build(agent): molt-y#23e5c8 iteration

This commit is contained in:
agent-23e5c897f40fd19e 2026-04-15 21:15:30 +02:00
parent dd19b95f57
commit 03893093aa
4 changed files with 123 additions and 4 deletions

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@ -12,6 +12,13 @@ What you can run now
- Tests: npm test
- Source: src/mesh.js, src/solver_admm.js, test/test.js
Protocol scaffolding (0.2)
- Added a minimal protocol skeleton for LocalProblem, SharedVariables, and PlanDelta under src/protocol/0_2_schema.js.
- Introduced a lightweight in-repo Contracts Registry (src/contracts_registry.js) to bootstrap cross-adapter data contracts.
- Extended the ADMM-lite solver (src/solver_admm.js) with a deterministic baseline adapter-capable solve() path.
- Two starter adapters (inverter, meter) remain compatible and can interface with the new protocol scaffolding.
- This scaffolding lays groundwork for offline-first distributed optimization and CatOpt-style interoperability; see test coverage for integration hooks.
How to extend
- Implement new adapters (e.g., inverter, meter) that plug into EnergyMesh via registerAdmmAdapter.
- Extend computeFlow with more sophisticated physical models or forecasting inputs.

44
src/contracts_registry.js Normal file
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@ -0,0 +1,44 @@
// Lightweight in-repo registry for protocol contracts (LocalProblem/SharedVariables/PlanDelta)
// This is intentionally minimal and in-memory to bootstrap the MVP workflow.
class ContractsRegistry {
constructor() {
this._registry = {};
}
registerContract(name, schema) {
if (!name || typeof name !== 'string') {
throw new Error('Contract name must be a non-empty string');
}
if (!schema || typeof schema !== 'object') {
throw new Error('Schema must be an object');
}
this._registry[name] = schema;
}
getContract(name) {
return this._registry[name];
}
listContracts() {
return Object.keys(this._registry);
}
}
// Singleton instance for simple usage across modules
const registry = new ContractsRegistry();
function registerContract(name, schema) {
registry.registerContract(name, schema);
}
function getContract(name) {
return registry.getContract(name);
}
module.exports = {
ContractsRegistry,
registry,
registerContract,
getContract
};

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@ -0,0 +1,37 @@
// Protocol 0.2 skeleton: LocalProblem, SharedVariables, PlanDelta schemas
// This file provides a minimal, well-typed shape to bootstrap adapters.
const LocalProblemSchema = {
// Unique identifier for the problem in the local device context
id: 'string',
// Human-friendly name
name: 'string',
// Variables involved in the optimization (names and bounds)
variables: 'object', // e.g., { v1: {min, max}, v2: {min, max} }
// Objective (quadratic or linear) descriptor
objective: 'object', // placeholder for { type, coefficients }
// Constraints (simple, friendly for MVP)
constraints: 'object'
};
const SharedVariablesSchema = {
// Round-based shared state used in ADMM iterations
rounds: 'number',
// Shared variable values by name
values: 'object' // e.g., { x1: 1.2, x2: 3.4 }
};
const PlanDeltaSchema = {
// Delta from the latest local plan, used for delta-syncs
delta: 'object', // e.g., { updatedVars: [...], deltaValues: {...} }
// Versioning for deterministic reconciliation
version: 'number',
// Audit timestamp
timestamp: 'number'
};
module.exports = {
LocalProblemSchema,
SharedVariablesSchema,
PlanDeltaSchema
};

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@ -2,6 +2,11 @@
// This module is intentionally lightweight: it provides a skeleton class
// that can be extended by adapters in downstream integrations.
const { LocalAdapterBridge } = (() => {
// Tiny bridge to illustrate adapters interoperability (no runtime dependency)
return { LocalAdapterBridge: class { constructor() {} } };
})();
class AdmmSolver {
constructor() {
// no state for MVP; placeholder for future stateful solvers
@ -9,16 +14,42 @@ class AdmmSolver {
/**
* Solve a local optimization problem given a shared variable state.
* For the MVP, we return null to indicate no local adaptation is applied,
* allowing the caller to fall back to baseline flow calculation.
* MVP: provide a lightweight, deterministic baseline adaptation for two-agent
* scenarios (inverter + storage). This is a stub implementation that can be
* extended by adapters for real optimization.
*
* @param {Object} localProblem - simplified representation of the local optimization problem
* @param {Object} sharedVariables - shared variables/state used in ADMM iterations
* @returns {Object|null} adaptation results or null to indicate no adaptation
*/
solve(localProblem, sharedVariables) {
// MVP: do not modify flow; keep baseline behavior.
return null;
// If either input is missing, do not adapt.
if (!localProblem || !sharedVariables) return null;
// Very small, deterministic baseline: compute a simple local plan by weighting
// the localProblem's target and the first shared variable. This is only to
// demonstrate a non-trivial integration point for MVP and should be replaced
// with a real ADMM step in a fuller implementation.
const t = typeof localProblem.target === 'number' ? localProblem.target : 0;
const s0 = typeof sharedVariables[0] === 'number' ? sharedVariables[0] : 0;
const planValue = (0.5 * t) + (0.5 * s0);
const adaptation = {
localPlan: {
value: planValue,
details: {
localTarget: t,
sharedSignal: s0
}
},
metadata: {
version: 0.2,
timestamp: Date.now()
}
};
// Return a minimal adaptation structure understood by downstream consumers.
return adaptation;
}
}