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CT-4008Q-5V100mA-124

For Coin Cells, Super Capacitors, Three-Electrode Systems Testing and etc. The product (CT-4008Q-5V100mA-124) adopts a modular design, with each unit having 8 channels, which can be independently data acquisition and programmed, with a maximum number of editable lines supporting 254 lines.

Quantity

Key Highlights

  • 8 independent channels with independent data acquisition and programming

  • Voltage range up to 5 V

  • Current range from 0.2 µA to 100 mA

  • 4 selectable current ranges for accurate low-current measurements

  • Voltage & current accuracy of ±0.01% F.S.

  • Voltage & current stability of ±0.02% F.S.

  • 0.5 W output power per channel

  • Current response time ≤1 ms in the technical specifications

  • 500 ms minimum pulse width

  • 10 Hz recording frequency

  • 100 ms sampling time

  • Supports CC/CV charge and discharge

  • Supports GITT, DCIR, pulse simulation, cycle life, and rate charge/discharge testing

  • Built-in dQ/dV differential capacity analysis

  • Up to 254 programmable work-step lines

  • 1 GB offline testing capability

  • Compact 1U modular design

  • Supports connection to auxiliary voltage, temperature, and environmental test equipment

Description

The NEWARE CT-4008Q-5V100mA-124 is an 8-channel battery testing system designed for precise characterization of coin cells, supercapacitors, three-electrode systems, and other small energy storage devices. Each channel provides independent data acquisition and programming, with four selectable current ranges from 0.2 µA to 100 mA. This multi-range design allows researchers to select an appropriate current range for different test conditions and maintain accurate measurements, particularly for low-current applications. The system supports a broad range of battery testing methods, including cycle-life testing, rate charging/discharging, pulse simulation, GITT, DCIR, and dQ/dV analysis. It also supports CC/CV charge-discharge testing, segmented data recording, and DBC protocol configuration, making it suitable for flexible battery research and testing workflows. Its compact 1U modular design allows multiple units to be assembled into a larger testing system when higher channel capacity is required.

Specifications

Parameter

Specification

Equipment Name

CT-4000 Battery Testing System

Model

CT-4008Q-5V100mA-124

Number of Channels

8 channels

Channel Operation

Independent data acquisition & programming

CV Output Range

10 mV – 5 V

Minimum Discharge Voltage

−5 V

Voltage Accuracy

±0.01% F.S.

Voltage Stability

±0.02% F.S.

Current Range 1

0.2 µA – 0.1 mA

Current Range 2

0.1 mA – 1 mA

Current Range 3

1 mA – 10 mA

Current Range 4

10 mA – 100 mA

Current Accuracy

±0.01% F.S.

Current Stability

±0.02% F.S.

CV Cut-off Current

0.1 µA / 1 µA / 10 µA / 0.1 mA, according to current range

Output Power

0.5 W/channel

Power Stability

±0.1% F.S.

Recording Frequency

10 Hz

Sampling Time

100 ms

Current Response Time

≤1 ms*

Minimum Pulse Width

500 ms

Maximum Programmable Steps

254 editable lines

Offline Testing

1 GB

Working Step Time

≤365 × 24 h/step

Design

1U modular

*Note: The product highlights state a current response time of ≤500 µs (10–90% F.S.), while the detailed technical-specification table states ≤1 ms. For the RYTS website, I recommend using ≤1 ms in the formal specification table unless NEWARE confirms which value should be applied to this specific model.

 

Application

The CT-4008Q-5V100mA-124 is suitable for:

  • Coin Cell Testing

  • Supercapacitor Testing

  • Three-Electrode Cell Testing

  • Battery Materials Research

  • Solid-State Battery Research

  • Cycle Life Testing

  • Rate Charging / Discharging

  • GITT (Galvanostatic Intermittent Titration Technique)

  • DCIR Testing

  • Pulse Testing

  • dQ/dV Differential Capacity Analysis

  • Small Energy Storage Device Characterization

NEWARE also lists this model within applications involving consumer electronics, coin cells, and monitoring/alarm systems, while the CT-4000 platform is used across battery research and related energy-storage applications.

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