• GENERAL DATA

    •Ambient Operating Temperature: -40 to +130 °C

    •Ambient Storage Temperature: -40 to +130 °C

    •Creepage Distance: 1.4 mm

    •Clearance Distance: 1.4 mm

  • ABSOLUTE MAXIMUMS

    •Over-Voltage Vdd Protection: +10 V

    •Output Voltage Max: +10 V

    •Output Current Max: +/- 70 mA

    •Reverse Output Voltage Max: -0.3 V

    •Reverse Output Current Max: -50 mA

NOTES:

•All specifications at 25°C.

•Specifications dependent on mechanical attachment.

•Specifications are % full scale.

•Output slope is dependent on Vdd.

•Specifications above assumes 5 Vdd.

•Specifications subject to change without prior notice.

Frequently Asked Questions (FAQs)

How does the ISE-A 800 measure current?

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It uses an open-loop Hall-effect sensor to detect magnetic fields around the conductor, enabling isolated measurement without inserting resistance or causing power loss.

Why is the output ratiometric?

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The output scales with the 5 V supply, ensuring sensor and ADC track together, which reduces measurement error in systems using the same reference.

How do the different current ranges affect resolution?

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Lower ranges (±50 A) provide higher sensitivity, while higher ranges (±200 A) allow measurement of larger currents with lower slope.

What is the benefit of the 200 kHz bandwidth?

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It allows accurate sensing of DC, AC, switching ripple, and fast transients used in converters and motor drives.

How fast is the sensor?

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≈3 µs response supports real-time feedback and quick detection of overcurrent or switching events.

How should the sensor be mounted for best accuracy?

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Keep the primary conductor centered and use non-magnetic hardware to avoid field distortion.

Does it provide isolation?

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Yes — the Hall-effect structure provides galvanic separation, and creepage/clearance spacing supports board-level industrial applications.

How stable is it over temperature?

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It maintains accuracy across –40 °C to +130 °C, with predictable drift that can be corrected through system calibration.

What system noise considerations apply?

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Use short traces and good grounding for the analog output; optional RC filtering improves ADC stability.

When is this sensor preferred over a shunt resistor?

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When low power loss, isolation, compact PCB footprint, or wide bandwidth is needed for converters, motor drives, or battery systems.