BMS Testing & Battery Simulation System
SKU: ABG-BAT-BMS-004
Hardware-in-the-loop-oriented platform for BMS functional, communication and fault-validation workflows.
Overview
A programmable BMS validation platform that replaces many hazardous real-battery extreme-condition tests with controlled battery simulation. The referenced CE-6'S-BMS-24S300A combines 24-channel cell simulation, high-precision current sourcing, temperature simulation, high-voltage source simulation and insulation testing.
Key Features & Highlights
24-channel battery simulation
Simulates individual cell voltages from 0–6 V with 0.5 mV accuracy on the referenced system.
300 A current source
Three current-source ranges of 50 A, 100 A and 300 A with ±0.05% F.S. accuracy.
High-voltage simulation
Programmable 0–1500 V high-voltage source with integrated insulation and withstand testing.
17 core BMS scenarios
Official ABG material describes coverage of 17 core BMS test scenarios including balancing, SOC, relay, power, charging, thermal and fault strategies.
Key Capabilities
Cell voltage simulation
Independently simulate battery-cell voltage conditions for BMS measurement and protection validation.
Current-source testing
Apply controlled charge/discharge current conditions using the configured current source.
Temperature simulation
Eight-channel NTC simulation using adjustable resistance.
HV and insulation testing
Simulate high-voltage conditions and insulation resistance for BMS safety validation.
Communication validation
Supports CAN, RS485, IIC, SMBus and Ethernet interfaces on the referenced platform.
Fault and protection validation
Validate over/under-voltage, over-temperature and other configured protection strategies.
Applications
BMS algorithm validation
SOC, balancing and control strategy verification.
BMS protection testing
Controlled extreme-condition and fault-response validation.
Automotive BMS development
ECU/BMS communication and control validation.
ESS BMS validation
Battery-management validation for stationary energy storage.
Industries Served
Automotive OEMs
EV BMS development and validation.
Battery manufacturers
BMS engineering and production validation.
ESS manufacturers
Rack and system BMS validation.
Engineering laboratories
Independent BMS validation and qualification testing.
Testing / Operating Workflow
1. Define BMS test matrix
Map measurement, balancing, protection, communication and control requirements.
2. Configure simulated battery
Set cell voltage, current, temperature, HV and insulation conditions.
3. Execute automated sequence
Run programmable BMS test scenarios and capture responses.
4. Compare against limits
Analyze BMS-reported voltage, current, temperature and resistance values against reference conditions.
5. Report and trace
Export results and maintain barcode-linked test records where configured.
Software & Data Management
Programmable test steps
Test steps can be freely programmed for customer-specific BMS validation requirements.
Automated comparison
Software can compare BMS readings against standards and calculate maximum, minimum and average errors.
Traceability
Excel export and 1D/2D barcode tracking are supported in the referenced system.
Safety & Protection
Simulated extreme conditions
Use controlled simulation instead of repeatedly subjecting physical battery packs to hazardous overcharge, over-discharge and short-circuit conditions.
Insulation resistance
Referenced system supports 50 Ω–100 MΩ insulation resistance simulation.
Withstand voltage
Referenced system supports withstand capability up to 2000 V.
System Integration
Communication protocols
CAN, RS485, IIC, SMBus and Ethernet are supported on the referenced system.
ECU / controller / charger interaction
PC software can simulate devices communicating with the BMS according to configured protocols.
Custom I/O and device adaptation
Custom development can be considered for customer-specific BMS and I/O requirements.
Configuration Options
Battery simulation
24 channels; 0–6 V per simulated cell; 0.5 mV voltage accuracy on the referenced system.
Current source
50 A / 100 A / 300 A ranges; ±0.05% F.S. accuracy; 24-bit resolution.
Temperature simulation
8 channels; adjustable resistance 2 Ω–1 MΩ.
High-voltage source
0–1500 V; 0–3.5 A.
Insulation simulator
50 Ω–100 MΩ; withstand capability up to 2000 V.
Benefits & Value Proposition
Safer BMS validation
Controlled simulation reduces dependence on hazardous physical-battery fault testing.
Faster test development
Programmable scenarios and automated comparison accelerate engineering validation.
Repeatable conditions
Precisely controlled simulated conditions improve test repeatability.
Frequently Asked Questions
How many battery channels are simulated?
The referenced CE-6'S-BMS-24S300A provides 24 simulated battery channels.
Can it test BMS communication?
Yes. CAN, RS485, IIC, SMBus and Ethernet are supported on the referenced system.
Can customer-specific BMS tests be programmed?
Yes. The official product information states that test steps can be freely programmed and custom development is available for customer-specific BMS requirements.
Technical Specifications
| Reference model | ABG CE-6'S-BMS-24S300A |
| Battery simulation | 24 channels; 0–6 V per channel |
| Simulated cell voltage accuracy | 0.5 mV |
| Current-source ranges | 50 A / 100 A / 300 A |
| Current accuracy | ±0.05% F.S. |
| Current-source resolution | 24-bit |
| Temperature simulation | 8 channels; adjustable resistance 2 Ω–1 MΩ |
| High-voltage source | 0–1500 V; 0–3.5 A |
| Insulation resistance simulation | 50 Ω–100 MΩ |
| Maximum withstand capability | 2000 V |
| Communication | CAN, RS485, IIC, SMBus, Ethernet |
Technical buying guidance
Related buyer guides & requirements
Battery Tester Selection Guide
Define voltage, current, channels, temperature and data requirements before finalising a battery test-system configuration.
Read guideBattery Pack Testing Requirements
Review pack-level electrical, validation and test-matrix inputs where the product is used for pack testing.
Read guideBMS Testing Validation Lab
Connect battery testing with BMS simulation, communication, I/O and laboratory validation requirements.
Read guideTell Us About Your Testing Requirement
Share what you already know. You do not need to have every specification finalized before starting a technical discussion.