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China Suppliers Factory Stackable All-in-One Off-Grid Solar Power System - NSMAR Tethys-Series for Home Energy Storage
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China Suppliers Factory Stackable All-in-One Off-Grid Solar Power System - NSMAR Tethys-Series for Home Energy Storage

The NSMAR Tethys-series is an innovative stackable all-in-one off-grid solar power system, designed to meet the diverse energy needs of households. With the suffix -H indicating a lower height and the suffix -V representing a compact footprint, this system is both space-efficient and versatile. As a leading manufacturer based in China, our factory employs a modular design that allows for easy scalability of batteries and inverters. This enables users to select the appropriate inverter power and battery capacity tailored to their requirements, effectively reducing initial investment costs while offering the convenience of future capacity expansion. Ideal for new installations of household energy storage, NSMAR Tethys-series is the smart choice for those seeking reliable and sustainable energy solutions.

  • ENSMAR Tethys 0505X-H Off-grid system, 1ph, battery module 5KWh, inverter 5KW, horizon-type
  • ENSMAR Tethys 1005X-H Off-grid system, 1ph, battery module 5KWh, inverter 10KW, horizon-type
  • ENSMAR Tethys 0505X-V Off-grid system, 1ph, battery module 5KWh, inverter 6KW, vertical-type

Product Features

All-in-one design, inverter and battery integrated together;
Inverter and battery module are stackable, easy installation.
Hybrid inverter, suitable for residential and light commercial use.
Battery modules are scalable up to 8pcs max
Self-designed BMS, every battery module is equipped with a standalone one;
Top brand Grade A LiFePO4 battery cells, prismatic, top class safety;
Long cycle life energy storage battery (6000 times)

Technical Description

Item Model No. Tethys 0505X-H Tethys 1005X-H Tethys 0505X-V
Inverter (KW) 5KW 10KW 6KW
Battery (KWh) 5 10 15 20 10 15 20 25 30 5 10 15
Battery Module Voltage 51.2V 51.2V
capacity 100Ah 100Ah
Charge voltage 58V 58V
Discharge cut-off voltage 42V 42V
Charge current 50A 50A
Max charge current 100A 100A
Discharge current 50A 50A
Max discharge current 100A 100A
Communication RS485 / CAN RS485 / CAN
Connector pass-through current 100A (continuous) 200A (continuous) 100A (continuous)
Size 231*410*150mm 480*460*147mm
off-grid inverter Power 5KW 10KW 12KW
Oput Voltage 230VAC 230VAC
Frequency 50Hz / 60Hz 50Hz / 60Hz
input power (PV) 5.5KW 11KW 8KW
Input voltage range (PV) 120~450VDC 120-450Vdc
Interface RS485/CAN RS485/CAN
Size 231*410*240mm 395*460*147mm
General Noise (dB) < 40dB (1 meter)
Humidity 0~95% ( no condensation)
Operation Temperature -10℃~+50℃
Altitude (m) 1500
Warranty 5 years (2 years for inverter part)

Tips About Lithium Battery

Generator: A Key Partner In Energy Storage System

Generators play a significant role in energy storage applications, especially in providing backup power, enhancing system reliability, and supporting grid stability. Here’s an overview of their functions, benefits, and considerations:

Roles of Generators in Energy Storage Applications
  • 1. Backup Power Supply
    Purpose: Provide electricity during power outages or when the main power source is unavailable.
    Usage: Commonly used in critical facilities like hospitals, data centers, and industrial plants to ensure continuous operation.
  • 2. Peak Shaving and Load Management
    Purpose: Reduce demand charges by generating power during peak load times.
    Usage: Combined with energy storage systems, generators can help manage load profiles and reduce electricity costs.
  • 3. Renewable Energy Integration
    Purpose: Complement intermittent renewable energy sources like solar and wind.
    Usage: Generators can provide power when renewable sources are insufficient, ensuring a stable energy supply.
  • 4. Grid Support and Stability
    Purpose: Provide ancillary services to the grid, such as frequency regulation and voltage support.
    Usage: Generators can be quickly dispatched to stabilize the grid during fluctuations or emergencies.
Benefits of Using Generators in Energy Storage Systems
  • 1. Reliability and Resilience
    Benefit: Generators enhance the reliability of energy storage systems by providing a dependable power source during outages or low renewable generation periods.
  • 2. Flexibility
    Benefit: They can be used in various applications, from small residential setups to large industrial facilities, offering flexibility in system design and operation.
  • 3. Cost Savings
    Benefit: By using generators during peak times, facilities can reduce demand charges and overall energy costs, leading to significant financial savings.
  • 4. Scalability
    Benefit: Generators can be easily scaled up or down based on the power requirements of the facility, making them adaptable to different energy needs.
Types of Generators Used in Energy Storage Applications
  • 1. Diesel Generators
    Pros: High power output, reliability, and quick start-up times.
    Cons: High emissions and fuel costs, noise, and maintenance requirements.
  • 2. Natural Gas Generators
    Pros: Cleaner burning than diesel, lower emissions, and often more cost-effective.
    Cons: Dependence on natural gas supply infrastructure and potential fuel price volatility.
  • 3. Biomass Generators
    Pros: Renewable and sustainable, can use various organic materials as fuel.
    Cons: Limited scalability, fuel availability, and potential environmental impacts.
  • 4. Hybrid Generators
    Pros: Combine different power sources (e.g., solar and diesel) to optimize performance and efficiency.
    Cons: Higher initial costs and complex system integration.
Considerations for Integrating Generators with Energy Storage Systems
  • 1. Sizing and Capacity
    Consideration: Ensure the generator is appropriately sized to meet the peak load and backup power requirements of the facility.
  • 2. Fuel Supply and Storage
    Consideration: Assess the availability and logistics of fuel supply, including storage capacity and refueling frequency.
  • 3. Environmental Impact
    Consideration: Evaluate emissions, noise levels, and potential environmental regulations, especially in urban or sensitive areas.
  • 4. Operational Costs
    Consideration: Calculate the total cost of ownership, including initial investment, fuel costs, maintenance, and potential savings.
  • 5. System Integration
    Consideration: Ensure seamless integration with the energy storage system and the facility’s power management infrastructure, including synchronization, control systems, and safety mechanisms.
  • 6. Maintenance and Reliability
    Consideration: Regular maintenance is crucial to ensure the reliability and longevity of the generator. Develop a maintenance schedule and plan for periodic inspections and servicing.

Generators are essential components in energy storage applications, offering reliable backup power, supporting load management, and enhancing grid stability. By carefully considering the type of generator, sizing, fuel supply, environmental impact, operational costs, and system integration, facilities can optimize their energy storage solutions to achieve greater efficiency, resilience, and cost savings.

Frequently Asked Questions

What is the lifespan of the battery module in this system?
The system utilizes top brand Grade A LiFePO4 battery cells that deliver a long cycle life of up to 6,000 times, ensuring long-term reliability and safety.
How scalable is the battery system?
The battery modules feature a stackable design and are scalable up to a maximum of 8 modules, allowing you to expand the capacity based on your energy needs.
What is the warranty period for this system?
The system comes with a comprehensive 5-year warranty, with the inverter component specifically covered for 2 years.
What communication protocols do the system support?
Both the battery modules and the off-grid inverter support RS485 and CAN communication interfaces for stable data transmission and system management.
How does a generator integrate with this energy storage system?
Generators act as key partners by providing backup power during outages, supporting peak shaving to lower costs, complementing solar/wind inputs, and stabilizing the overall power grid.
Is the battery management system (BMS) centralized?
No, the system features a self-designed BMS where every single battery module is equipped with its own standalone BMS for enhanced safety and individual module monitoring.