AF164-FR-07124KL

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Resistor Networks, Arrays

Resistor networks are designed to provide a combination of parallel and series networking of resistors to accomplish specific objectives. The AF164-FR-07124KL application field and working principle are typically used in high-voltage, high-current circuits to provide a specific level of impedance or attenuation with adjustable current. In these applications, they can be used to protect and control power supplies and/or electronic circuits.

The AF164-FR-07124KL application field affects the overall performance of the resistor network, allowing for the resistor\'s physical properties to be tailored to the design requirements. For example, the application field may determine the resistor\'s size and maximum operating temperatures. The application field and working principle also affect the resistance range of the resistor network, the current capacity of the network, and the frequency response of the network. The application field may also affect the resistance tolerance of the networks.

The fundamental working principle of a resistor network is to provide a specific level of impedance (resistance) by using one or more resistors in a particular arrangement. The particular arrangement of the resistors and the value of their impedance determines the overall impedance of the network. A resistor network typically consists of resistors connected in either series or in parallel. In series connections, resistors are connected in line with each other, such that the same identical current flows through each resistor. In parallel connections, the same voltage is applied across each resistor, such that the voltages are additive.

The most common types of resistor network configurations are bridge networks, voltage divider networks, and current divider networks. Bridge networks are typically used for equal or nearly equal impedance bridging and to establish desired common mode impedances. These topologies provide extremely good high frequency performance with low self-heating and minimal insertion loss. Voltage divider networks are typically used in high voltage applications where two or more resistors are used to divide a voltage at a predetermined ratio. The two most common voltage division topologies are cascaded and folded cascaded resistors.

Current divider networks, on the other hand, are typically used in impedance matching and power conditioning applications. These networks divide a current at a predetermined ratio and are usually arranged in either a bridge or a nested configuration. A nested configuration is more robust than a bridge type configuration and is commonly used in high-current, low-voltage applications. The two most common current divider topologies are the parallel-series and series-parallel networks.

By understanding the AF164-FR-07124KL application field and working principle, engineers and designers can determine the appropriate type of resistor network for a given application. Knowing the application field can help in selecting the correct network type, while working with the proper principles helps define the resistor\'s required size and maximum temperature rating. Armed with this information, engineers can then design and build reliable and accurate resistor networks for their applications.

The specific data is subject to PDF, and the above content is for reference