Documentation

Torqon System Architecture

Technical documentation for Torqon's context orchestration infrastructure.

Introduction

Torqon is a context orchestration infrastructure layer for long-conversation LLM systems.

Cognitive Continuity

Maintains conversational relevance across extended sessions while minimizing context degradation.

Token Efficiency

Optimizes context composition to reduce unnecessary token usage without sacrificing continuity quality.

Context Intelligence

Coordinates retrieval, assembly, prioritization, and evaluation before requests reach language models.

"Better cognitive continuity per token."

Core Architecture

API Layer

Tech: Node.js / Express
Role: Ingestion endpoint for client requests and streaming response delivery.

Intent Engine

Tech: Regex / Lightweight Inference
Role: Classifies user intent to bypass heavy retrieval operations when possible.

Memory Engine

Tech: PostgreSQL + pgvector
Role: Semantic vector retrieval, relevance scoring, and deduplication.

Context Engine

Tech: TypeScript Core
Role: Assembles token-optimized context windows dynamically before LLM execution.

AI Gateway

Tech: Provider Abstraction
Role: Manages standard model execution, tool calls, and fallback strategies.

Evaluation System

Tech: LLM-as-Judge
Role: Automatically scores continuity and token efficiency offline.

Event Infrastructure

Tech: Redis Streams
Role: Coordinates asynchronous background tasks without blocking requests.

Observability Layer

Tech: Custom Tracing
Role: Collects trace telemetry and pipeline latency metrics per session.

Client Request
Intent Classification
Memory Retrieval
Context Assembly
AI Processing
Evaluation Pipeline
Response Delivery

Request Lifecycle

Stage 1 — Request Intake
  • request ID generation
  • trace initialization
  • metadata registration
Stage 2 — Intent Classification
  • regex heuristics
  • lightweight fallback classification
  • contextual dependency detection
Stage 3 — Memory Retrieval
  • semantic similarity search
  • retrieval thresholds
  • deduplication filters
  • relevance scoring
Stage 4 — Context Assembly
  • token budgeting
  • prioritization
  • structured context merging
  • history allocation
Stage 5 — LLM Processing
  • provider abstraction
  • request execution
  • response tracking
Stage 6 — Background Intelligence
  • asynchronous memory extraction
  • embeddings
  • analytics
  • evaluations

Intent System

User Input
Heuristic Analysis
LLM Fallback
Intent Category

Current Intent Categories:

  • General
  • Project

Classification Strategy:

  • heuristics-first
  • lightweight inference fallback
  • retrieval avoidance optimization

Goal:

"Prevent unnecessary memory injection while preserving contextual dependency."

Note: Torqon intentionally avoids aggressive retrieval behavior.

Memory System

≥ 0.8
Similarity Threshold
≥ 0.9
Deduplication Ratio
pgvector
PostgreSQL Storage

Semantic Retrieval

Uses vector similarity matching for contextual recall.

Relevance Filtering

Weak retrievals are skipped automatically.

Memory Deduplication

Near-identical memories are merged or ignored.

Observability Tracking

Retrieval quality and similarity metrics are recorded for evaluation.

Future Roadmap
  • Memory graphs
  • Recency weighting
  • Adaptive retrieval
  • Conflict resolution
  • Memory aging

Context Assembly

40% → Summaries
30% → Memory
30% → Recent History

Token Budgeting

Strict limits applied per-category to prevent window overflow.

Prioritization Strategy

High-signal knowledge is prioritized over raw conversation history.

Orchestration Constraints

Ensures models receive deterministic, structured payloads.

Context Compression

Low-value turns are aggressively compressed or discarded.

"Current allocation is static and expected to evolve toward adaptive orchestration policies."

Observability

Retrieval Latency

LLM Latency

Memory Hit Rate

Token Savings

Similarity Scores

Trace IDs

Distributed Tracing

Tracks requests fully across all isolated orchestration stages.

Orchestration Inspection

Allows deep dives into exact prompt assembly decisions.

Evaluation Logging

Maintains historical logs for offline benchmark runs.

Metrics Aggregation

Provides high-level system health and efficiency reporting.

Sandbox

Baseline Mode
Token UsageFull Window
RetrievalDisabled
ContinuityDegrading
VisibilityBlack Box
Torqon Mode
Token UsageOptimized
RetrievalSemantic
ContinuityPreserved
VisibilityFull Trace

"The Sandbox exists for orchestration benchmarking and continuity evaluation."

Evaluation Framework

Continuity Preservation

Retrieval Usefulness

Instruction Retention

Context Relevance

Latency Impact

Token Efficiency

"Torqon evaluates orchestration quality through comparative long-conversation testing workflows."

Distributed Systems

Synchronous Request Path

  • deterministic
  • low latency
  • debuggable
  • directly orchestrated

Asynchronous Background Systems

  • embeddings
  • analytics
  • evaluations
  • distributed events
Engineering Note: "Request-critical orchestration intentionally avoids distributed event complexity."

Roadmap

Current Phase
  • hypothesis validation
  • observability refinement
  • retrieval benchmarking
Future Outlook
  • adaptive orchestration
  • task-aware policies
  • contextual intelligence
  • advanced memory systems