GWS10K 96v single phase hybrid off grid mppt solar 10kw inverter

GRANKIA GWS10K 96v single phase hybrid off grid mppt solar 10kw inverter integrates multiple functionalities, including Maximum Power Point Tracking (MPPT), IGBT module, hybrid capabilities, and off-grid operation, making it an ideal choice for a wide range of applications.

The GWS10K 96v 10kw inverter boasts high conversion efficiency, ensuring that maximum solar energy is harnessed and converted into usable electricity. The MPPT technology optimizes the power output from the solar panels, significantly improving overall system performance.

The 96v mppt solar inverter incorporates the Insulated Gate Bipolar Transistor (IGBT) module, a state-of-the-art component known for its high efficiency and reliability. IGBTs are crucial in converting DC to AC power with minimal losses, ensuring that the inverter delivers clean and stable electricity to the load. This technology also enhances the inverter’s ability to handle high power levels, contributing to its robustness and longevity.

This 10kw inverter is designed to operate in both off-grid and hybrid modes. It can seamlessly switch between solar power, battery storage, and grid power, providing a reliable and uninterrupted power supply. This flexibility makes it suitable for areas with unstable grid connections or for complete off-grid living.

96V 10kW Inverter Features

Hybrid Off-Grid Design

It can combine power from solar panels, batteries, and the grid to provide a consistent power supply. This ensures that even during periods of low solar output, the inverter can still meet the energy demands.

IGBT Technology

Integrated with Insulated Gate Bipolar Transistor (IGBT) technology, this inverter offers superior performance in terms of energy conversion, thermal management, and reliability. IGBT technology enables high efficiency and fast switching, resulting in reduced power loss and improved system stability.

Built-in MPPT Solar Charge Controller

Maximizes solar energy utilization for increased efficiency. This MPPT technology continuously monitors the voltage and current output of the panels and adjusts the electrical load to maximize the energy harvested.

Isolated Toroidal Transformer

Enhances safety and performance by isolating the input and output circuits.

Selectable Charging Current

Allows customization of charging process for optimal battery performance.

Configurable AC/Solar Input Priority

Flexibility to prioritize power sources based on preference or availability.

Auto Restart Function

Automatically resumes operation upon AC power recovery for uninterrupted power supply.

Compatibility with LiFePO4 Lithium Battery

Supports advanced battery technology for long-lasting performance, but it can not communicate with LiFePO4 lithium battery.

User-Friendly LCD Display

Featuring an intuitive LCD display, this inverter offers real-time monitoring of input voltage, output voltage, battery level, and load status, allowing users to stay informed about their power consumption and system performance.

Off Grid Inverter Diagram

Solar Inverter Details

LCD Display

Connection Block

Error Code reference

Hybrid Solar Inverter Operating Modes

#1. Utility charger as first priority (default)

• Simultaneous charging via both utility and solar energy occurs, with the utility supplying power to the loads.
• In instances of solar unavailability, the utility powers the loads while charging the battery concurrently.
• If the utility is inaccessible, solar energy charges the battery, which in turn powers the loads alongside solar energy.

#2. Energy saving mode

• If the output load exceeds 5% of the total power, the utility steps in to supply power to the loads and simultaneously charges the battery in the absence of solar energy.
• In the absence of both utility and solar energy:
  • When the output load surpasses 5% of the total power, the battery provides power to the loads until it reaches 0% discharge, leading to inverter shutdown.
  • If the output load falls below 5% of the total power, the solar inverter transitions to standby mode within 5 seconds. It automatically activates the solar inverter every 6 seconds and monitors whether the load exceeds 5% of the total power every 3 seconds.”

#3. Energy storage priority

• When both utility and solar energy are available, solar energy is utilized to charge the battery, and subsequently, both solar and battery energy power the loads.
• In setups with both utility and solar energy, the battery charges via solar power and then powers loads. If the battery hits 50% capacity (or a 12V battery drops to 11.5V), utility kicks in to recharge it and power loads, stopping battery supply. When the battery hits 90% capacity (or a 12V battery reaches 13.5V), utility shuts off, letting solar recharge the battery. Then, both solar and battery power loads.
• In the absence of both utility and solar energy, battery energy solely powers the loads until the batteries discharge to 0%, following which the inverter shuts down.

10kW Inverter Benefits

Energy Independence

By harnessing solar power and utilizing battery storage, users can achieve a significant degree of energy independence. The hybrid functionality ensures a continuous power supply, even during grid outages or in remote locations without grid access.

Cost Savings

The high efficiency of the GWS10K inverter translates to lower energy costs. By maximizing solar energy utilization and reducing reliance on grid power, users can achieve substantial savings on their electricity bills.

Environmental Impact

Utilizing solar power reduces carbon footprint and promotes sustainable energy practices. The GWS10K inverter contributes to a greener future by enabling the adoption of clean and renewable energy sources.

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