752103472G

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Resistor Networks, Arrays and the 752101472G Application Field and Working Principle

Resistor networks, or arrays, are an important element in electrical engineering and have a variety of applications that are often very specific in terms of the needs of a given project. The 752101472G is an example of such a device and provides an important application field as well as a working principle. In this article we will discuss the basics of resistor networks, their application field and the working principle of the 752101472G in detail.

What are Resistor Networks?

Resistor networks, or resistor arrays, are a type of electronic component formed from multiple resistors interconnected in a regular pattern of circuits. These networks typically contain two or more resistors and are commonly used to divide a voltage or current between two or more output signals with precise specifications. Resistor networks are used in a variety of applications, such as signal division, audio and video signal switching, filtering, gain and cut-off frequency control, and many other applications.

Resistor networks come in many configurations, the most common being the basic 3-resistor and 5-resistor networks. These networks are generally constructed on a printed circuit board with several pads for connection of each resistor. The resistors are connected using solder blobs and usually at right angles, so as to minimize any possible effects from parasitic capacitance.

Application Field of 752101472G

The 752101472G is a 4-resistor network designed for precision voltage and current division. It provides an extremely accurate division ratio between the two outputs, regardless of input voltage or current. The resistance values of the two output resistors are controlled by two precision 10-turn adjustment screws, allowing for precise control over the division ratio. This makes the 752101472G ideal for a variety of applications, such as precision electronic control systems, amplifier circuits, transimpedance conversion, current sensing, and more.

Additionally, the 752101472G features a low power consumption requirement and can handle input voltages of up to 70V. This makes it especially well suited for applications where power consumption is a major concern.

Working Principle of 752101472G

The 752101472G works on a simple principle of voltage divider network, also known as a resistive divider. In a resistive divider, a voltage is divided across two resistors, where the ratio of the voltage across each resistor is equal to the ratio of the resistors\' resistances. This principle is used in the 752101472G to divide a voltage or current between two output signals, where the ratio of the voltage or current across each output is determined by the ratio of the two resistors.

The two precision 10-turn adjustment screws on the 752101472G adjust the resistance of each of the two resistors in the network. This can be used to precisely adjust the ratio of voltages or currents at each output. The accuracy of the ratio is typically within 5%, and this makes the 752101472G ideal for applications requiring precise power control.

Conclusion

Resistor networks, or resistor arrays, are commonly used in a wide variety of applications. The 752101472G is an example of such a network and is designed for precision voltage and current division. This device works on the principle of a resistive divider, where a voltage is divided between two resistors, and the ratio of the voltages across each resistor is equal to the ratio of the resistors\' resistances. The two precision 10-turn adjustment screws on the 752101472G are used to adjust the resistance of each of the two resistors in the network, allowing for precise control over the division ratio.

The 752101472G is well suited for precision electronic control systems, amplifier circuits, transimpedance conversion, current sensing and other applications where low power consumption and precise division are required. With its low power consumption requirement and its ability to handle input voltages of up to 70V, the 752101472G is an ideal choice for applications in which these characteristics are needed.

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