• Epever Solar Controllers Compatible Solar Modules Mono-Crystalline 125*125 260W Module System 1
  • Epever Solar Controllers Compatible Solar Modules Mono-Crystalline 125*125 260W Module System 2
  • Epever Solar Controllers Compatible Solar Modules Mono-Crystalline 125*125 260W Module System 3
Epever Solar Controllers Compatible Solar Modules Mono-Crystalline 125*125 260W Module

Epever Solar Controllers Compatible Solar Modules Mono-Crystalline 125*125 260W Module

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Solar Module Descriptions: 

 

Our modules are high efficiency photovoltaic modules using silicon nitride coated polycrystalline silicon cells. The solar module can produce maximum power output, even under weak light. It is able to resist moisture and etching effectively, and not affected by geology.

 

Electrical Characteristics 

Max-power                                 

(W)     

260

Max-Power Voltage            

(V)

52

Max-Power Current             

(A)

5.01

Open-Circuit Voltage             

(V)

62.9

Short-Circuit Current            

 (A)

5.50

 

Mechanical Characteristics

Cable type, Diameter and Length

4mm2, TUV certified, 1000mm

Type of Connector

Compatible with MC4 plug

Arrangement of cells

6*12

Cell Size

125*125

Dimension

1580*1069*45

Weight

20.5Kg

Glass, Type and Thickness

High Transmission, Low Iron, Tempered Glass 3.2mm

 

Features 

  • Guaranteed positive tolerance 0/+5w ensures power output reliability

  • Strong aluminum frames module can bear snow loads up to 5400Pa and wind loads up to 2400Pa.

  • Excellent performance under low light environments (mornings evenings and cloudy days)

  • 12 years for product defects in materials and workmanship and 25 years for 80% of warranted minimum power.

  • Certifications and standards: IEC 61215.

  • Manufactured according to International Quality and Environment Management System (ISO9001, ISO14100).

 

FAQ

 

Q: What kind of loads can I run on PV?

With a correctly designed PV system you can power almost any electrical load. However, as the load size increases the expense also increases. Loads like hot water heaters, air conditioners, room heaters and electric stoves should be avoided. The added cost of trying to power loads like these is very cost prohibitive. If these loads have to be powered it will be a lot less expensive to change the appliance to use an alternative fuel type like propane.

Q: When do I need a charge controller and why?

The safest way to figure out if you need a charge controller is to take Battery Amp Hour Capacity and divide this by the Solar Panel max. power amp rating. If the quotient is above 200, you don't need a controller. If the number is less than 200 than you need a controller.

For example if you have a 100 amp hour battery and a 10 watt panel, you take 100 and divide it by .6 (600mA) and you get 166.6. Since this is less than 200 you need a charge controller. If you have a five-watt panel in the above example you take 100 divided by .3 (300mA) and you come up with 333.3. Since this is larger than 200 you do not need a charge controller. However you still need a blocking diode, to prevent the battery from discharging to the panel at night. So as a general rule of thumb you don't need a charge controller unless you have more than five watts of solar for every 100-amp hours of battery capacity.

Q: What is PV & how does it work?

PV stands for photovoltaic. Photo = Light and Voltaic = Electricity. A solar cell converts light to electricity.

A solar cell is made of silicon. Computer chips are made of this same material. Basically, when light strikes the surface of a solar cell some of it is absorbed into the silicon. This light energy bumps the electrons loose and causes energy to flow.

By packaging approximately 36 solar cells together a solar panel or a solar module is created. When you have more then one solar panels you create a solar array.

Q: How do I determine the size of a solar controller for my system?
To determine the size of a solar controller for your system, there are a few factors you need to consider. Firstly, you need to determine the maximum current and voltage rating of your solar panels. This information is usually provided by the manufacturer of the panels. Next, you need to calculate the total wattage of your solar panels by multiplying the maximum current and voltage rating. This will give you an idea of the power output of your panels. Once you have the total wattage, you need to consider the charging current capacity of the solar controller. It is recommended to choose a controller that can handle at least 25% more current than the maximum output of your solar panels. This will allow for any fluctuations or variations in the system. Additionally, you should consider the battery capacity of your system. The solar controller should have a charging capacity that matches or exceeds the battery's capacity. This will ensure efficient charging and prevent any damage to the battery. Furthermore, it is important to consider the type of solar controller you need. There are different types available, such as PWM (Pulse Width Modulation) and MPPT (Maximum Power Point Tracking). MPPT controllers are generally more efficient and can handle higher voltages, but they are also more expensive. The type of controller you choose will depend on your specific system requirements and budget. Lastly, consider any future expansions or upgrades you may have in mind for your solar system. It is advisable to choose a solar controller that has some extra capacity to accommodate any future additions to your system. By considering factors such as the maximum current and voltage rating of your panels, total wattage, charging current capacity, battery capacity, type of controller, and future expansions, you can determine the appropriate size of a solar controller for your system.
Q: Can a solar controller be used with solar-powered indoor healthcare institutions?
Yes, a solar controller can be used with solar-powered indoor healthcare institutions. A solar controller is essential for managing and regulating the power generated by solar panels, ensuring optimal charging and protection of batteries. In healthcare institutions, solar power can be used to provide electricity for lighting, medical equipment, and other essential functions, reducing reliance on the grid and ensuring uninterrupted power supply.
Q: Can a solar controller be used with solar panel balcony mounts?
Yes, a solar controller can be used with solar panel balcony mounts. A solar controller is responsible for regulating the amount of power that is supplied to the battery from the solar panels. It helps to prevent overcharging and ensures efficient energy management. Regardless of the mounting location, such as a balcony, a solar controller can still be used to optimize the performance and protection of the solar panel system.
Q: How does a solar controller handle the protection against ground faults?
A solar controller handles protection against ground faults by continuously monitoring the electrical current flow between the solar panels and the battery or grid. If a ground fault occurs, where the current leaks to the ground instead of following the intended path, the controller quickly detects the imbalance and interrupts the circuit to prevent any potential damage or electrical hazards.
Q: How does a solar controller handle lightning protection?
To ensure the safety of a solar controller and its connected devices, it is crucial to incorporate lightning protection mechanisms. These measures are vital because lightning strikes can introduce a massive surge of electrical energy into the system, potentially causing irreparable damage. In order to address the issue of lightning protection, a solar controller utilizes diverse strategies. One commonly employed technique involves the utilization of surge protection devices (SPDs) or lightning arrestors. These devices are specifically designed to redirect the surge of electrical energy away from the sensitive components of the solar controller. By utilizing metal oxide varistors (MOVs) or gas discharge tubes (GDTs), SPDs effectively absorb and redirect excess voltage to the ground, preventing any harm from reaching the controller. Furthermore, the solar controller may incorporate shielding and grounding techniques to provide an extra layer of protection against lightning. Shielding involves enclosing the sensitive components in a conductive material, typically metal, to create a Faraday cage effect. This shielding assists in blocking or minimizing the impact of electromagnetic interference caused by lightning strikes. On the other hand, grounding involves connecting the metal components of the solar controller to a grounding system. This ensures a safe pathway for lightning energy to dissipate harmlessly into the ground rather than passing through the controller. It is important to acknowledge that although a solar controller's built-in lightning protection measures significantly reduce the risk of damage, they do not offer complete immunity against lightning strikes. In areas prone to frequent lightning activity, it may be necessary to employ additional external lightning protection systems, such as lightning rods or lightning arrestor systems, to further enhance the overall safety of the solar power system.
Q: How does a solar controller prevent short circuits?
A solar controller prevents short circuits by constantly monitoring and regulating the flow of electrical current from the solar panels to the battery or load. It incorporates various protective mechanisms, such as fuses, breakers, and diodes, to ensure that any unexpected surge in current or abnormal voltage does not lead to a short circuit. Additionally, it uses sophisticated circuitry to detect and isolate any faulty or damaged components, thus preventing the occurrence of short circuits.
Q: Can a solar controller be used in a hybrid solar system?
Yes, a solar controller can be used in a hybrid solar system. A solar controller is responsible for regulating the flow of electricity from the solar panels to the battery storage system. In a hybrid solar system, where there is a combination of solar panels and another source of energy like wind or grid power, the solar controller can still be used to manage the solar panel output and ensure optimal charging of the batteries.
Q: Can a solar controller be used with a solar-powered electric fence energizer?
Yes, a solar controller can be used with a solar-powered electric fence energizer. The solar controller helps regulate and optimize the charging of batteries used in the electric fence energizer, ensuring efficient operation and extending battery life.
Q: How does a PWM solar controller differ from an MPPT solar controller?
A PWM (Pulse Width Modulation) solar controller regulates the charging of a battery by intermittently connecting the solar panel to the battery at full voltage. On the other hand, an MPPT (Maximum Power Point Tracking) solar controller constantly adjusts the voltage and current to ensure the solar panel operates at its maximum power output, allowing for more efficient energy conversion and higher charging rates.
Q: Can a solar controller be used with a solar-powered security system?
Yes, a solar controller can be used with a solar-powered security system. A solar controller helps regulate and control the charging of batteries in a solar power system, ensuring optimal performance and protection against overcharging. This is beneficial for a solar-powered security system as it maximizes the efficiency and longevity of the batteries, allowing for reliable operation even during extended periods of low sunlight.

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