FDC02SXNN

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Shunts and jumpers serve a variety of electrical and electronic applications. The FDC02SXNN Shunt is a versatile current-sensing device, designed specifically to accurately detect very small DC current flows in model railroad control and communication systems. FDC02SXNN jumpers and shunts provide multiple applications for both static and dynamic current flows.

Definition

A shunt is a device used to measure or control the flow of electrical current. It is used to divert a small amount of current away from circuits in order to measure or measure small current signals. Shunts are an important part of circuit design and often used in a variety of ways.

A jumper is an electrical connector with two metal pins that can be connected or bridged together. A jumper is typically a small metal bridge between two pins in the circuitry of an electronic device. They are used to change the behavior of a circuit, usually to short one side of a circuit to the other side.

Application Field of FDC02SXNN Shunts

The FDC02SXNN shunt is a very useful device, specifically designed for model railroad applications. It accurately detects very small DC current flows in model railroad control and communication systems. It is used in flatpak design to fulfill the current measurement requirements. It can measure current from 0-1.5 Amps with long term accuracy better than 1.0%. It can serve multiple application, ranging from static to dynamic current flow.

It is used in the following application fields:

• Power Over Ethernet (POE) Control Applications
• Sensor interfacing
• Battery management systems
• Lighting systems
• Model railroad control and communication systems
• Low voltage alarm systems
• Control and communications systems

Working Principle of FDC02SXNN Shunts

The FDC02SXNN shunt works by diverting a small, measurable amount of current away from the circuit it is connected to, allowing it to be measured accurately. The measurement range is from 0-1.5 Amps, with an accuracy of better than 1.0%. A shunt is essentially a resistor connected in parallel with a source circuit. It has two leads, one lead on the source circuit and the other on the shunt.

When current flows through the shunt, a small voltage is generated across the shunt. This voltage is proportional to the current flowing through the circuit. The voltage generated is measured by a voltmeter or other type of measurement device and can then be used to calculate the current.

The FDC02SXNN shunt can also be used as a jumper to create a connection between two pins or terminals. The two terminal pins on the shunt can be bridged with a metal bridge, usually solder, to create an electrical connection between them.

Advantages

Shunts and jumpers offer many benefits in terms of size, cost, and accuracy. They are much smaller in size than traditional current-sensing devices, making them ideal for tight spaces. They are also extremely cost-effective, as they are cheaper than traditional current sensing devices.

The FDC02SXNN also offers better accuracy than traditional current-sensing devices. Its measurement range of 0-1.5 Amps ensures precise readings and its accuracy of better than 1.0% ensures reliable results.

Conclusion

The FDC02SXNN shunt is a versatile current-sensing device, designed specifically for model railroad applications. It offers accurate, reliable, and cost-effective current measurements from 0-1.5 Amps with an accuracy of better than 1.0%. The FDC02SXNN can also be used as a jumper, allowing two terminal pins to be connected together.

Shunts and jumpers are an essential component in circuit and device design and offer a multitude of benefits, including size, cost, and accuracy. The FDC02SXNN shunt is a testament to the versatility of shunt and jumper devices and provides reliable and precise current measurements in a wide range of applications.

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