Motor Drive

Industrial equipments require highly reliable and accurate sensors and transducers to control, regulate and protect the heart of power electronics systems. chipsense current and voltage sensors play a critical role in building smarter equipment for UPS, Drives, Welding and automation.

Inverters/UPS  

In many applications UPS play a mission critical role where loss of power is not an option. Current and voltage sensor play a key role in controlling output current accurately to ensure efficiency and managing charging and discharging cycles to ensure long battery life.

Lighting

Lighting control systems reduce energy usage and cost by helping to provide light only when and where it is needed. Lighting control systems typically incorporate the use of time schedules, occupancy control, and photocell control.

Motor protection/monitoring

Motor protection and monitoring is essential for all industrial installations to work properly with adequate safety for machines and equipment. Protection of motors, generators are essential to ensure continuity, reliability and availability of service for industrial process facilities, data centers, hospitals etc.

AC/DC drive

In todays world, wherever there is motion there is likely to be an electric drive. From elevators, conveyors, forklifts, pumps and a variety of motorised process equipment drives are critical for smooth operations and energy saving.

Welding Machines

Current sensors are used in  welding applications to provide a current proportional to the output signal to the PWM driver and feed back control loop. Chipsense current sensors are highly reliable and accurate,foruse  power supplies for welding equipment.

Energy management

Energy management is the proactive, organized and systematic coordination of procurement, conversion, distribution and use of energy to meet the requirements, taking into account environmental and economic objectives.

Battery energy management

Battery health management  predict the end-of-discharge (EOD) event that indicates that the battery pack has run out of charge for any given flight of an electric UAV platform. The amount of usable charge of a battery for a given discharge profile is not only dependent on the starting state-of-charge (SOC), but also other factors like battery health and the discharge or load profile imposed.

Automation Devices

For better technology Automation devices are leading head, The Series of current sensors consists of both current switches and current transducers can be used to activate an external contactor. They can sense external currents with a Solid or Split current sensing ring.

Featured Product

Product No Primary nominal RMS current(A) Measuring range(A) Supply voltage (V) Secondary output Accuracy(%) Output bandwidth Operating Temp.(°C) Copper busbar(mm) PCB Others
CR1V 6 PB00

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CR1V 6 PB01

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CR1V 15 PB00

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CR1V 15 PB01

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CN1A 25 PB00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1V 25 PB00

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CR1V 25 PB01

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CN2A 40 PB01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:
  • IEC 60664-1:2020  IEC 61800-5-1:2022  IEC 62109-1:2010

more...
CS3A 50 P01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CS3A 50 P51

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CN2A 50 PB01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CN2A 80 PB01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CN2A 100 PB01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1A 100 H00

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CR1A 100 H01

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CS3A 100 P00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CS3A 100 P01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CS3A 125 P00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1A 200 H00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1A 200 H01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CM1A 200 H00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1A 300 H00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1A 300 H01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CR1A 300 H02

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CM2A 300 H00

  • Closed loop(compensated)current sensor using the Hall effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion losses
  • Standards:IEC 60664-1: 2020, IEC 61800-5-1: 2022, IEC 62109-1: 2010

more...
CR2A 400 H00

  • Closed loop(compensated)current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
CR2A 500 H00

  • Closed loop(compensated)current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
CM3A 500 H00

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CM3A 500 H01

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
CM4A 1000 H00

  • Closed loop(compensated)current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
CM4A 1000 H03

  • Closed loop(compensated)current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
CM4A 1000 H05

  • Closed loop(compensated)current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
CM5A 2000 H20

  • Closed loop (compensated) current sensor using the Hall Effect
  • Galvanic separation between primary and secondary
  • Insulating plastic case recognized according to UL 94-V0
  • Very good linearity
  • High accuracy
  • Very low offset drift over temperature
  • No insertion loss
  • Standards:IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
AN5V 5 PB00

  • Open loop current sensor using the Hall Effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion loss.
  • Small size.
  • Standards:
  • EN50178: 1997
  • IEC 61010-1: 2000
  • UL 508: 2010

more...
AN5V 10 PB00

  • Open loop current sensor using the Hall Effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion loss.
  • Small size.
  • Standards:
  • EN50178: 1997
  • IEC 61010-1: 2000
  • UL 508: 2010

more...
AN3V 10 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AN5V 15 PB00

  • Open loop current sensor using the Hall Effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion loss.
  • Small size.
  • Standards:
  • EN50178: 1997
  • IEC 61010-1: 2000
  • UL 508: 2010

more...
AN3V 16 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AN5V 20 PB00

  • Open loop current sensor using the Hall Effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion loss.
  • Small size.
  • Standards:
  • EN50178: 1997
  • IEC 61010-1: 2000
  • UL 508: 2010

more...
AN3V 20 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AN5V 25 PB00

  • Open loop current sensor using the Hall Effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion loss.
  • Small size.
  • Standards:
  • EN50178: 1997
  • IEC 61010-1: 2000
  • UL 508: 2010

more...
AS1V 30 H05

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AN3V 32 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AN3V 40 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AN5V 50 PB00

  • Open loop current sensor using the Hall Effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion loss.
  • Small size.
  • Standards:
  • EN50178: 1997
  • IEC 61010-1: 2000
  • UL 508: 2010

more...
AN3V 50 PB30

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+3.3V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AN3V 50 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AS1V 50 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 50 H01

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AN3V 80 PB50

  • Open loop current sensor using the Hall effect.
  • ASIC Technology.
  • Maintain output proportional to changes in the power supply(include offset and sensitivity).
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Small size.
  • Standards: IEC 60664-1:2020, IEC 61800-5-1:2022, IEC 62109-1:2010

more...
AN3V 100 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AS1V 100 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 100 H01

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 100 H07

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AN3V 120 PB50

  • Open loop current sensor using the Hall effect.
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • No insertion losses.
  • Supply voltage:+5V
  • Small size.
  • h=8.7mm
  • Standards:
  • IEC 60664-1:2020
  • IEC 61800-5-1:2022
  • IEC 62109-1:2010

more...
AS1V 200 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 200 H01

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 200 H07

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 300 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 300 H01

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 400 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 400 H01

Open loop current sensor using the Hall Effect.

  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 500 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 500 H01

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 600 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 600 H01

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 700 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...
AS1V 800 H00

  • Open loop current sensor using the Hall Effect.
  • Output voltage is proportional to the supply voltage
  • Galvanic separation between primary and secondary.
  • Insulating plastic case recognized according to UL 94-V0.
  • Supply voltage: +5V
  • No insertion loss.
  • Small size
  • Standards: EN50178: 1997, IEC 61010-1: 2000, UL 508: 2010

more...

R&D capability

Relying on the CHIPSENSE Electronic technology team and collaborating with Institute of Intelligent Sensing Technology Innovation and Application at North China Electric Power University (NCEPU), we efficiently complete the forward research and development of sensors.