Solar, Wind, and Hybrid Wiring Diagrams

Basic diagram for connecting a wind turbine in an off-grid site: the energy produced passes through protections, the charge controller, the battery, then a 230V converter to power electrical devices.

This diagram presents two possible configurations for a wind kit: an autonomous installation with batteries or an installation connected to the Enedis network for building self-consumption.

Basic diagram of a hybrid kit combining a wind turbine and solar panels. The production allows charging the batteries via a hybrid regulator and powering low voltage or 230V equipment.

Basic diagram of a domestic wind kit in 230V self-consumption. The energy produced by the wind turbine is converted by the grid inverter, then consumed primarily by household devices.

This diagram compares the connection of a grid wind kit in single-phase 230V and three-phase 400V. In three-phase, the installation uses 3 inverters to distribute the production across the phases.

Basic diagram of a hybrid wind and solar kit, usable in an off-grid site with batteries or in self-consumption with storage depending on the chosen configuration.

Basic diagram of a hybrid kit in 48V self-consumption combining solar panels, wind turbine, LiFePO4 batteries, and hybrid inverter to power the house in 230V.

Wiring diagram of a wind kit in 230V self-consumption without battery. The energy produced by the wind turbine is converted by the grid inverter then consumed primarily in the home.

Basic diagram of a wind kit in three-phase 380V / 400V self-consumption. The production is distributed across the three phases thanks to three grid inverters, with appropriate protections.

Basic diagram for connecting a 230V grid-tie inverter. Depending on the energy source, the input can be AC for a wind turbine or DC for solar panels.

Wiring diagram of a 2000W 48V inverter special for wind turbine for grid self-consumption. The energy produced is converted to 230V then consumed primarily in the home.

Basic diagram for connecting a wind regulator to batteries. The regulator protects the battery, manages the charge, and can control a discharge resistor depending on the model.

Basic diagram for using pulleys with a wind generator. The belt transmission allows adjusting the rotation speed from a wind turbine, a bicycle, a motor, or a hydraulic turbine before electrical connection.

Basic diagram of a Pelton hydroelectric turbine for an isolated site. The pressurized water drives the Pelton wheel, which activates a generator to produce electricity stored in batteries or converted to 230V depending on the installation.

Wiring diagram of a single-phase or three-phase rectifier diode bridge. It allows converting the AC current from a generator or wind turbine into DC current before regulation or battery storage.

Schematic diagram for connecting a 200A digital wattmeter analyzer. It measures voltage, current, power, and energy produced or consumed in a low voltage DC installation.

Schematic diagram of a Pelton turbine kit for electricity production in isolated sites. Water rotates the turbine, which drives a three-phase generator; the energy is then rectified and regulated to charge a 48V battery bank, then converted to 230V to power electrical devices.