Pure Sine Wave Power Solar Inverter 1000W

Pure Sine Wave Power Solar Inverter 1000W System 1

Pure Sine Wave Power Solar Inverter 1000W System 2

Pure Sine Wave Power Solar Inverter 1000W

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Loading Port:: Shekou

Payment Terms:: TT or LC

Min Order Qty:: 100 pc

Supply Capability:: 100000 pc/month

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220V/230V dc/ac pure sine wave best ups solar power inverter generator 1000W 1500W 2000w 3000w 4000w 5000w 6000w solar inverter

2. Pure Sine Wave Inverter Specification

Model	EP3000 Series	1000	2000	3000	3000	4000	5000	6000
Capacity	W	1000W	2000W	3000W	3000W	4000W	5000W	6000W
Battery	DC Voltage (Optional)	12V	24V or 12	24V	48V	48V	48V	48V
	Recharge current	35+/-5A	35+/-5A	45+/-5A	35+/-5A	35+/-5A	40+/-5A	50+/-5A
	3 - stage charge	Boost CC → Boost CV → Float
Input	Nominal Voltage	120VAC or 230VAC
	voltage trip range	90v+-4% to 140v+-4% or 184v/154v +-4% to 253v+-4%
	Voltage re engage range	100v+-4% -135v+-4% or 194v/164v+-4% to 243v+-4%
	Max input AC voltage	150VAC or 270VAC
	Frequency	50Hz or 60Hz(Auto detect)

	Current	25 Amps in maximum
	Efficiency	95%
Output	Voltage	120V or 230V AC ±5%
	Wave form	Pure Sine wave
	Frequency	50/60Hz
	voltage range	Depends on battery type
	Transfer time	≤5ms
Protection	Overload	15 mins for 125%, 60s for 150%, 20s for over 150s
Protection	Short circuit protection	Fault after 10 secs
Electric Fans		Thermo -controlling
Static Consumption		< 10 Watts
Surroundings	Temperature, humidity	0-50 °C ,90%, no condensing
Surge rating (10s)		3000W	6000W	9000W	9000W	8000W	10000W	12000W
capable of starting electric moto		1HP	2HP	3HP	3HP	4HP	5HP	6HP
Physical	Mount	Horizontal wall mount
	Size CM (H x W x D)	44.2 x 21.8 x 17.9				63.0 x 21.8 x 17.9
	Carton CM (H x W x D)	58.0x32.0x31.0				75.5 x32.0x31.0
	N.W ( KGS)	19	21	25	25	35	38	40
	G.W (KGS)	21	23	27	27	37	40	42
Remark	Specification for reference , subject to change without prior notification
Remark	We accept order with special specifications

3. Pure Sine Wave Power inverter Packing:

Power inverter 1000W 2000W 3000W 4000W 5000W 6000W Inverters

4. EP3000 Pure Sine Wave Solar Power Inverter on the Solar System:

Q:How do I prevent short-circuiting with a solar controller?: To prevent short-circuiting with a solar controller, there are a few important steps you can take: 1. Proper wiring: Ensure that all wiring connections are securely tightened and properly insulated. Loose or exposed wires can increase the risk of short-circuiting. Use high-quality cables and connectors that are rated for the current and voltage of your solar system. 2. Fuse or breaker protection: Install appropriate fuses or circuit breakers in the positive and negative connections between the solar panels, controller, and battery bank. These protective devices will automatically disconnect the circuit in case of a short-circuit, preventing any damage to the controller or other components. 3. Regular maintenance: Inspect your solar system regularly for any signs of wear, damage, or loose connections. Clean the panels to ensure maximum efficiency and remove any debris that could potentially cause a short-circuit. 4. Proper grounding: Ensure that your solar system is properly grounded. This involves connecting the negative terminal of the battery bank to a grounding rod. Grounding helps to dissipate any stray electrical charges and reduces the risk of short-circuiting. 5. Use an appropriate solar controller: Make sure you select a solar controller that is suitable for your specific solar system configuration and its maximum current and voltage requirements. Oversized or undersized controllers can increase the risk of short-circuiting. 6. Follow manufacturer guidelines: Always consult the manufacturer's instructions and guidelines for your specific solar controller. They often provide specific recommendations and precautions to prevent short-circuiting and ensure the safe operation of your solar system. By following these preventive measures, you can greatly reduce the potential for short-circuiting in your solar controller and ensure the efficient and safe functioning of your solar power system.

Q:Can a solar controller be used with a solar pool heater?: Yes, a solar controller can be used with a solar pool heater. A solar controller helps to regulate and optimize the operation of solar panels, ensuring that they are functioning at their maximum efficiency. This can be beneficial for a solar pool heater, as it allows for better control and management of the heating process, resulting in more efficient and effective heating of the pool water.

Q:Can a solar controller be used with different types of solar power systems?: Yes, a solar controller can be used with different types of solar power systems. A solar controller, also known as a charge controller, regulates the power flow between the solar panels and the battery or grid. It ensures that the battery is charged efficiently and prevents overcharging or discharging. Solar power systems can be categorized into off-grid and grid-tied systems. Off-grid systems are typically used in remote areas where there is no access to the utility grid, while grid-tied systems are connected to the utility grid. Solar controllers are compatible with both off-grid and grid-tied systems. In off-grid systems, the solar controller manages the charging and discharging of the battery, ensuring optimal performance and extending battery life. It also protects the battery from overcharging and over-discharging, which can cause damage. In grid-tied systems, the solar controller plays a different role. It monitors the power output of the solar panels and ensures that it is synchronized with the utility grid. It also manages any excess power generated by the solar panels, diverting it to the grid or to other loads. This helps to maximize the efficiency of the solar power system and potentially earn credits through net metering programs. Overall, a solar controller is a crucial component in any solar power system, regardless of the type. It helps to regulate the flow of power, protect the battery, and optimize the performance of the system. Therefore, it can be used with different types of solar power systems to enhance their efficiency and reliability.

Q:How does a solar controller handle fluctuations in solar panel output?: A solar controller manages fluctuations in solar panel output by continuously monitoring the generated voltage and current. It regulates the flow of energy from the solar panels to the battery or grid to ensure a stable and consistent power supply. The controller adjusts the charging parameters, such as voltage and current levels, to match the changing output of the solar panels, ensuring efficient energy transfer and preventing damage to the battery system.

Q:Can a solar controller be integrated with a solar monitoring system?: Yes, a solar controller can be integrated with a solar monitoring system. A solar controller is responsible for regulating the charge and discharge of batteries in a solar power system, while a solar monitoring system tracks and analyzes the performance of the solar panels and overall system. By integrating the two, users can have a comprehensive view of their solar power system's performance, including real-time and historical data on energy production, battery status, and system efficiency. This integration enables more efficient management of the solar power system, allowing users to optimize energy usage and make informed decisions about maintenance or upgrades.

Q:Can a solar controller be connected to multiple solar panels?: Yes, a solar controller can be connected to multiple solar panels. By connecting multiple solar panels in parallel or series, the solar controller can effectively manage and regulate the charging of the combined solar energy generated by all the panels.

Q:What is the role of a solar controller in preventing battery thermal runaway?: The role of a solar controller in preventing battery thermal runaway is crucial. A solar controller, also known as a charge controller, is responsible for regulating the charging and discharging of batteries in a solar power system. It ensures that the batteries are charged at the optimal level and protects them from overcharging or discharging, which can lead to thermal runaway. Thermal runaway occurs when a battery becomes overheated, resulting in a rapid increase in temperature and potentially causing an explosion or fire. This can be caused by factors such as overcharging, excessive discharge rates, or high ambient temperatures. To prevent battery thermal runaway, a solar controller employs various mechanisms. One of the primary functions is to monitor the battery voltage and temperature. By continuously measuring these parameters, the controller can adjust the charging or discharging current to maintain the battery within safe limits. For example, if the temperature rises beyond a certain threshold, the controller can reduce the charging rate or turn off the charging altogether until the temperature returns to a safe range. Furthermore, a solar controller also incorporates safety features like temperature sensors and thermal shutdown mechanisms. These sensors detect abnormal temperature increases and trigger the shutdown of the charging process to prevent further heating. The controller may also have an alarm system or communication capabilities to alert the user or system operator about any potential issues. Additionally, some advanced solar controllers utilize advanced algorithms and intelligent charging profiles to optimize the charging process and minimize the risk of thermal runaway. These algorithms take into account factors such as the battery chemistry, capacity, and ambient conditions to deliver the most efficient and safe charging strategy. In summary, the role of a solar controller in preventing battery thermal runaway is to regulate the charging and discharging process, monitor battery voltage and temperature, implement safety features, and employ intelligent algorithms to maintain the battery within safe operating conditions. By doing so, it helps ensure the longevity and safety of the battery in a solar power system.

Q:How does a solar controller handle the logging of system data?: A solar controller handles the logging of system data by continuously monitoring and recording various parameters such as solar panel voltage, battery voltage, charging current, load current, and temperature. It stores this data in its memory or an external storage device, allowing users to access and analyze the information for system performance evaluation and troubleshooting purposes.

Q:What is the maximum operating temperature of a solar controller?: The maximum operating temperature of a solar controller typically varies depending on the specific model and manufacturer. However, most solar controllers are designed to operate within a range of -40°C to 60°C (-40°F to 140°F). It is important to consult the manufacturer's specifications for the specific solar controller being used to determine its maximum operating temperature.

Q:Can a solar controller be used with solar-powered electric fences for agricultural applications?: Yes, a solar controller can be used with solar-powered electric fences for agricultural applications. The solar controller helps regulate the power supply from the solar panels to the electric fence, ensuring optimal charging and operation of the fence. It helps maintain the battery's health and prevents overcharging or undercharging, maximizing the efficiency and reliability of the electric fence system.

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