Category: Integrated Circuit (IC)
Use: The INA213CIDCKT is a high-precision, low-power, bidirectional current shunt monitor IC. It is commonly used in applications where accurate measurement of current flowing through a shunt resistor is required.
Characteristics: - High precision: The INA213CIDCKT offers excellent accuracy with a maximum offset voltage of 100µV and a gain error of only 0.5%. - Low power consumption: This IC operates at a low supply current of 350µA, making it suitable for battery-powered devices. - Bidirectional current sensing: It can measure both positive and negative currents, allowing for versatile applications. - Wide input voltage range: The INA213CIDCKT can handle input voltages ranging from -16V to +80V, providing flexibility in various systems. - Temperature stability: With a low temperature drift of 50ppm/°C, this IC ensures reliable performance over a wide temperature range.
Package: The INA213CIDCKT is available in a small SOT-23 package, which is compact and easy to integrate into circuit designs.
Essence: The essence of the INA213CIDCKT lies in its ability to accurately measure current flow through a shunt resistor, enabling precise monitoring and control of power systems.
Packaging/Quantity: This IC is typically sold in reels containing 3000 units per reel.
The INA213CIDCKT has a total of 6 pins, which are assigned as follows:
Advantages: - High precision and accuracy - Low power consumption - Bidirectional current sensing capability - Wide input voltage range - Compact package size
Disadvantages: - Limited bandwidth compared to some other current monitor ICs - Higher cost compared to less precise alternatives
The INA213CIDCKT operates based on the principle of measuring the voltage drop across a shunt resistor. It amplifies this voltage drop and provides an output voltage proportional to the current flowing through the shunt resistor. By accurately measuring this voltage, the IC enables precise current monitoring and control.
The INA213CIDCKT finds application in various fields, including but not limited to: 1. Power management systems 2. Battery charging and monitoring 3. Motor control systems 4. Solar power systems 5. Industrial automation
Some alternative models that can be considered as alternatives to the INA213CIDCKT are: 1. INA210 2. INA211 3. INA212 4. INA214 5. INA215
These models offer similar functionality and characteristics, providing options for different design requirements.
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Sure! Here are 10 common questions and answers related to the application of INA213CIDCKT in technical solutions:
Q: What is the INA213CIDCKT? A: The INA213CIDCKT is a high-precision, low-drift, bidirectional current shunt monitor IC.
Q: What is the purpose of using the INA213CIDCKT? A: The INA213CIDCKT is used to accurately measure and monitor current flowing through a shunt resistor in various applications.
Q: How does the INA213CIDCKT measure current? A: The INA213CIDCKT measures current by sensing the voltage drop across a shunt resistor and converting it into a proportional output voltage.
Q: What is the maximum current range that the INA213CIDCKT can measure? A: The INA213CIDCKT can measure currents up to ±26A with a typical accuracy of 0.5%.
Q: Can the INA213CIDCKT be used for both AC and DC current measurements? A: Yes, the INA213CIDCKT can be used for both AC and DC current measurements.
Q: Does the INA213CIDCKT require an external power supply? A: Yes, the INA213CIDCKT requires a single positive power supply between 2.7V and 26V.
Q: What is the output voltage range of the INA213CIDCKT? A: The output voltage range of the INA213CIDCKT is typically ±250mV.
Q: Can the INA213CIDCKT provide overcurrent protection? A: No, the INA213CIDCKT does not have built-in overcurrent protection. External circuitry may be required for overcurrent protection.
Q: What is the operating temperature range of the INA213CIDCKT? A: The INA213CIDCKT can operate within a temperature range of -40°C to +125°C.
Q: What are some typical applications of the INA213CIDCKT? A: The INA213CIDCKT is commonly used in power management systems, motor control, battery monitoring, and current sensing applications.
Please note that these answers are general and may vary depending on specific datasheet specifications and application requirements.