Y1713V0517BT9L

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 and Arrays are a key component in many types of electronic circuits, providing the propensity to assign complex configurations to supply and control a variety of different applications. The Y1713V0517BT9L is an example of this type of resistor network; this model is particularly useful for applications in low power and high speed digital systems. This paper will discuss the application fields of the Y1713V0517BT9L resistor network, as well as its operating principle.

Application Fields

The Y1713V0517BT9L resistor network possesses many features which make it suitable for a variety of different applications. It is designed for use in low power and high speed circuits, and is particularly suited for use with n-type transistors and field-effect transistors (FETs). It can also be used in microcontroller- or microprocessore-based circuits, as the Y1713V0517BT9L is resistant to interference due to its low power consumption. Additionally, it can be utilized in current-limiting applications, both for high-side and low-side configurations. Its low parasitic capacitance renders it suitable for use in high frequency switching circuits, such as those found in telecommunications and audio/video equipment. Moreover, the Y1713V0517BT9L is designed for reliable operation in both high and low-temperature environments.

Working Principle

The Y1713V0517BT9L operates on a simple, yet efficient, principle. This particular resistor network is designed so that multiple resistors are connected in parallel within the network, allowing for both linear and non-linear resistance settings. This provides the flexibility of being able to adjust each resistor to its own setting, allowing for precise resistor values in both low and high-power applications. Additionally, the Y1713V0517BT9L utilizes a two-terminal configuration, which allows for easy installation on printed circuit boards, while the integrated network configuration reduces the risk of component failures due to connection shorts.

The Y1713V0517BT9L also boasts a number of additional features which make it an attractive choice for many circuit applications. It utilizes small chip capacitors, allowing for further reductions in component size. Furthermore, the resistor network is designed to guarantee up to 200 mV of maximum forward drop voltage. This feature ensures that the Y1713V0517BT9L is able to maintain accurate voltage levels even under high loads. The Y1713V0517BT9L also has a wide temperature range of -40°C to 125°C, allowing for reliable operation in a variety of ambient temperatures.

Conclusion

The Y1713V0517BT9L resistor network possesses a range of features which make it an ideal choice for many circuit applications. Its high power handling capacity, low parasitic capacitance, and wide temperature range make it suitable for use in a variety of environments, from low-power and low-frequency digital systems to high frequency switching circuits. Its two-terminal configuration makes installation on printed circuit boards simple, while its integrated network configuration reduces the risk of component failures due to connection shorts or accidental overloads. The Y1713V0517BT9L is thus well-suited for use in a wide range of electronic applications, making it a reliable and cost-effective choice.

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