io.github.YUZU-Hub/wiring-diagram-mcp

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Méthode : MCP Hub analyse la description de chaque outil (couche 1) et, pour le verdict fort, exécute le serveur dans une micro-VM isolée avec leurres et réseau bloqué (couche 2). On publie des noms et des compteurs, jamais le contenu brut renvoyé par un outil.

Les 9 outils

• calculate_battery_bank≈ 337 tokens

  Calculate the recommended battery bank size based on daily energy consumption. Accounts for days of autonomy (how many days without charging) and depth of discharge. Returns required capacity, number of batteries, and wiring configuration.

  Paramètres, retour & exemple (6)

  Paramètres

  • systemVoltage · number · requis
    Target system voltage in volts (e.g. 12, 24, 48)
  • daysOfAutonomy · number · optionnel
    Days the system should run without any charging (default: 2)
  • singleBatteryAh · number · requis
    Capacity of a single battery in amp-hours (e.g. 100, 200)
  • dailyConsumptionWh · number · requis
    Daily energy consumption in watt-hours (from calculate_power_budget)
  • singleBatteryVoltage · number · requis
    Voltage of a single battery (e.g. 12.8 for LiFePO4, 12 for lead-acid)
  • depthOfDischargePercent · number · optionnel
    Usable percentage of battery capacity. LiFePO4: 80-90%, AGM: 50%, Gel: 50% (default: 80)

  Exemple d'appel

  {"name": "calculate_battery_bank", "arguments": {"systemVoltage": 1, "singleBatteryAh": 1, "dailyConsumptionWh": 1, "singleBatteryVoltage": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• calculate_battery_config≈ 248 tokens

  Determine how to arrange batteries in series and/or parallel to achieve a target voltage and capacity. Returns the number of batteries needed, the wiring configuration (e.g. 2S3P), and step-by-step wiring instructions.

  Paramètres, retour & exemple (4)

  Paramètres

  • targetVoltage · number · requis
    Desired system voltage (e.g. 12, 24, 48)
  • singleBatteryAh · number · requis
    Capacity of one battery in amp-hours
  • targetCapacityAh · number · requis
    Desired total capacity in amp-hours
  • singleBatteryVoltage · number · requis
    Nominal voltage of one battery (e.g. 12.8 for LiFePO4, 12 for lead-acid, 3.2 for LiFePO4 cells)

  Exemple d'appel

  {"name": "calculate_battery_config", "arguments": {"targetVoltage": 1, "singleBatteryAh": 1, "targetCapacityAh": 1, "singleBatteryVoltage": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• calculate_charging_time≈ 337 tokens

  Estimate how long it takes to charge a battery bank from a given state of charge to a target level. Accounts for the bulk charging phase (constant current, up to ~80% SoC) and the slower absorption phase (tapering current, 80-100% SoC). Works for any charging source: solar, shore power, alternator.

  Paramètres, retour & exemple (6)

  Paramètres

  • batteryVoltage · number · requis
    Battery bank voltage (e.g. 12, 24, 48)
  • chargePowerWatts · number · requis
    Charger output power in watts
  • batteryCapacityAh · number · requis
    Total battery bank capacity in amp-hours
  • chargeCurrentAmps · number · optionnel
    Maximum charge current in amps (if limited by the charger or battery BMS). If omitted, calculated from power and voltage.
  • targetStateOfChargePercent · number · optionnel
    Target state of charge in percent (default: 100)
  • currentStateOfChargePercent · number · requis
    Current state of charge in percent (e.g. 20 for 20%)

  Exemple d'appel

  {"name": "calculate_charging_time", "arguments": {"batteryVoltage": 1, "chargePowerWatts": 1, "batteryCapacityAh": 1, "currentStateOfChargePercent": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• calculate_inverter_size≈ 334 tokens

  Calculate the recommended inverter size for running AC loads from a DC battery system. Accounts for continuous power, startup surge power (motors typically surge 2-3x), and includes a 25% headroom for the continuous rating. Returns the recommended inverter wattage and the DC current draw at system voltage.

  Paramètres, retour & exemple (2)

  Paramètres

  • loads · array · requis
    List of AC loads that will run through the inverter
  • systemVoltage · number · requis
    DC system voltage (e.g. 12, 24, 48)

  Exemple d'appel

  {"name": "calculate_inverter_size", "arguments": {"loads": [], "systemVoltage": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• calculate_power_budget≈ 316 tokens

  Calculate total daily energy consumption from a list of electrical loads. Each load specifies its power draw, how many hours per day it runs, and quantity. Returns total daily energy (Wh and Ah), peak power draw, and average power. This is typically the first step in sizing a battery bank and solar system.

  Paramètres, retour & exemple (2)

  Paramètres

  • loads · array · requis
    List of electrical loads to include in the budget
  • systemVoltage · number · requis
    System voltage in volts (e.g. 12, 24, 48)

  Exemple d'appel

  {"name": "calculate_power_budget", "arguments": {"loads": [], "systemVoltage": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• calculate_solar_size≈ 268 tokens

  Calculate the required solar panel wattage to cover daily energy consumption. Accounts for peak sun hours at the location and system efficiency losses (MPPT conversion, wiring, temperature derating). Returns required wattage and common panel configurations.

  Paramètres, retour & exemple (3)

  Paramètres

  • peakSunHours · number · requis
    Average daily peak sun hours for the location. Examples: Northern Europe winter 1-2h, summer 4-6h. Southern US 5-6h. Equatorial regions 5-7h.
  • systemEfficiency · number · optionnel
    Overall system efficiency factor (default: 0.85). Accounts for MPPT losses, wiring losses, temperature derating, and panel soiling.
  • dailyConsumptionWh · number · requis
    Daily energy consumption in watt-hours (from calculate_power_budget)

  Exemple d'appel

  {"name": "calculate_solar_size", "arguments": {"peakSunHours": 1, "dailyConsumptionWh": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• calculate_wire_gauge≈ 374 tokens

  Calculate the recommended wire gauge / cable cross-section for a DC circuit. Considers both ampacity (current carrying capacity) and voltage drop to recommend the optimal cable size. Also returns total resistance, power loss, and a fuse recommendation. Supports copper conductors from 0.75 mm² (18 AWG) to 240 mm² (300 MCM).

  Paramètres, retour & exemple (7)

  Paramètres

  • power · number · optionnel
    Load power in watts. Will be converted to current using the voltage. Provide either current or power.
  • current · number · optionnel
    Load current in amps. Provide either current or power.
  • voltage · number · requis
    System voltage in volts (e.g. 12, 24, 48)
  • isRoundTrip · boolean · optionnel
    Account for both positive and negative conductor (default: true). Set to false for chassis-ground returns.
  • cableLengthM · number · requis
    One-way cable length in meters
  • temperatureCelsius · number · optionnel
    Ambient temperature in °C (default: 20°C). Affects copper resistance.
  • maxVoltageDropPercent · number · optionnel
    Maximum acceptable voltage drop in percent (default: 3%)

  Exemple d'appel

  {"name": "calculate_wire_gauge", "arguments": {"voltage": 1, "cableLengthM": 1}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• generate_wiring_diagram≈ 704 tokens

  Generate an electrical wiring diagram for campers, boats, or off-grid setups. Returns a complete schematic with batteries, chargers, protection components, and loads. Protection components (shunt, main switch, low-voltage cutoff) are auto-generated when both batteries and loads are provided.

  Paramètres, retour & exemple (5)

  Paramètres

  • loads · array · optionnel
    Electrical loads / consumers
  • format · string · optionnel · svg | png
    Output format: svg (recommended, renders inline) or png (base64-encoded image, may not display in all clients)
  • chargers · array · optionnel
    Chargers with their power sources
  • batteries · array · optionnel
    Batteries in the system
  • systemName · string · requis
    Name of the electrical system (e.g. "My Camper Van")

  Exemple d'appel

  {"name": "generate_wiring_diagram", "arguments": {"systemName": "texte"}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

• list_component_types≈ 80 tokens

  List all available component types and example configurations for building wiring diagrams. Use this to understand what parameters are needed before calling generate_wiring_diagram.

  Paramètres, retour & exemple (0)

  Exemple d'appel

  {"name": "list_component_types", "arguments": {}}

  Exemple de retour

  {"content": [{"type": "text", "text": "…"}]}

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Source

https://mcp.voltplan.app/mcp