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# SignalCanvas Agents # SignalCanvas Agents
Architecture & Testing Guide
- Language: Python (package name: signalcanvas_graph_based_market_signal_s)
- Core tech: Python 3.8+, dataclasses, simple cryptographic hashes for attestations
- Tests: pytest-based test suite located in tests/
- Build: python3 -m build to create wheels; test.sh runs tests and build to verify packaging
- Run locally: bash test.sh
Conventions
- All code lives under signalcanvas_graph_based_market_signal_s/ with a lightweight delta-sync extension in delta_sync.py
- Readable, minimal APIs: Graph primitives (SignalNode, Link, Scenario, HedgePlan), backtester, privacy, NLP
- Adapters live in adapters.py and are designed to be extended for FIX/WebSocket and simulated venues
Phases (as per MVP plan)
- Phase 0: Graph core, 2 adapters, local replay engine
- Phase 1: Delta-sync protocol + narrative templates
- Phase 2: Cross-venue demo with governance ledger scaffolding
How to contribute
- Follow the repositorys existing Python packaging and test commands
- Add new adapters or primitives with corresponding tests under tests/
- Update README with usage and examples

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# SignalCanvas Graph-Based Market Signal Studio (MVP) # SignalCanvas Graph-Based Market Signal Studio (MVP)
Overview
- A graph-based approach to model, visualize, replay, and audit cross-venue market signals.
- Primitives include SignalNode, Link, Scenario, and HedgePlan with a Graph-of-Contracts registry for adapters to data feeds and risk engines.
- Lightweight offline-first backtester and a delta-sync protocol to reconcile runs when streams reconnect.
- Privacy-preserving signal sharing, narrative generation, and governance-ready provenance.
Whats implemented now (MVP, 612 weeks plan):
- Core graph primitives: SignalNode, Link, Scenario, HedgePlan are implemented in the graph module.
- Adapters: two starter adapters provided (FIX feed and a simulated venue) for interoperability.
- Local replay engine: backtester.replay_deltas provides a deterministic delta replay capability.
- Delta-sync scaffolding: delta_sync module demonstrates a compact, testable delta-sync protocol (PlanDelta, signing, and reconciliation).
- Privacy & governance: aggregate_signals provides DP-friendly privacy budgets; ledger provides tamper-evident logging for governance-like provenance.
- NLP narrative: generate_narrative offers plain-language summaries anchored to plan deltas.
- Registry and extensibility: Graph registry-like structure exists to map adapters to canonical primitives.
Roadmap highlights (aligned with your MVP plan):
- Phase 0 (done-ish): Graph core (SignalNode/Link/Scenario/HedgePlan) + 2 adapters + local replay engine.
- Phase 1 (in progress): delta-sync protocol (signatures and reconcilable run histories) + NLP narrative templates.
- Phase 2 (next): 1 cross-venue demo with 2 assets; governance ledger scaffolding.
How to run tests and build (local verification):
- Run unit tests: ./test.sh
- Build wheel: python3 -m build --wheel --no-isolation
If you want to dive in, check the delta_sync module for a compact API around PlanDelta creation, signing, and reconciliation.

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from __future__ import annotations
from dataclasses import dataclass
from typing import Dict, List
import time
import hashlib
@dataclass
class PlanDelta:
plan_id: str
delta: Dict[str, float]
timestamp: float
version: int
signature: str = ""
def sign_delta(plan_id: str, delta: Dict[str, float], timestamp: float, version: int, signer_key: str) -> str:
"""Produce a simple deterministic signature for a PlanDelta.
This is a lightweight stand-in for cryptographic attestations used in a real system.
"""
data = f"{plan_id}:{timestamp}:{version}:{delta}"
return hashlib.sha256((data + signer_key).encode()).hexdigest()
def create_plan_delta(plan_id: str, delta: Dict[str, float], version: int, signer_key: str) -> PlanDelta:
ts = time.time()
sig = sign_delta(plan_id, delta, ts, version, signer_key)
return PlanDelta(plan_id=plan_id, delta=delta, timestamp=ts, version=version, signature=sig)
def reconcile_runs(run_a: List[PlanDelta], run_b: List[PlanDelta]) -> Dict[str, float]:
"""Naive reconciliation: apply deltas from both runs in order to obtain a merged state.
This demonstrates the concept of delta-sync across partitions. In a real system this would
include robust conflict resolution, versioning checks, and cryptographic attestations.
"""
state: Dict[str, float] = {}
def apply(deltas: List[PlanDelta]) -> None:
for pd in deltas:
for k, v in pd.delta.items():
state[k] = state.get(k, 0.0) + v
apply(run_a)
apply(run_b)
return state