feat(8.0): API simplification — remove neural()/Db.search, one storage path key, integration→0

8.0 RC cleanup toward "one place per thing, zero-config, no deprecation":

- Remove the `brain.neural()` clustering namespace (ImprovedNeuralAPI + the dead
  legacy NeuralAPI + the neural CLI + neural-only types). Similarity is `find({vector})`
  / `similar({to})`; attribute grouping is the aggregation `GROUP BY` engine. The separate
  entity-extraction / smart-import feature (NeuralImport, NeuralEntityExtractor, SmartExtractor,
  NaturalLanguageProcessor, `brain.extract()`/`brain.nlp()`) is kept.
- Remove `Db.search()`; `find()` is the one query verb (accepts a bare string or FindParams).
  Fix the bundled MCP client, which called a non-existent `brain.search(query, limit)` →
  now `find({ query, limit })`.
- Storage config: collapse to one canonical top-level `path` key. The pre-8.0 aliases
  (`rootDirectory`, `options.*`, `fileSystemStorage.*`) are removed and now THROW with the
  exact rename instead of silently defaulting to `./brainy-data` on upgrade. A single resolver
  feeds createStorage, the 7.x→8.0 migration probe, and the plugin-factory handoff, so a native
  storage provider resolves the identical root (no split-brain).
- Fix `similar({ threshold })`: the min-similarity filter was silently dropped; it is now
  applied as a post-filter on `result.score` (the documented way to bound semantic results).
- Fix `vfs.rename()` on a directory: child path updates spread the entity vector into `update()`
  and failed dimension validation; they are metadata-only updates now.
- Fix `vfs.move()`: copy+delete orphaned the content-addressed content blob (the destination
  shared the source hash, then unlink removed it). `move()` now delegates to `rename()` — an
  in-place path change that preserves the blob and the entity id, for files and directories.
- Fix streaming import: the bulk fast path never flushed mid-import nor signalled queryability.
  Entity writes are now chunked by a progressive flush interval (100 → 1000 → 5000); each chunk
  flushes and emits `progress.queryable`, so imported data is queryable during the import.
- Sweep all docs, comments, and JSDoc for the removed/changed APIs.

Integration suite: 49 files / 588 passed / 0 failed. Unit: 80 files / 1456 passed, no type errors.
This commit is contained in:
David Snelling 2026-06-20 13:31:11 -07:00
parent 0c4a51c24e
commit 606445cd61
74 changed files with 712 additions and 7470 deletions

File diff suppressed because it is too large Load diff

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@ -1010,10 +1010,11 @@ export class NaturalLanguageProcessor {
// This would integrate with Brainy's search to find similar query patterns
// Future implementation could search a query_history noun type:
// const similarQueries = await this.brainy.search(queryEmbedding, {
// const similarQueries = await this.brainy.find({
// vector: queryEmbedding,
// limit: 5,
// metadata: { type: 'successful_query' },
// nounTypes: ['query_history']
// where: { type: 'successful_query' },
// type: ['query_history']
// })
return []

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@ -1,887 +0,0 @@
/**
* Neural API - Unified Semantic Intelligence
*
* Best-of-both: Complete functionality + Enterprise performance
* Combines rich features with O(n) algorithms for millions of items
*/
import { Vector, HNSWNoun } from '../coreTypes.js'
import { cosineDistance } from '../utils/distance.js'
// === Rich Result Types (from original neuralAPI) ===
export interface SimilarityResult {
score: number
method?: string
confidence?: number
explanation?: string
hierarchy?: {
sharedParent?: string
distance?: number
}
breakdown?: {
semantic?: number
taxonomic?: number
contextual?: number
}
}
export interface SimilarityOptions {
explain?: boolean
includeBreakdown?: boolean
method?: 'cosine' | 'euclidean' | 'hybrid'
}
export interface SemanticCluster {
id: string
centroid: Vector
members: string[]
label?: string
confidence: number
depth?: number
// Enterprise additions
size?: number
level?: number
center?: any
}
export interface SemanticHierarchy {
self: { id: string; type?: string; vector: Vector }
parent?: { id: string; type?: string; similarity: number }
grandparent?: { id: string; type?: string; similarity: number }
root?: { id: string; type?: string; similarity: number }
siblings?: Array<{ id: string; similarity: number }>
children?: Array<{ id: string; similarity: number }>
depth?: number
}
export interface NeighborGraph {
center: string
neighbors: Array<{
id: string
similarity: number
type?: string
connections?: number
}>
edges?: Array<{
source: string
target: string
weight: number
type?: string
}>
}
export interface ClusterOptions {
algorithm?: 'hierarchical' | 'kmeans' | 'sample' | 'stream'
maxClusters?: number
threshold?: number
// Enterprise options
sampleSize?: number
strategy?: 'random' | 'diverse' | 'recent'
level?: number
batchSize?: number
}
export interface VisualizationData {
format: 'force-directed' | 'hierarchical' | 'radial'
nodes: Array<{
id: string
x: number
y: number
z?: number
type?: string
cluster?: string
size?: number
}>
edges: Array<{
source: string
target: string
weight: number
type?: string
}>
layout?: {
dimensions: number
algorithm: string
bounds?: { width: number; height: number; depth?: number }
}
clusters?: Array<{
id: string
color: string
label?: string
size: number
}>
}
// === Enterprise Types (from neuralOptimized) ===
export interface ClusteringStrategy {
type: 'sample' | 'hierarchical' | 'stream' | 'hybrid'
sampleSize?: number
maxClusters?: number
minClusterSize?: number
}
export interface LODConfig {
levels: number
itemsPerLevel: number[]
zoomThresholds: number[]
}
/**
* Neural API - Unified best-of-both implementation
*/
export class NeuralAPI {
private brain: any // Brainy instance
private distanceFn: (a: Vector, b: Vector) => number
private similarityCache: Map<string, number> = new Map()
private clusterCache: Map<string, any> = new Map() // Enhanced for enterprise
private hierarchyCache: Map<string, SemanticHierarchy> = new Map()
constructor(brain: any) {
this.brain = brain
this.distanceFn = brain.distance || cosineDistance
}
// ===== SMART USER-FRIENDLY API =====
/**
* Calculate similarity between any two items (smart detection)
*/
async similar(a: any, b: any, options?: SimilarityOptions): Promise<number | SimilarityResult> {
// Auto-detect input types
if (typeof a === 'string' && typeof b === 'string') {
if (this.isId(a) && this.isId(b)) {
return this.similarityById(a, b, options)
} else {
return this.similarityByText(a, b, options)
}
} else if (Array.isArray(a) && Array.isArray(b)) {
return this.similarityByVector(a as Vector, b as Vector, options)
}
// Handle mixed types
return this.smartSimilarity(a, b, options)
}
/**
* Find semantic clusters (auto-detects best approach)
* Now with enterprise performance!
*/
async clusters(input?: any): Promise<SemanticCluster[]> {
// No input? Use enterprise fast clustering
if (!input) {
return this.clusterFast()
}
// Array? Cluster these items (use large clustering for big arrays)
if (Array.isArray(input)) {
if (input.length > 1000) {
return this.clusterLarge({ sampleSize: Math.min(input.length, 1000) })
}
return this.clusterItems(input)
}
// String? Find clusters near this
if (typeof input === 'string') {
return this.clustersNear(input)
}
// Object? Use as config with enterprise algorithms
if (typeof input === 'object' && !Array.isArray(input)) {
return this.clusterWithConfig(input as ClusterOptions)
}
throw new Error('Invalid input for clustering')
}
/**
* Get semantic hierarchy for an item
*/
async hierarchy(id: string): Promise<SemanticHierarchy> {
// Check cache first
if (this.hierarchyCache.has(id)) {
return this.hierarchyCache.get(id)!
}
const item = await this.brain.get(id)
if (!item) {
throw new Error(`Item not found: ${id}`)
}
// Find semantic relationships
const hierarchy = await this.buildHierarchy(item)
// Cache result
this.hierarchyCache.set(id, hierarchy)
return hierarchy
}
/**
* Find semantic neighbors for visualization
*/
async neighbors(id: string, options?: {
radius?: number
limit?: number
includeEdges?: boolean
}): Promise<NeighborGraph> {
const radius = options?.radius ?? 0.3
const limit = options?.limit ?? 50
// Search for nearby items
const results = await this.brain.search(id, limit * 2)
// Filter by semantic radius
const neighbors = results
.filter((r: any) => r.similarity >= (1 - radius))
.slice(0, limit)
.map((r: any) => ({
id: r.id,
similarity: r.similarity,
type: r.metadata?.type,
connections: r.metadata?.connections?.size || 0
}))
const graph: NeighborGraph = {
center: id,
neighbors
}
// Add edges if requested
if (options?.includeEdges) {
graph.edges = await this.buildEdges(id, neighbors)
}
return graph
}
/**
* Find semantic path between two items
*/
async semanticPath(fromId: string, toId: string, options?: {
maxHops?: number
algorithm?: 'breadth' | 'dijkstra'
}): Promise<Array<{
id: string
similarity: number
hop: number
}>> {
const maxHops = options?.maxHops ?? 5
const algorithm = options?.algorithm ?? 'breadth'
if (algorithm === 'dijkstra') {
return this.dijkstraPath(fromId, toId, maxHops)
} else {
return this.breadthFirstPath(fromId, toId, maxHops)
}
}
/**
* Detect semantic outliers
*/
async outliers(threshold: number = 0.3): Promise<string[]> {
// Get all items
const stats = this.brain.getStats()
const totalItems = stats.entities.total
if (totalItems === 0) return []
// For large datasets, use sampling
if (totalItems > 10000) {
return this.outliersViaSampling(threshold, 1000)
}
return this.outliersByDistance(threshold)
}
/**
* Generate visualization data
*/
async visualize(options?: {
maxNodes?: number
dimensions?: 2 | 3
algorithm?: 'force' | 'hierarchical' | 'radial'
includeEdges?: boolean
}): Promise<VisualizationData> {
const maxNodes = options?.maxNodes ?? 100
const dimensions = options?.dimensions ?? 2
const algorithm = options?.algorithm ?? 'force'
// Get representative nodes
const nodes = await this.getVisualizationNodes(maxNodes)
// Apply layout algorithm
const positioned = await this.applyLayout(nodes, algorithm, dimensions)
// Build edges if requested
const edges = options?.includeEdges !== false ?
await this.buildVisualizationEdges(positioned) : []
// Detect optimal format
const format = this.detectOptimalFormat(positioned, edges)
return {
format,
nodes: positioned,
edges,
layout: {
dimensions,
algorithm,
bounds: this.calculateBounds(positioned, dimensions)
}
}
}
// ===== ENTERPRISE PERFORMANCE ALGORITHMS =====
/**
* Fast clustering using HNSW levels - O(n) instead of O(n²)
*/
async clusterFast(options: {
level?: number
maxClusters?: number
} = {}): Promise<SemanticCluster[]> {
const cacheKey = `hierarchical-${options.level}-${options.maxClusters}`
if (this.clusterCache.has(cacheKey)) {
return this.clusterCache.get(cacheKey)
}
// Use HNSW's natural hierarchy - auto-select optimal level
const level = options.level ?? await this.getOptimalClusteringLevel()
const maxClusters = options.maxClusters ?? 100
// Get representative nodes from HNSW level
const representatives = await this.getHNSWLevelNodes(level)
// Each representative is a natural cluster center
const clusters = []
for (const rep of representatives.slice(0, maxClusters)) {
const members = await this.findClusterMembers(rep, level - 1)
clusters.push({
id: `cluster-${rep.id}`,
centroid: rep.vector,
center: rep,
members: members.map(m => m.id),
size: members.length,
level,
confidence: 0.8 + (members.length / 100) * 0.2 // Size-based confidence
} as SemanticCluster)
}
this.clusterCache.set(cacheKey, clusters)
return clusters
}
/**
* Large-scale clustering for massive datasets (millions of items)
*/
async clusterLarge(options: {
sampleSize?: number
strategy?: 'random' | 'diverse' | 'recent'
} = {}): Promise<SemanticCluster[]> {
const sampleSize = options.sampleSize ?? 1000
const strategy = options.strategy ?? 'diverse'
// Get representative sample
const sample = await this.getSample(sampleSize, strategy)
// Cluster the sample (fast on small set)
const sampleClusters = await this.performFastClustering(sample)
// Project clusters to full dataset
return this.projectClustersToFullDataset(sampleClusters)
}
/**
* Streaming clustering for progressive refinement
*/
async* clusterStream(options: {
batchSize?: number
maxBatches?: number
} = {}): AsyncGenerator<SemanticCluster[]> {
const batchSize = options.batchSize ?? 1000
const maxBatches = options.maxBatches ?? Infinity
let offset = 0
let batchCount = 0
let globalClusters: SemanticCluster[] = []
while (batchCount < maxBatches) {
// Get next batch
const batch = await this.getBatch(offset, batchSize)
if (batch.length === 0) break
// Cluster this batch
const batchClusters = await this.performFastClustering(batch)
// Merge with global clusters
globalClusters = await this.mergeClusters(globalClusters, batchClusters)
// Yield current state
yield globalClusters
offset += batchSize
batchCount++
}
}
/**
* Level-of-detail for massive visualization
*/
async getLOD(zoomLevel: number, viewport?: {
center: Vector
radius: number
}): Promise<any> {
// Define LOD levels based on zoom
const lodLevels = [
{ zoom: 0, maxNodes: 50, clusterLevel: 3 },
{ zoom: 1, maxNodes: 200, clusterLevel: 2 },
{ zoom: 2, maxNodes: 1000, clusterLevel: 1 },
{ zoom: 3, maxNodes: 5000, clusterLevel: 0 }
]
const lod = lodLevels.find(l => zoomLevel <= l.zoom) || lodLevels[lodLevels.length - 1]
if (viewport) {
return this.getViewportLOD(viewport, lod)
} else {
return this.getGlobalLOD(lod)
}
}
// ===== IMPLEMENTATION HELPERS =====
private isId(str: string): boolean {
// Check if string looks like an ID (UUID pattern, etc.)
return (str.length === 36 && str.includes('-')) || !!str.match(/^[a-f0-9]{24}$/)
}
private async similarityById(idA: string, idB: string, options?: SimilarityOptions): Promise<number | SimilarityResult> {
const cacheKey = `${idA}-${idB}`
if (this.similarityCache.has(cacheKey)) {
return this.similarityCache.get(cacheKey)!
}
// Get items
const [itemA, itemB] = await Promise.all([
this.brain.get(idA),
this.brain.get(idB)
])
if (!itemA || !itemB) {
throw new Error('One or both items not found')
}
// Calculate similarity
const score = this.distanceFn(itemA.vector, itemB.vector)
this.similarityCache.set(cacheKey, score)
if (options?.explain) {
return {
score,
method: 'cosine',
confidence: 0.9,
explanation: `Semantic similarity between ${idA} and ${idB}`
}
}
return score
}
private async similarityByText(textA: string, textB: string, options?: SimilarityOptions): Promise<number | SimilarityResult> {
// Generate embeddings
const [vectorA, vectorB] = await Promise.all([
this.brain.embed(textA),
this.brain.embed(textB)
])
return this.similarityByVector(vectorA, vectorB, options)
}
private async similarityByVector(vectorA: Vector, vectorB: Vector, options?: SimilarityOptions): Promise<number | SimilarityResult> {
const score = this.distanceFn(vectorA, vectorB)
if (options?.explain) {
return {
score,
method: options.method || 'cosine',
confidence: 0.95,
explanation: 'Direct vector similarity calculation'
}
}
return score
}
private async smartSimilarity(a: any, b: any, options?: SimilarityOptions): Promise<number | SimilarityResult> {
// Convert both to vectors and compare
const vectorA = await this.toVector(a)
const vectorB = await this.toVector(b)
return this.similarityByVector(vectorA, vectorB, options)
}
private async toVector(item: any): Promise<Vector> {
if (Array.isArray(item)) return item
if (typeof item === 'string') {
if (this.isId(item)) {
const found = await this.brain.get(item)
return found?.vector || await this.brain.embed(item)
}
return await this.brain.embed(item)
}
if (typeof item === 'object' && item.vector) {
return item.vector
}
// Convert object to string and embed
return await this.brain.embed(JSON.stringify(item))
}
// Enterprise clustering implementations
private async getOptimalClusteringLevel(): Promise<number> {
// Analyze dataset size and return optimal HNSW level
const stats = this.brain.getStats()
const itemCount = stats.entities.total
if (itemCount < 1000) return 0
if (itemCount < 10000) return 1
if (itemCount < 100000) return 2
return 3
}
private async getHNSWLevelNodes(level: number): Promise<any[]> {
// Get nodes from specific HNSW level
// For now, use search to get a representative sample
const stats = this.brain.getStats()
const sampleSize = Math.min(100, Math.floor(stats.entities.total / (level + 1)))
// Use search with a general query to get representative items
const queryVector = await this.brain.embed('data information content')
const allItems = await this.brain.search(queryVector, sampleSize * 2)
return allItems.slice(0, sampleSize)
}
private async findClusterMembers(center: any, level: number): Promise<any[]> {
// Find all items that belong to this cluster
const results = await this.brain.search(center.vector, 50)
return results.filter((r: any) => r.similarity > 0.7)
}
private async getSample(size: number, strategy: string): Promise<any[]> {
// Use search to get a sample of items
const stats = this.brain.getStats()
const maxSize = Math.min(size * 3, stats.entities.total) // Get more than needed for sampling
const queryVector = await this.brain.embed('sample data content')
const allItems = await this.brain.search(queryVector, maxSize)
switch (strategy) {
case 'random':
return this.shuffleArray(allItems).slice(0, size)
case 'diverse':
return this.getDiverseSample(allItems, size)
case 'recent':
return allItems.slice(-size)
default:
return allItems.slice(0, size)
}
}
private shuffleArray(array: any[]): any[] {
const shuffled = [...array]
for (let i = shuffled.length - 1; i > 0; i--) {
const j = Math.floor(Math.random() * (i + 1));
[shuffled[i], shuffled[j]] = [shuffled[j], shuffled[i]]
}
return shuffled
}
private async getDiverseSample(items: any[], size: number): Promise<any[]> {
// Select diverse items using maximum distance sampling
if (items.length <= size) return items
const sample = [items[0]] // Start with first item
for (let i = 1; i < size; i++) {
let maxMinDistance = -1
let bestItem = null
for (const candidate of items) {
if (sample.includes(candidate)) continue
// Find minimum distance to existing sample
let minDistance = Infinity
for (const selected of sample) {
const distance = this.distanceFn(candidate.vector, selected.vector)
minDistance = Math.min(minDistance, distance)
}
// Select item with maximum minimum distance
if (minDistance > maxMinDistance) {
maxMinDistance = minDistance
bestItem = candidate
}
}
if (bestItem) sample.push(bestItem)
}
return sample
}
private async performFastClustering(items: any[]): Promise<SemanticCluster[]> {
// Simple k-means clustering for the sample
const k = Math.min(10, Math.floor(items.length / 3))
if (k <= 1) {
return [{
id: 'cluster-0',
centroid: items[0]?.vector || [],
members: items.map(i => i.id),
confidence: 1.0
}]
}
// Initialize centroids randomly
const centroids = items.slice(0, k).map(item => item.vector)
// Run k-means iterations (simplified)
for (let iter = 0; iter < 10; iter++) {
const clusters: (typeof items)[] = Array(k).fill(null).map(() => [])
// Assign items to nearest centroid
for (const item of items) {
let bestCluster = 0
let bestDistance = Infinity
for (let c = 0; c < k; c++) {
const distance = this.distanceFn(item.vector, centroids[c])
if (distance < bestDistance) {
bestDistance = distance
bestCluster = c
}
}
clusters[bestCluster].push(item)
}
// Update centroids
for (let c = 0; c < k; c++) {
if (clusters[c].length > 0) {
const newCentroid = this.calculateCentroid(clusters[c])
centroids[c] = newCentroid
}
}
}
// Convert to SemanticCluster format
const result: SemanticCluster[] = []
for (let c = 0; c < k; c++) {
const members = items.filter(item => {
let bestCluster = 0
let bestDistance = Infinity
for (let cc = 0; cc < k; cc++) {
const distance = this.distanceFn(item.vector, centroids[cc])
if (distance < bestDistance) {
bestDistance = distance
bestCluster = cc
}
}
return bestCluster === c
})
if (members.length > 0) {
result.push({
id: `cluster-${c}`,
centroid: centroids[c],
members: members.map(m => m.id),
confidence: Math.min(0.9, members.length / items.length * 2)
})
}
}
return result
}
private calculateCentroid(items: any[]): Vector {
if (items.length === 0) return []
const dimensions = items[0].vector.length
const centroid = new Array(dimensions).fill(0)
for (const item of items) {
for (let d = 0; d < dimensions; d++) {
centroid[d] += item.vector[d]
}
}
for (let d = 0; d < dimensions; d++) {
centroid[d] /= items.length
}
return centroid
}
private async projectClustersToFullDataset(sampleClusters: SemanticCluster[]): Promise<SemanticCluster[]> {
// Project sample clusters to full dataset
const result: SemanticCluster[] = []
for (const cluster of sampleClusters) {
// Find all items similar to this cluster's centroid
const similar = await this.brain.search(cluster.centroid, 1000)
const members = similar
.filter((s: any) => s.similarity > 0.6)
.map((s: any) => s.id)
result.push({
...cluster,
members,
size: members.length
})
}
return result
}
private async mergeClusters(globalClusters: SemanticCluster[], batchClusters: SemanticCluster[]): Promise<SemanticCluster[]> {
// Simple merge strategy - combine similar clusters
const result = [...globalClusters]
for (const batchCluster of batchClusters) {
let merged = false
for (let i = 0; i < result.length; i++) {
const similarity = this.distanceFn(result[i].centroid, batchCluster.centroid)
if (similarity > 0.8) {
// Merge clusters
const newMembers = [...new Set([...result[i].members, ...batchCluster.members])]
result[i] = {
...result[i],
members: newMembers,
size: newMembers.length,
centroid: this.averageVectors(result[i].centroid, batchCluster.centroid)
}
merged = true
break
}
}
if (!merged) {
result.push(batchCluster)
}
}
return result
}
private averageVectors(v1: Vector, v2: Vector): Vector {
const result = new Array(v1.length)
for (let i = 0; i < v1.length; i++) {
result[i] = (v1[i] + v2[i]) / 2
}
return result
}
private async getBatch(offset: number, size: number): Promise<any[]> {
// Get batch of items for streaming using search with offset
const queryVector = await this.brain.embed('batch data content')
const items = await this.brain.search(queryVector, size, { offset })
return items
}
// Additional methods needed for full compatibility...
private async clusterAll(): Promise<SemanticCluster[]> {
return this.clusterFast()
}
private async clusterItems(items: any[]): Promise<SemanticCluster[]> {
return this.performFastClustering(items)
}
private async clustersNear(id: string): Promise<SemanticCluster[]> {
const neighbors = await this.neighbors(id, { limit: 100 })
return this.performFastClustering(neighbors.neighbors)
}
private async clusterWithConfig(config: ClusterOptions): Promise<SemanticCluster[]> {
switch (config.algorithm) {
case 'hierarchical':
return this.clusterFast(config)
case 'sample':
return this.clusterLarge(config)
case 'stream':
const generator = this.clusterStream(config)
const results = []
for await (const batch of generator) {
results.push(...batch)
}
return results
default:
return this.clusterFast(config)
}
}
// Placeholder implementations for remaining methods
private async buildHierarchy(item: any): Promise<SemanticHierarchy> {
// Implementation for hierarchy building
return {
self: { id: item.id, vector: item.vector }
}
}
private async buildEdges(centerId: string, neighbors: any[]): Promise<any[]> {
return []
}
private async dijkstraPath(from: string, to: string, maxHops: number): Promise<any[]> {
return []
}
private async breadthFirstPath(from: string, to: string, maxHops: number): Promise<any[]> {
return []
}
private async outliersViaSampling(threshold: number, sampleSize: number): Promise<string[]> {
return []
}
private async outliersByDistance(threshold: number): Promise<string[]> {
return []
}
private async getVisualizationNodes(maxNodes: number): Promise<any[]> {
return []
}
private async applyLayout(nodes: any[], algorithm: string, dimensions: number): Promise<any[]> {
return nodes
}
private async buildVisualizationEdges(nodes: any[]): Promise<any[]> {
return []
}
private detectOptimalFormat(nodes: any[], edges: any[]): 'force-directed' | 'hierarchical' | 'radial' {
return 'force-directed'
}
private calculateBounds(nodes: any[], dimensions: number): any {
return { width: 100, height: 100 }
}
private async getViewportLOD(viewport: any, lod: any): Promise<any> {
// LOD visualization is an optional advanced feature
// Return default view without LOD optimization
console.warn('Viewport LOD optimization not available. Using standard view.')
return { nodes: [], edges: [], optimized: false }
}
private async getGlobalLOD(lod: any): Promise<any> {
// LOD visualization is an optional advanced feature
// Return default view without LOD optimization
console.warn('Global LOD optimization not available. Using standard view.')
return { nodes: [], edges: [], optimized: false }
}
}

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/**
* Neural API Type Definitions
* Comprehensive interfaces for clustering, similarity, and analysis
*/
export interface Vector {
[index: number]: number
length: number
}
// ===== CORE CLUSTERING INTERFACES =====
export interface SemanticCluster {
id: string
centroid: Vector
members: string[]
size: number
confidence: number
label?: string
metadata?: Record<string, any>
cohesion?: number
level?: number
}
export interface ClusterEdge {
id: string
source: string
target: string
type: string
weight?: number
isInterCluster: boolean
sourceCluster?: string
targetCluster?: string
}
export interface EnhancedSemanticCluster extends SemanticCluster {
intraClusterEdges: ClusterEdge[]
interClusterEdges: ClusterEdge[]
relationshipSummary: {
totalEdges: number
intraClusterEdges: number
interClusterEdges: number
edgeTypes: Record<string, number>
}
}
export interface DomainCluster extends SemanticCluster {
domain: string
domainConfidence: number
crossDomainMembers?: string[]
}
export interface TemporalCluster extends SemanticCluster {
timeWindow: TimeWindow
trend?: 'increasing' | 'decreasing' | 'stable'
temporal: {
startTime: Date
endTime: Date
peakTime?: Date
frequency?: number
}
}
export interface ExplainableCluster extends SemanticCluster {
explanation: {
primaryFeatures: string[]
commonTerms: string[]
reasoning: string
confidence: number
}
subClusters?: ExplainableCluster[]
}
export interface ConfidentCluster extends SemanticCluster {
minConfidence: number
uncertainMembers: string[]
certainMembers: string[]
}
// ===== CLUSTERING OPTIONS =====
export interface BaseClusteringOptions {
maxClusters?: number
minClusterSize?: number
threshold?: number
cacheResults?: boolean
}
export interface ClusteringOptions extends BaseClusteringOptions {
algorithm?: 'auto' | 'hierarchical' | 'kmeans' | 'dbscan' | 'sample' | 'semantic' | 'graph' | 'multimodal'
sampleSize?: number
strategy?: 'random' | 'diverse' | 'recent' | 'important'
memoryLimit?: string // e.g., '512MB'
includeOutliers?: boolean
// K-means specific options
maxIterations?: number
tolerance?: number
}
export interface DomainClusteringOptions extends BaseClusteringOptions {
domainField?: string
crossDomainThreshold?: number
preserveDomainBoundaries?: boolean
}
export interface TemporalClusteringOptions extends BaseClusteringOptions {
timeField: string
windows: TimeWindow[]
overlapStrategy?: 'merge' | 'separate' | 'hierarchical'
trendAnalysis?: boolean
}
export interface StreamClusteringOptions extends BaseClusteringOptions {
batchSize?: number
updateInterval?: number
adaptiveThreshold?: boolean
decayFactor?: number // For aging old clusters
}
// ===== SIMILARITY & NEIGHBORS =====
export interface SimilarityOptions {
detailed?: boolean
metric?: 'cosine' | 'euclidean' | 'manhattan' | 'jaccard'
normalized?: boolean
}
export interface SimilarityResult {
score: number
confidence: number
explanation?: string
metric?: string
}
export interface NeighborOptions {
limit?: number
radius?: number
minSimilarity?: number
includeMetadata?: boolean
sortBy?: 'similarity' | 'importance' | 'recency'
}
export interface Neighbor {
id: string
similarity: number
data?: any
metadata?: Record<string, any>
distance?: number
}
export interface NeighborsResult {
neighbors: Neighbor[]
queryId: string
totalFound: number
averageSimilarity: number
}
// ===== HIERARCHY & ANALYSIS =====
export interface SemanticHierarchy {
self?: { id: string; vector?: Vector; metadata?: any }
root?: { id: string; vector?: Vector; metadata?: any } | null
levels?: any[]
parent?: { id: string; similarity: number }
children?: Array<{ id: string; similarity: number }>
siblings?: Array<{ id: string; similarity: number }>
level?: number
depth?: number
}
export interface HierarchyOptions {
maxDepth?: number
minSimilarity?: number
includeMetadata?: boolean
buildStrategy?: 'similarity' | 'metadata' | 'mixed'
}
// ===== VISUALIZATION =====
export interface VisualizationOptions {
maxNodes?: number
dimensions?: 2 | 3
algorithm?: 'force' | 'spring' | 'circular' | 'hierarchical'
includeEdges?: boolean
clusterColors?: boolean
nodeSize?: 'uniform' | 'importance' | 'connections'
}
export interface VisualizationNode {
id: string
x: number
y: number
z?: number
cluster?: string
size?: number
color?: string
metadata?: Record<string, any>
}
export interface VisualizationEdge {
source: string
target: string
weight: number
color?: string
type?: string
}
export interface VisualizationResult {
nodes: VisualizationNode[]
edges: VisualizationEdge[]
clusters?: Array<{
id: string
color: string
size: number
label?: string
}>
metadata: {
algorithm: string
dimensions: number
totalNodes: number
totalEdges: number
generatedAt: Date
}
}
// ===== UTILITY TYPES =====
export interface TimeWindow {
start: Date
end: Date
label?: string
weight?: number
}
export interface ClusterFeedback {
clusterId: string
action: 'merge' | 'split' | 'relabel' | 'adjust'
parameters?: Record<string, any>
confidence?: number
}
export interface OutlierOptions {
threshold?: number
method?: 'isolation' | 'statistical' | 'cluster-based'
minNeighbors?: number
includeReasons?: boolean
}
export interface Outlier {
id: string
score: number
reasons?: string[]
nearestNeighbors?: Neighbor[]
metadata?: Record<string, any>
}
// ===== PERFORMANCE & MONITORING =====
export interface PerformanceMetrics {
executionTime: number
memoryUsed: number
itemsProcessed: number
cacheHits: number
cacheMisses: number
algorithm: string
}
export interface ClusteringResult<T = SemanticCluster> {
clusters: T[]
metrics: PerformanceMetrics
metadata: {
totalItems: number
clustersFound: number
averageClusterSize: number
silhouetteScore?: number
timestamp: Date
// Additional clustering-specific metadata
semanticTypes?: number
hnswLevel?: number
kValue?: number
hasConverged?: boolean
outlierCount?: number
eps?: number
minPts?: number
averageModularity?: number
fusionMethod?: string
componentAlgorithms?: string[]
sampleSize?: number
samplingStrategy?: string
}
}
// ===== STREAMING =====
export interface StreamingBatch<T = SemanticCluster> {
clusters: T[]
batchNumber: number
isComplete: boolean
progress: {
processed: number
total: number
percentage: number
}
metrics: PerformanceMetrics
}
// ===== ERROR TYPES =====
export class NeuralAPIError extends Error {
constructor(
message: string,
public code: string,
public context?: Record<string, any>
) {
super(message)
this.name = 'NeuralAPIError'
}
}
export class ClusteringError extends NeuralAPIError {
constructor(message: string, context?: Record<string, any>) {
super(message, 'CLUSTERING_ERROR', context)
}
}
export class SimilarityError extends NeuralAPIError {
constructor(message: string, context?: Record<string, any>) {
super(message, 'SIMILARITY_ERROR', context)
}
}
// ===== CONFIGURATION =====
export interface NeuralAPIConfig {
cacheSize?: number
defaultAlgorithm?: string
similarityMetric?: 'cosine' | 'euclidean' | 'manhattan'
performanceTracking?: boolean
maxMemoryUsage?: string
parallelProcessing?: boolean
streamingBatchSize?: number
}