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Multi-Channel PV Module Steady-State Testing System

Multi-channel design enables parallel IV and MPPT testing. 3A LED simulator ensures stable AM1.5G illumination. Independent 25–100°C control keeps each module stable. Supports 50×50 to 300×300 mm modules for flexible testing.
  • Le Cheng
  • Shanghai
  • Three months
  • Fifty sets within the year

Product Description

The MCT10-300-20T Multi-Channel PV Module Steady-State Testing System is a high-throughput platform designed to evaluate the illumination stability, temperature reliability, and long-term electrical performance of thin-film, perovskite, and tandem PV modules. Equipped with a 3A-grade LED steady-state solar simulator, independent temperature-controlled channels, and a flexible multi-mode testing platform, the system supports continuous I-V scans, MPPT tracking, and degradation monitoring under precisely controlled conditions.

The Multi-Channel PV Module Steady-State Testing System accommodates module sizes from 50×50 mm to 300×300 mm, covering perovskite small cells, mini-modules, and flexible devices. The simulator supports selectable spectral ranges (300–1100 nm / 300–1200 nm), adjustable irradiance (100–1100 W/m²), and calibrated AM1.5G matching to ensure measurement accuracy.

Module Compatibility Table

Supported SizeDimensions (mm)Substrate Type
Small Cells50×50Glass / Flexible
Mid-Size158×158Glass / Flexible
Mid-Size220×220Glass / Flexible
Mini-Modules300×300Glass / Flexible

Multi-Channel PV Module Steady-State Testing System

The testing platform integrates high-precision lifting and sliding mechanisms. The lifting module adjusts the light-source height from 10–40 cm with 0.1 cm resolution, while the horizontal sliding platform switches between multi-channel mode (up to 20 channels) and single large-module testing.

Illumination System Details (3A LED Simulator)

The LED steady-state solar simulator delivers industry-standard 3A performance, ensuring accurate optical exposure for long-duration stability studies.

Illumination Performance Table

ParameterSpecification
Spectral Range300–1100 / 350–1100 / 300–1200 / 350–1200 nm
Irradiance Range100–1100 W/m²
Uniformity≤2%
Temporal Instability≤±2%
Spectral MatchA / A+
Adjustable Distance10–40 cm (0.1 cm precision)
LED Lifetime10,000 h

PV Module Steady-State Test System

Multichannel Solar Stability Tester

Multi-Channel PV Module Steady-State Testing System

The combination of adjustable irradiance, high uniformity, and low time instability ensures that all modules experience consistent, repeatable illumination—an essential condition for light-soaking stability experiments in perovskite and thin-film PV research.

Product Advantages

1. Multi-Channel Electrical Testing (Up to 20 Channels)

The system incorporates independent electrical source-measure units (SMUs) enabling simultaneous multi-channel testing without interference between channels. Each channel supports individual I-V sweeps, MPPT algorithms, and continuous monitoring of critical PV parameters.

Multi-Channel Electrical Specifications

Electrical ItemMulti-ChannelSingle ChannelPerovskite Single
Voltage Range10 V / 18 V80 V100 V
Current Range0.5–1 A20 A1 A
Min Voltage Range1 V10 V300 mV
Min Current Resolution5 μA1 mA100 nA
Accuracy0.1%0.1 mV / 0.1 mA±(0.025%+0.025%FS)

PV Module Steady-State Test System

This wide measurement range supports:

  • Perovskite pixel-level devices

  • Tandem mini-modules

  • High-current crystalline-silicon modules

The system allows each device to operate with its own electrical parameters, enabling realistic performance benchmarking across different material systems.

2. Independent Temperature Control Per Channel

Each testing position integrates a dedicated heating plate with feedback-controlled thermal regulation that maintains stable and consistent temperatures, ideal for accelerated aging and thermal drift studies.

Temperature System Table

ParameterSpecification
Temperature Range25–100°C
Stability±2°C
Feedback Accuracy0.1°C
Monitoring MethodPatch-type thermocouple
DisplayReal-time temperature curves
Channel OperationFully independent

Unlike shared heating environments, this design ensures that each sample receives identical but isolated thermal conditions—preventing cross-heating effects and improving reliability of data comparison.

3. Intelligent Software and Automated Data Management

The software is fully developed in-house and supports multi-channel control, real-time display, long-term monitoring, and automated data storage.

Software Capability Table

FunctionDescription
I-V Test ModesForward/Reverse Scan, Dynamic IV, 9-Point Fit
MPPT AlgorithmsPerturb & Observe, Incremental Conductance, Constant Voltage
Data TypesVoc, Isc, FF, PCE, Pmax, Imax, Vmax, Rs, Rsh
Data LoggingAutomatic, timed, per-channel or unified
Temperature DisplayReal-time curve, multi-channel monitoring
Multi-Channel ControlIndependent on/off, parameter settings, temperature control

This allows researchers to run long-duration experiments with minimal manual intervention.

4. Structural and Mechanical Integration

The system's mechanical layout keeps all modules isolated and easy to access while maintaining a dust-resistant and stable testing environment.

Mechanical & Structural Features

ComponentFeature
Light SourceDownward-illumination structure
PlatformLeft-right sliding for mode switching
HousingDust-proof enclosure
CoolingForced air circulation
OptionalHumidity control module

Application Range

Multi-Channel PV Module Steady-State Testing System is suitable for:

  • Perovskite module long-term light soaking tests

  • Tandem cell stability verification and MPPT efficiency studies

  • Thin-film module thermal and optical degradation analysis

  • High-throughput material screening in research institutions

  • PV module reliability labs conducting extended aging experiments

Final Key Technical Summary Table

CategoryDetails
Light Source3A LED, 100–1100 W/m², A/A+ spectral match
Spectrum Range300–1200 nm (optional combinations)
Module Support50×50 / 158×158 / 220×220 / 300×300 mm
Temperature System25–100°C, ±2°C stability, 0.1°C accuracy
Channels4 / 8 / 20 channels, independent control
Electrical SpecsUp to 100 V & 20 A
SoftwareIV/MPPT/Temperature tracking, auto-save
Dimensions1200 × 800 × 1800 mm
CoolingAir cooling
OptionalHumidity control


  • How long does it take from equipment ordering to official production when cooperating with Locsen?

    The overall timeline varies depending on equipment specifications and production line scale. For standalone equipment, standard models require a 45-day manufacturing cycle, with total duration (including shipping and installation) of approximately 60 days. Customized equipment requires an additional 30 days based on technical requirements. For complete line solutions: • 100MW-level production lines require ~4 months for planning, equipment manufacturing, installation, and commissioning • GW-level production lines require ~8 months We provide detailed project schedules with dedicated managers ensuring seamless coordination. Example: A client's 1GW perovskite production line was completed 15 days ahead of schedule through parallel equipment manufacturing and facility construction.
  • Does Locsen offer suitable equipment and partnership solutions for startup perovskite companies

    Locsen offers a "Phased Partnership Program" specifically designed for perovskite startups. For the initial R&D phase, we provide compact pilot-scale equipment (e.g., 10MW laser scribing systems) bundled with essential process packages to facilitate technology validation and product iteration. During scale-up phases, startups qualify for upgrade benefits: • Core modules from pilot equipment can be traded in with value deduction toward production-line machinery • Optional technical collaboration including process development support and experimental data sharing This program has successfully enabled multiple startups to transition smoothly from lab to pilot production while mitigating early-stage investment risks.
  • Can Locsen's equipment handle perovskite solar cells of varying sizes? What is the maximum supported dimension?

    Locsen's laser equipment features exceptional size compatibility, capable of processing perovskite solar cells ranging from 10cm×10cm to 2.4m×1.2m. For oversized cell processing (e.g., 12m×2.4m rigid substrates), we offer customized gantry-type laser systems with multi-laser-head synchronization to ensure both precision and throughput. • Proven Performance: Successfully processed 1.2m×0.6m cells with industry-leading scribing accuracy (±15μm) and uniformity (>98%) • Modular Design: Swappable optical modules adapt to varying thicknesses (0.1-6mm) • Smart Calibration: AI-assisted real-time beam alignment compensates for substrate warpage
  • Does Locsen provide tailored laser solutions for all key production stages of perovskite solar cells?

    Yes, Locsen provides comprehensive laser processing solutions covering the entire perovskite solar cell production chain: P0 Laser Marking: For cell identification post-film deposition P1/P2/P3 Laser Scribing: Precision patterning of • Transparent conductive layers (P1) • Perovskite active layers (P2) • Back electrodes (P3) P4 Edge Isolation: Micron-level edge trimming to prevent short-circuiting Tandem Cell Modules: Dedicated laser etching systems for multi-material layer processing Our integrated equipment ecosystem ensures all laser processing requirements are met with: • ≤20μm alignment accuracy across layers • Thermal Affect Zone controlled under 5μm • Modular platforms supporting R&D to GW-scale production
  • What composition tolerance ranges do Locsen's tools support for variant perovskite formulations?

    Locsen's laser systems demonstrate exceptional adaptability to diverse perovskite compositions. • Preloaded Parameters: Optimized settings for mainstream formulations (e.g., FAPbI₃, CsPbI₃) in the laser recipe library enable instant operator access • R&D Support: For novel compositions (e.g., Sn-based perovskites), our team delivers: Custom wavelength/fluence calibration within 72 hours Performance validation ensuring <1% PCE degradation post-processing • Smart Compensation: On-board spectroscopy modules monitor reflectivity in real-time, automatically adjusting: Pulse duration (20-500ns) Beam profile (Top-hat/Gaussian) Energy density (0.5-3J/cm²) Technical Highlights: ▸ Tolerance for ±15% stoichiometric variation in Pb:Sn ratios ▸ Support for 2D/3D hybrid phase patterning ▸ Non-contact processing avoids cross-contamination

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