F39-HJ1025 Allicdata Electronics
Allicdata Part #:

F39-HJ1025-ND

Manufacturer Part#:

F39-HJ1025

Price: $ 164.65
Product Category:

Uncategorized

Manufacturer: Omron Automation and Safety
Short Description: F39-HJ1025
More Detail: N/A
DataSheet: F39-HJ1025 datasheetF39-HJ1025 Datasheet/PDF
Quantity: 1000
1 +: $ 149.68800
Stock 1000Can Ship Immediately
$ 164.65
Specifications
Series: *
Part Status: Active
Description

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The F39-HJ1025, or a Hexa-Junction silicon solar cell, is a new type of renewable energy cell designed to capture as much of the energy from the sun as possible. Developed by the F39 Corporation, the Hexa-Junction silicon solar cell is a particular type of photovoltaic (PV) cell, which is used to convert energy from sunlight directly into electrical energy. It is composed of a single wafer of silicon, making this type of cell extremely efficient, as it is lightweight, thin, and durable, and is also capable of withstanding extreme temperatures.

The F39-HJ1025 cells are designed for use in various applications, ranging from powering vehicles to solar panels for home or business use. This particular cell is capable of generating the highest efficiency among all the other PV cells in its category, with efficiency levels reaching up to 28.6%. In addition, the F39-HJ1025 cells are capable of functioning in a wide range of solar energy conditions, including at times when the sunlight is weaker. This increased efficiency means that these cells are able to produce more energy per unit area as compared to other photovoltaic cells, making them highly desirable for use in vehicles as well as in home and business solar panels.

The working principle of the F39-HJ1025 cells is largely based on the concept of charge separation. As a solar cell is exposed to sunlight, the silicon wafer absorbs the energy from it and, as a result, the electrons that are present in the silicon are released from their atoms. These electrons then start to move freely through the cell, creating an electrical current. The F39-HJ1025 uses a hexagonal arrangement of P-type and N-type semiconductors, and when one of these semiconductors is exposed to light, electrons are produced and forced to move through the junction, thus creating an electrical current.

These cells are also designed using a special technique known as "carrier multiplication." This technique increases the efficiency of the cells by allowing them to use multiple electrons to carry charges instead of just one. This multiple charge transport is what gives the cells the ability to generate energy at much higher levels than other conventional PV cells. In addition, the F39-HJ1025 cells can be manufactured with an anti-reflective coating, which helps to maximise the amount of light that is absorbed by the cell.

Overall, the F39-HJ1025 cells are highly efficient, durable, lightweight, and capable of withstanding extreme temperatures. Not only do they produce more energy than other photovoltaic cells, but the special carrier multiplication technique also helps to increase the overall efficiency of the cell. As such, the F39-HJ1025 cells are widely used in various applications, from powering vehicles to providing energy for home or business solar panels. These cells are truly revolutionising the renewable energy sector and are paving the way for a more sustainable future.

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