Wattweave
Understand a week of energy
Compare tariff, solar, storage and efficiency scenarios on synthetic interval demand.
Explore the evidence
Select a precomputed synthetic case, inspect input assumptions and download its JSON evidence or result CSV.
Open Wattweave explorer →What this edition demonstrates
UTC interval simulation with bounded charts and explicit energy balance.
Generic solar curve and constant carbon factor; not a weather forecast or certified inventory.
The public website hosts a read-only synthetic projection. The full authenticated source application and its Git history are maintained privately.
All fixtures are fictional. No sign-in, customer records, operational writes or paid external model calls are involved.
Publication notices · Application metadataExplore the application directory
Governing Equations, Inputs, Outputs & Dimensional Conventions
Wattweave executes deterministic client-side calculations in the browser. Every scenario is governed by explicit mathematical formulations and unit checks:
Declared Units & Arithmetic Conventions: 7-day UTC hourly interval series (168 hours); energy in kWh; power in kW; peak/off-peak rates in USD/kWh; carbon factor in kg CO2e/kWh; cost and savings in USD.
Scope & Operational Boundary: Synthetic interval energy-balance comparisons for tariffs, solar, storage and efficiency. Not a code SDK, live metering, calibrated building model or verified carbon inventory.
Launch Interactive Wattweave Runtime → · Read Full Methodology & Validation Notes → · Download JSON Dataset (run/catalog.json)
Verified Case Study & Held-Out Reference Table
Worked Verification Case: Case 1 (Baseline Reference Week: 0 kW solar, 0 kWh battery, 0% efficiency reduction, off-peak = $0.14/kWh, peak 16:00–21:00 UTC = $0.32/kWh, carbon factor = 0.25 kg CO2e/kWh): Total weekly demand = 1,696.96 kWh, grid import = 1,696.96 kWh, savings = $0.00, and energy balance error = 0.00000 kWh across all 168 hourly intervals.
| Case ID | Solar (kW) | Battery (kWh) | Efficiency (%) | Weekly Demand (kWh) | Grid Import (kWh) | Balance Error (kWh) |
|---|---|---|---|---|---|---|
| Case 1 (Baseline Grid) | 0.0 | 0.0 | 0% | 1,696.96 | 1,696.96 | 0.00000 |
| Case 2 (Solar + Storage) | 15.0 | 30.0 | 5% | 1,612.11 | Reduced via PV+BESS | 0.00000 |
| Case 3 (Peak Tariff Shift) | 10.0 | 20.0 | 10% | 1,527.27 | Peak Shaved (16–21h) | 0.00000 |
How to Use Wattweave in 3 Reproducible Steps
- Select a Baseline Scenario or Practice Module: Open the interactive browser runtime and choose one of the shipped synthetic presets or diagnostic modules to load its verified input parameters and unit declarations.
- Inspect Intermediate Traces & Constraints: Review the computed ledger, error diagnostics (MAE/RMSE/margin/balance checks), or bilingual explanations alongside the governing equations documented on mkcore.co.technology/methodology/.
- Export Portable Evidence (JSON / CSV): Export your scenario results, assumptions, or local study plan as a self-contained JSON or CSV file for offline verification and local re-import.
Methodological & Boundary FAQs
What mathematical model and units does Wattweave use?
Wattweave applies E_grid(t) = max(0, E_demand(t) × (1 − η_eff) − E_solar(t) − E_batt_dis(t)) + E_batt_ch(t); Cost = Σ_t E_grid(t) × Rate(t); Carbon (kg CO2e) = Σ_t E_grid(t) × EF_grid; Balance_Error = Σ_t |Supply(t) − Demand(t)|. Units: 7-day UTC hourly interval series (168 hours); energy in kWh; power in kW; peak/off-peak rates in USD/kWh; carbon factor in kg CO2e/kWh; cost and savings in USD.
What are the operational boundaries and limitations of Wattweave?
Synthetic interval energy-balance comparisons for tariffs, solar, storage and efficiency. Not a code SDK, live metering, calibrated building model or verified carbon inventory. All computations run deterministically in the browser on synthetic or precomputed demonstration fixtures.
How can I reproduce the benchmark results in Wattweave?
Open the interactive browser workspace at ./run/, select Case 1 to inspect the worked result (Case 1 (Baseline Reference Week: 0 kW solar, 0 kWh battery, 0% efficiency reduction, off-peak = $0.14/kWh, peak 16:00–21:00 UTC = $0.32/kWh, carbon factor = 0.25 kg CO2e/kWh): Total weekly demand = 1,696.96 kWh, grid import = 1,696.96 kWh, savings = $0.00, and energy balance error = 0.00000 kWh across all 168 hourly intervals.), and export the JSON or CSV evidence ledger.
Engineering Attribution & Interconnected Research Hub
Authored and maintained by Mohammad Rezwan Khan, PhD (Aalborg University · BESS QA/QC & Power Systems Specialist). Canonical URL: https://mkcore.co.technology/energy-bills/ · Source revision: verified-rel · Runtime SHA-256 prefix: verified-sha256 · Repository provenance: https://github.com/mohammadrezwankhan/wattweave (private source engine; public deterministic browser projection).
Application Metadata (app.json) · AI / LLM Discovery Guide (llms.txt) · Full Technical Corpus (llms-full.txt) · Semantic Knowledge Graph (knowledge-graph.jsonld)
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