Storage
TotalDocuments: int(m.totalDocuments.Load()),
HubDocuments: int(m.hubDocuments.Load()),
StoredEmbeddings: int(m.storedEmbeddings.Load()),
RecomputedTotal: m.recomputedCount.Load(),
// Cache
CacheHits: m.cacheHits.Load(),
CacheMisses: m.cacheMisses.Load(),
// Graph
GraphTraversals: m.graphTraversals.Load(),
// Runtime
Uptime: time.Since(m.startTime),
}
// Calculate latencies
if totalQueries > 0 {
snapshot.AvgLatency = time.Duration(m.totalLatency.Load()/totalQueries) * time.Microsecond
snapshot.AvgHubLatency = time.Duration(m.hubLatency.Load()/totalQueries) * time.Microsecond
}
if m.recomputedCount.Load() > 0 {
snapshot.AvgRecomputeLatency = time.Duration(m.recomputeLatency.Load()/m.recomputedCount.Load()) * time.Microsecond
}
// Calculate percentiles
if len(m.recentLatencies) > 0 {
sorted := make([]time.Duration, len(m.recentLatencies))
copy(sorted, m.recentLatencies)
sortDurations(sorted)
snapshot.P50Latency = percentile(sorted, 0.50)
snapshot.P95Latency = percentile(sorted, 0.95)
snapshot.P99Latency = percentile(sorted, 0.99)
}
// Calculate cache hit rate
totalCacheOps := snapshot.CacheHits + snapshot.CacheMisses
if totalCacheOps > 0 {
snapshot.CacheHitRate = float64(snapshot.CacheHits) / float64(totalCacheOps)
}
// Calculate storage savings
if snapshot.TotalDocuments > 0 {
embeddingSize := 384 * 4 // 384 dims × 4 bytes
fullStorage := snapshot.TotalDocuments * embeddingSize
actualStorage := snapshot.StoredEmbeddings * embeddingSize
if fullStorage > 0 {
snapshot.StorageSavingsPercent = (1.0 - float64(actualStorage)/float64(fullStorage)) * 100
}
}
// Calculate avg traversal depth
if snapshot.GraphTraversals > 0 {
snapshot.AvgTraversalDepth = float64(m.avgTraversalDepth.Load()) / float64(snapshot.GraphTraversals)
}
return snapshot
}
// MetricsSnapshot represents a point-in-time metrics snapshot
type MetricsSnapshot struct {
// Query metrics
TotalQueries int64
HubOnlyQueries int64
HybridQueries int64
OnDemandQueries int64
GraphQueries int64
// Latency metrics
AvgLatency time.Duration
P50Latency time.Duration
P95Latency time.Duration
P99Latency time.Duration
AvgHubLatency time.Duration
AvgRecomputeLatency time.Duration
// Storage metrics
TotalDocuments int
HubDocuments int
StoredEmbeddings int
StorageSavingsPercent float64
RecomputedTotal int64
// Cache metrics
CacheHits int64
CacheMisses int64
CacheHitRate float64
// Graph metrics
GraphTraversals int64
AvgTraversalDepth float64
// Runtime
Uptime time.Duration
}
// sortDurations sorts a slice of durations in ascending order
func sortDurations(durations []time.Duration) {
n := len(durations)
for i := 0; i < n-1; i++ {
for j := 0; j < n-i-1; j++ {
if durations[j] > durations[j+1] {
durations[j], durations[j+1] = durations[j+1], durations[j]
}
}
}
}
// percentile calculates the Nth percentile from a sorted slice
func percentile(sorted []time.Duration, p float64) time.Duration {
if len(sorted) == 0 {
return 0
}
idx := int(float64(len(sorted)) * p)
if idx >= len(sorted) {
idx = len(sorted) - 1
}
return sorted[idx]
}
// String returns a human-readable representation of metrics
func (s MetricsSnapshot) String() string {
return fmt.Sprintf(`Hybrid Vector Storage Metrics:
Queries:
Total: %d (Hub: %d, Hybrid: %d, OnDemand: %d, Graph: %d)
Avg Latency: %v (p50: %v, p95: %v, p99: %v)
Hub Latency: %v, Recompute Latency: %v
Storage:
Documents: %d (Hubs: %d, %.1f%%)
Stored Embeddings: %d
Savings: %.1f%%
Total Recomputed: %d
Cache:
Hits: %d, Misses: %d (Hit Rate: %.1f%%)
Graph:
Traversals: %d (Avg Depth: %.2f)
Runtime: %v`,
s.TotalQueries, s.HubOnlyQueries, s.HybridQueries, s.OnDemandQueries, s.GraphQueries,
s.AvgLatency, s.P50Latency, s.P95Latency, s.P99Latency,
s.AvgHubLatency, s.AvgRecomputeLatency,
s.TotalDocuments, s.HubDocuments, float64(s.HubDocuments)/float64(s.TotalDocuments)*100,
s.StoredEmbeddings,
s.StorageSavingsPercent,
s.RecomputedTotal,
s.CacheHits, s.CacheMisses, s.CacheHitRate*100,
s.GraphTraversals, s.AvgTraversalDepth,
s.Uptime,
)
}
+42
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@@ -0,0 +1,42 @@
// Package vector provides common interfaces for vector storage implementations
package vector
import (
"context"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/sqlitevec"
)
// Client defines the interface for vector storage operations.
// Both sqlitevec.Client and hybrid.Client implement this interface.
type Client interface {
// AddDocuments adds documents with their embeddings to the vector store
AddDocuments(ctx context.Context, docs []sqlitevec.Document) error
// DeleteDocuments removes documents by their IDs
DeleteDocuments(ctx context.Context, ids []string) error
// Query performs a vector similarity search
Query(ctx context.Context, query string, limit int, where map[string]any) ([]sqlitevec.QueryResult, error)
// IsConnected checks if the vector store is available
IsConnected() bool
// Close releases resources
Close() error
// Count returns the total number of vectors in the store
Count(ctx context.Context) (int64, error)
// ModelVersion returns the current embedding model version
ModelVersion() string
// NeedsRebuild checks if vectors need to be rebuilt due to model version change
NeedsRebuild(ctx context.Context) (bool, string)
// GetStaleVectors returns doc_ids of vectors with mismatched or null model versions
GetStaleVectors(ctx context.Context) ([]sqlitevec.StaleVectorInfo, error)
// DeleteVectorsByDocIDs removes vectors by their doc_ids
DeleteVectorsByDocIDs(ctx context.Context, docIDs []string) error
}
+82
View File
@@ -1312,3 +1312,85 @@ func (s *Service) handleRestart(w http.ResponseWriter, r *http.Request) {
}
}()
}
// handleGetGraphStats returns observation graph statistics.
func (s *Service) handleGetGraphStats(w http.ResponseWriter, r *http.Request) {
if s.graphSearchClient == nil {
writeJSON(w, map[string]interface{}{
"enabled": false,
"message": "Graph search not enabled",
})
return
}
stats := s.graphSearchClient.GetGraphStats()
response := map[string]interface{}{
"enabled": s.config.GraphEnabled,
"nodeCount": stats.NodeCount,
"edgeCount": stats.EdgeCount,
"avgDegree": stats.AvgDegree,
"maxDegree": stats.MaxDegree,
"minDegree": stats.MinDegree,
"medianDegree": stats.MedianDegree,
"edgeTypes": stats.EdgeTypes,
"config": map[string]interface{}{
"maxHops": s.config.GraphMaxHops,
"branchFactor": s.config.GraphBranchFactor,
"edgeWeight": s.config.GraphEdgeWeight,
"rebuildIntervalMin": s.config.GraphRebuildIntervalMin,
},
}
writeJSON(w, response)
}
// handleGetVectorMetrics returns hybrid vector storage metrics.
func (s *Service) handleGetVectorMetrics(w http.ResponseWriter, r *http.Request) {
if s.hybridMetrics == nil {
writeJSON(w, map[string]interface{}{
"enabled": false,
"message": "Vector metrics not available",
})
return
}
snapshot := s.hybridMetrics.GetSnapshot()
response := map[string]interface{}{
"queries": map[string]interface{}{
"total": snapshot.TotalQueries,
"hubOnly": snapshot.HubOnlyQueries,
"hybrid": snapshot.HybridQueries,
"onDemand": snapshot.OnDemandQueries,
"graph": snapshot.GraphQueries,
},
"latency": map[string]interface{}{
"avg": snapshot.AvgLatency.String(),
"p50": snapshot.P50Latency.String(),
"p95": snapshot.P95Latency.String(),
"p99": snapshot.P99Latency.String(),
"avgHub": snapshot.AvgHubLatency.String(),
"avgRecompute": snapshot.AvgRecomputeLatency.String(),
},
"storage": map[string]interface{}{
"totalDocuments": snapshot.TotalDocuments,
"hubDocuments": snapshot.HubDocuments,
"storedEmbeddings": snapshot.StoredEmbeddings,
"savingsPercent": snapshot.StorageSavingsPercent,
"recomputedTotal": snapshot.RecomputedTotal,
},
"cache": map[string]interface{}{
"hits": snapshot.CacheHits,
"misses": snapshot.CacheMisses,
"hitRate": snapshot.CacheHitRate,
},
"graph": map[string]interface{}{
"traversals": snapshot.GraphTraversals,
"avgDepth": snapshot.AvgTraversalDepth,
},
"uptime": snapshot.Uptime.String(),
}
writeJSON(w, response)
}
+182 -16
View File
@@ -24,6 +24,8 @@ import (
"github.com/lukaszraczylo/claude-mnemonic/internal/scoring"
"github.com/lukaszraczylo/claude-mnemonic/internal/search/expansion"
"github.com/lukaszraczylo/claude-mnemonic/internal/update"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/hybrid"
"github.com/lukaszraczylo/claude-mnemonic/internal/vector/sqlitevec"
"github.com/lukaszraczylo/claude-mnemonic/internal/watcher"
"github.com/lukaszraczylo/claude-mnemonic/internal/worker/sdk"
@@ -62,7 +64,15 @@ type RetrievalStats struct {
type Service struct {
startTime time.Time
initError error
vectorClient vector.Client
ctx context.Context
sseBroadcaster *sse.Broadcaster
server *http.Server
graphRebuildTicker *time.Ticker
hybridMetrics *hybrid.Metrics
graphSearchClient *hybrid.GraphSearchClient
retrievalStats map[string]*RetrievalStats
staleQueue chan staleVerifyRequest
queryExpander *expansion.Expander
recalculator *scoring.Recalculator
summaryStore *sqlite.SummaryStore
@@ -72,25 +82,20 @@ type Service struct {
relationStore *sqlite.RelationStore
patternDetector *pattern.Detector
sessionManager *session.Manager
sseBroadcaster *sse.Broadcaster
router *chi.Mux
embedSvc *embedding.Service
vectorClient *sqlitevec.Client
config *config.Config
store *sqlite.Store
vectorSync *sqlitevec.Sync
reranker *reranking.Service
updater *update.Updater
observationStore *sqlite.ObservationStore
scoreCalculator *scoring.Calculator
processor *sdk.Processor
server *http.Server
sessionStore *sqlite.SessionStore
retrievalStats map[string]*RetrievalStats
configWatcher *watcher.Watcher
store *sqlite.Store
cancel context.CancelFunc
dbWatcher *watcher.Watcher
staleQueue chan staleVerifyRequest
config *config.Config
sessionStore *sqlite.SessionStore
configWatcher *watcher.Watcher
embedSvc *embedding.Service
cancel context.CancelFunc
version string
wg sync.WaitGroup
initMu sync.RWMutex
@@ -185,7 +190,7 @@ func (s *Service) initializeAsync() {
// Create embedding service and sqlite-vec client for vector search (optional)
var embedSvc *embedding.Service
var vectorClient *sqlitevec.Client
var vectorClient vector.Client
var vectorSync *sqlitevec.Sync
var reranker *reranking.Service
@@ -196,14 +201,35 @@ func (s *Service) initializeAsync() {
} else {
embedSvc = emb
// Create sqlite-vec client using the same DB connection
client, clientErr := sqlitevec.NewClient(sqlitevec.Config{
baseClient, clientErr := sqlitevec.NewClient(sqlitevec.Config{
DB: store.DB(),
}, embedSvc)
if clientErr != nil {
log.Warn().Err(clientErr).Msg("sqlite-vec client creation failed - vector search disabled")
} else {
vectorClient = client
vectorSync = sqlitevec.NewSync(client)
// Wrap with LEANN hybrid storage client
strategy := hybrid.GetStrategyFromEnv()
hybridClient := hybrid.NewClient(hybrid.Config{
BaseClient: baseClient,
DB: store.DB(),
EmbedSvc: embedSvc,
Strategy: strategy,
HubThreshold: hybrid.GetHubThresholdFromEnv(),
})
// Wrap with graph-aware search client
graphConfig := hybrid.GraphConfig{
Enabled: s.config.GraphEnabled,
MaxHops: s.config.GraphMaxHops,
BranchFactor: s.config.GraphBranchFactor,
EdgeWeight: s.config.GraphEdgeWeight,
}
graphClient := hybrid.NewGraphSearchClient(hybridClient, nil, graphConfig)
vectorClient = graphClient
s.graphSearchClient = graphClient
s.hybridMetrics = hybrid.NewMetrics()
vectorSync = sqlitevec.NewSync(baseClient)
// Initialize AST-aware code chunking
chunkOpts := chunking.DefaultChunkOptions()
@@ -215,10 +241,28 @@ func (s *Service) initializeAsync() {
chunkingManager := chunking.NewManager(chunkers, chunkOpts)
vectorSync.SetChunkingManager(chunkingManager)
strategyName := "hub" // default
switch strategy {
case hybrid.StorageAlways:
strategyName = "always"
case hybrid.StorageOnDemand:
strategyName = "on_demand"
}
log.Info().
Str("model", embedSvc.Version()).
Str("vector_strategy", strategyName).
Bool("graph_enabled", s.config.GraphEnabled).
Strs("chunkers", []string{"go", "python", "typescript"}).
Msg("sqlite-vec vector search with AST-aware code chunking enabled")
if s.config.GraphEnabled {
log.Info().
Int("max_hops", s.config.GraphMaxHops).
Int("branch_factor", s.config.GraphBranchFactor).
Float64("edge_weight", s.config.GraphEdgeWeight).
Msg("Graph-aware search configured (graph will be built after initialization)")
}
}
// Create cross-encoder reranking service if enabled
@@ -409,6 +453,12 @@ func (s *Service) initializeAsync() {
// Start file watchers for auto-recreation on deletion
s.startWatchers()
// Build initial observation graph in background if graph search is enabled
if s.config.GraphEnabled && s.graphSearchClient != nil {
s.wg.Add(1)
go s.buildInitialGraph(observationStore)
}
// Check if vectors need rebuilding (empty or model version mismatch) and trigger background rebuild
if vectorClient != nil && vectorSync != nil {
needsRebuild, reason := vectorClient.NeedsRebuild(s.ctx)
@@ -876,7 +926,7 @@ func (s *Service) rebuildStaleVectors(
observationStore *sqlite.ObservationStore,
summaryStore *sqlite.SummaryStore,
promptStore *sqlite.PromptStore,
vectorClient *sqlitevec.Client,
vectorClient vector.Client,
vectorSync *sqlitevec.Sync,
) {
defer s.wg.Done()
@@ -1041,6 +1091,113 @@ func (s *Service) verifyStaleObservation(req staleVerifyRequest) {
}
}
// buildInitialGraph builds the observation graph from all observations in background.
func (s *Service) buildInitialGraph(observationStore *sqlite.ObservationStore) {
defer s.wg.Done()
log.Info().Msg("Building initial observation graph...")
start := time.Now()
// Fetch all observations
observations, err := observationStore.GetAllObservations(s.ctx)
if err != nil {
log.Error().Err(err).Msg("Failed to fetch observations for graph building")
return
}
if len(observations) == 0 {
log.Info().Msg("No observations to build graph from")
return
}
// Build graph using RebuildGraph method
if err := s.graphSearchClient.RebuildGraph(s.ctx, observations); err != nil {
log.Error().Err(err).Msg("Failed to build observation graph")
return
}
elapsed := time.Since(start)
stats := s.graphSearchClient.GetGraphStats()
log.Info().
Int("observations", len(observations)).
Int("nodes", stats.NodeCount).
Int("edges", stats.EdgeCount).
Float64("avg_degree", stats.AvgDegree).
Int("max_degree", stats.MaxDegree).
Dur("elapsed", elapsed).
Msg("Initial observation graph built successfully")
// Start periodic graph rebuild if configured
if s.config.GraphRebuildIntervalMin > 0 {
s.startGraphRebuildTimer(observationStore)
}
}
// startGraphRebuildTimer starts a periodic ticker to rebuild the observation graph.
func (s *Service) startGraphRebuildTimer(observationStore *sqlite.ObservationStore) {
interval := time.Duration(s.config.GraphRebuildIntervalMin) * time.Minute
s.graphRebuildTicker = time.NewTicker(interval)
log.Info().
Dur("interval", interval).
Msg("Started periodic graph rebuild timer")
s.wg.Add(1)
go func() {
defer s.wg.Done()
defer s.graphRebuildTicker.Stop()
for {
select {
case <-s.ctx.Done():
return
case <-s.graphRebuildTicker.C:
log.Info().Msg("Periodic graph rebuild triggered")
s.rebuildGraph(observationStore)
}
}
}()
}
// rebuildGraph rebuilds the observation graph from current observations.
func (s *Service) rebuildGraph(observationStore *sqlite.ObservationStore) {
if s.graphSearchClient == nil {
return
}
start := time.Now()
// Fetch all observations
observations, err := observationStore.GetAllObservations(s.ctx)
if err != nil {
log.Error().Err(err).Msg("Failed to fetch observations for graph rebuild")
return
}
if len(observations) == 0 {
log.Debug().Msg("No observations to rebuild graph from")
return
}
// Rebuild graph
if err := s.graphSearchClient.RebuildGraph(s.ctx, observations); err != nil {
log.Error().Err(err).Msg("Failed to rebuild observation graph")
return
}
elapsed := time.Since(start)
stats := s.graphSearchClient.GetGraphStats()
log.Info().
Int("observations", len(observations)).
Int("nodes", stats.NodeCount).
Int("edges", stats.EdgeCount).
Float64("avg_degree", stats.AvgDegree).
Dur("elapsed", elapsed).
Msg("Observation graph rebuilt successfully")
}
// setupMiddleware configures HTTP middleware.
func (s *Service) setupMiddleware() {
s.router.Use(middleware.Logger)
@@ -1106,6 +1263,10 @@ func (s *Service) setupRoutes() {
r.Get("/api/types", s.handleGetTypes)
r.Get("/api/models", s.handleGetModels)
// Graph and vector metrics routes
r.Get("/api/graph/stats", s.handleGetGraphStats)
r.Get("/api/vector/metrics", s.handleGetVectorMetrics)
// Observation scoring and feedback routes
r.Post("/api/observations/{id}/feedback", s.handleObservationFeedback)
r.Get("/api/observations/{id}/score", s.handleExplainScore)
@@ -1372,6 +1533,11 @@ func (s *Service) Shutdown(ctx context.Context) error {
s.patternDetector.Stop()
}
// Stop graph rebuild ticker
if s.graphRebuildTicker != nil {
s.graphRebuildTicker.Stop()
}
// Shutdown all sessions
s.sessionManager.ShutdownAll(ctx)
+2 -2
View File
@@ -1,12 +1,12 @@
{
"name": "claude-mnemonic-dashboard",
"version": "40a44a7-dirty",
"version": "4f4b4ac-dirty",
"lockfileVersion": 3,
"requires": true,
"packages": {
"": {
"name": "claude-mnemonic-dashboard",
"version": "40a44a7-dirty",
"version": "4f4b4ac-dirty",
"dependencies": {
"vis-data": "^7.1.9",
"vis-network": "^9.1.9",
+1 -1
View File
@@ -1,6 +1,6 @@
{
"name": "claude-mnemonic-dashboard",
"version": "40a44a7-dirty",
"version": "4f4b4ac-dirty",
"private": true,
"type": "module",
"scripts": {
+127
View File
@@ -2,6 +2,7 @@
import { ref, computed } from 'vue'
import type { Stats, SelfCheckResponse } from '@/types'
import ProjectFilter from './ProjectFilter.vue'
import { useGraphMetrics } from '@/composables'
const props = defineProps<{
stats: Stats | null
@@ -18,12 +19,21 @@ defineEmits<{
// Collapse state - persisted in localStorage
const isCollapsed = ref(localStorage.getItem('sidebar-collapsed') === 'true')
const metricsExpanded = ref(localStorage.getItem('metrics-expanded') === 'true')
// Graph metrics composable
const { graphStats, vectorMetrics, loading: metricsLoading, refresh: refreshMetrics } = useGraphMetrics()
function toggleCollapse() {
isCollapsed.value = !isCollapsed.value
localStorage.setItem('sidebar-collapsed', String(isCollapsed.value))
}
function toggleMetrics() {
metricsExpanded.value = !metricsExpanded.value
localStorage.setItem('metrics-expanded', String(metricsExpanded.value))
}
function formatNumber(n: number): string {
if (n >= 1000000) return (n / 1000000).toFixed(1) + 'M'
if (n >= 1000) return (n / 1000).toFixed(1) + 'K'
@@ -205,6 +215,99 @@ function getStatusColor(status: string): string {
</div>
</div>
<!-- Advanced Metrics -->
<div class="bg-slate-800/50 rounded-lg border border-slate-700/50">
<button
@click="toggleMetrics"
class="w-full flex items-center justify-between p-4 hover:bg-slate-700/30 transition-colors rounded-lg"
>
<div class="flex items-center gap-2">
<i class="fas fa-chart-line text-violet-400" />
<h3 class="text-sm font-semibold text-white">Advanced Metrics</h3>
</div>
<i
:class="[
'fas text-slate-400 transition-transform duration-200',
metricsExpanded ? 'fa-chevron-up' : 'fa-chevron-down'
]"
/>
</button>
<Transition name="expand">
<div v-show="metricsExpanded" class="px-4 pb-4 space-y-4">
<!-- Loading State -->
<div v-if="metricsLoading" class="text-center py-4">
<i class="fas fa-spinner fa-spin text-slate-400" />
<p class="text-slate-500 text-sm mt-2">Loading metrics...</p>
</div>
<!-- Graph Stats -->
<div v-else-if="graphStats?.enabled">
<div class="flex items-center justify-between mb-2">
<span class="text-xs text-slate-400 uppercase tracking-wide">Graph</span>
<button
@click="refreshMetrics"
class="text-xs text-violet-400 hover:text-violet-300 transition-colors"
title="Refresh metrics"
>
<i class="fas fa-sync-alt" />
</button>
</div>
<div class="space-y-2">
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Nodes</span>
<span class="text-white font-medium">{{ formatNumber(graphStats.nodeCount) }}</span>
</div>
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Edges</span>
<span class="text-white font-medium">{{ formatNumber(graphStats.edgeCount) }}</span>
</div>
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Avg Degree</span>
<span class="text-white font-medium">{{ graphStats.avgDegree.toFixed(1) }}</span>
</div>
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Max Degree</span>
<span class="text-white font-medium">{{ graphStats.maxDegree }}</span>
</div>
</div>
<!-- Vector Metrics -->
<div v-if="vectorMetrics?.enabled" class="mt-4 pt-4 border-t border-slate-700/50">
<div class="text-xs text-slate-400 uppercase tracking-wide mb-2">Vector Storage</div>
<div class="space-y-2">
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Savings</span>
<span class="text-green-400 font-medium">
{{ vectorMetrics.storage.savingsPercent.toFixed(1) }}%
</span>
</div>
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Queries</span>
<span class="text-white font-medium">{{ formatNumber(vectorMetrics.queries.total) }}</span>
</div>
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Cache Hit</span>
<span class="text-cyan-400 font-medium">
{{ (vectorMetrics.cache.hitRate * 100).toFixed(1) }}%
</span>
</div>
<div class="flex items-center justify-between">
<span class="text-slate-400 text-sm">Avg Latency</span>
<span class="text-white font-medium text-xs">{{ vectorMetrics.latency.avg }}</span>
</div>
</div>
</div>
</div>
<!-- Disabled State -->
<div v-else class="text-slate-500 text-sm py-2">
{{ graphStats?.message || 'Metrics not available' }}
</div>
</div>
</Transition>
</div>
<!-- Session Info -->
<div v-if="stats" class="bg-slate-800/50 rounded-lg p-4 border border-slate-700/50">
<div class="flex items-center gap-2 mb-3">
@@ -260,6 +363,30 @@ function getStatusColor(status: string): string {
>
<i class="fas fa-search text-cyan-400" />
</div>
<!-- Metrics indicator -->
<div
v-if="graphStats?.enabled"
class="bg-slate-800/50 rounded-lg p-3 border border-slate-700/50 flex justify-center"
:title="`${graphStats.nodeCount} nodes, ${graphStats.edgeCount} edges`"
>
<i class="fas fa-chart-line text-violet-400" />
</div>
</div>
</aside>
</template>
<style scoped>
.expand-enter-active,
.expand-leave-active {
transition: all 0.3s ease;
overflow: hidden;
max-height: 500px;
}
.expand-enter-from,
.expand-leave-to {
max-height: 0;
opacity: 0;
}
</style>
+1
View File
@@ -3,3 +3,4 @@ export { useStats } from './useStats'
export { useTimeline } from './useTimeline'
export { useUpdate } from './useUpdate'
export { useHealth } from './useHealth'
export { useGraphMetrics } from './useGraphMetrics'
+43
View File
@@ -0,0 +1,43 @@
import { ref, onMounted } from 'vue'
import type { GraphStats, VectorMetrics } from '@/types'
import { fetchGraphStats, fetchVectorMetrics } from '@/utils/api'
export function useGraphMetrics() {
const graphStats = ref<GraphStats | null>(null)
const vectorMetrics = ref<VectorMetrics | null>(null)
const loading = ref(false)
const error = ref<string | null>(null)
const refresh = async () => {
loading.value = true
error.value = null
try {
// Fetch both in parallel
const [graph, vector] = await Promise.all([
fetchGraphStats(),
fetchVectorMetrics()
])
graphStats.value = graph
vectorMetrics.value = vector
} catch (err) {
error.value = err instanceof Error ? err.message : 'Failed to fetch metrics'
console.error('[GraphMetrics] Error:', err)
} finally {
loading.value = false
}
}
onMounted(() => {
refresh()
})
return {
graphStats,
vectorMetrics,
loading,
error,
refresh
}
}
+55
View File
@@ -63,3 +63,58 @@ export interface SelfCheckResponse {
uptime: string
components: ComponentHealth[]
}
export interface GraphStats {
enabled: boolean
nodeCount: number
edgeCount: number
avgDegree: number
maxDegree: number
minDegree: number
medianDegree: number
edgeTypes: Record<string, number>
config: {
maxHops: number
branchFactor: number
edgeWeight: number
rebuildIntervalMin: number
}
message?: string
}
export interface VectorMetrics {
enabled: boolean
queries: {
total: number
hubOnly: number
hybrid: number
onDemand: number
graph: number
}
latency: {
avg: string
p50: string
p95: string
p99: string
avgHub: string
avgRecompute: string
}
storage: {
totalDocuments: number
hubDocuments: number
storedEmbeddings: number
savingsPercent: number
recomputedTotal: number
}
cache: {
hits: number
misses: number
hitRate: number
}
graph: {
traversals: number
avgDepth: number
}
uptime: string
message?: string
}
+9 -1
View File
@@ -1,4 +1,4 @@
import type { Observation, UserPrompt, SessionSummary, Stats, FeedItem, ObservationFeedItem, PromptFeedItem, SummaryFeedItem, RelationWithDetails, RelationGraph, RelationStats } from '@/types'
import type { Observation, UserPrompt, SessionSummary, Stats, FeedItem, ObservationFeedItem, PromptFeedItem, SummaryFeedItem, RelationWithDetails, RelationGraph, RelationStats, GraphStats, VectorMetrics } from '@/types'
const API_BASE = '/api'
const DEFAULT_TIMEOUT = 10000 // 10 seconds
@@ -164,3 +164,11 @@ export async function fetchRelatedObservations(observationId: number, minConfide
export async function fetchRelationStats(signal?: AbortSignal): Promise<RelationStats> {
return fetchWithRetry<RelationStats>(`${API_BASE}/relations/stats`, { signal })
}
export async function fetchGraphStats(signal?: AbortSignal): Promise<GraphStats> {
return fetchWithRetry<GraphStats>(`${API_BASE}/graph/stats`, { signal })
}
export async function fetchVectorMetrics(signal?: AbortSignal): Promise<VectorMetrics> {
return fetchWithRetry<VectorMetrics>(`${API_BASE}/vector/metrics`, { signal })
}
+1 -1
View File
@@ -1 +1 @@
{"root":["./src/main.ts","./src/vite-env.d.ts","./src/components/index.ts","./src/composables/index.ts","./src/composables/usehealth.ts","./src/composables/usesse.ts","./src/composables/usestats.ts","./src/composables/usetimeline.ts","./src/composables/usetypes.ts","./src/composables/useupdate.ts","./src/types/api.ts","./src/types/index.ts","./src/types/observation.ts","./src/types/prompt.ts","./src/types/relation.ts","./src/types/summary.ts","./src/utils/api.ts","./src/utils/formatters.ts","./src/app.vue","./src/components/badge.vue","./src/components/card.vue","./src/components/filtertabs.vue","./src/components/header.vue","./src/components/iconbox.vue","./src/components/observationcard.vue","./src/components/projectfilter.vue","./src/components/promptcard.vue","./src/components/relationgraph.vue","./src/components/sidebar.vue","./src/components/statscards.vue","./src/components/summarycard.vue","./src/components/timeline.vue"],"version":"5.7.3"}
{"root":["./src/main.ts","./src/vite-env.d.ts","./src/components/index.ts","./src/composables/index.ts","./src/composables/usegraphmetrics.ts","./src/composables/usehealth.ts","./src/composables/usesse.ts","./src/composables/usestats.ts","./src/composables/usetimeline.ts","./src/composables/usetypes.ts","./src/composables/useupdate.ts","./src/types/api.ts","./src/types/index.ts","./src/types/observation.ts","./src/types/prompt.ts","./src/types/relation.ts","./src/types/summary.ts","./src/utils/api.ts","./src/utils/formatters.ts","./src/app.vue","./src/components/badge.vue","./src/components/card.vue","./src/components/filtertabs.vue","./src/components/header.vue","./src/components/iconbox.vue","./src/components/observationcard.vue","./src/components/projectfilter.vue","./src/components/promptcard.vue","./src/components/relationgraph.vue","./src/components/sidebar.vue","./src/components/statscards.vue","./src/components/summarycard.vue","./src/components/timeline.vue"],"version":"5.7.3"}