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  • LC-SPV-ST-2525 Space Photovoltaic Module Stability Test System
  • LC-SPV-ST-2525 Space Photovoltaic Module Stability Test System
  • LC-SPV-ST-2525 Space Photovoltaic Module Stability Test System
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LC-SPV-ST-2525 Space Photovoltaic Module Stability Test System

1. Integrated AM0 light, thermal stage, and testing system in one cabinet. 2. Class A AM0 spectrum with extreme temperature simulation from -180°C to +150°C. 3. Multi-channel IV and MPPT testing enables high-throughput space PV evaluation. 4. Automated software supports 24/7 unattended stability and aging tests.
  • Le Cheng
  • Shanghai
  • Three months
  • Fifty sets within the year

Product Description

LC-SPV-ST-2525 Space PV Module Stability Test System is a turnkey laboratory solution that brings the critical elements of outer-space photovoltaic testing into one compact, highly integrated cabinet: Class A AM0 LED solar simulation, an ultra-wide temperature precision thermal stage, multi-channel electrical measurement, and intelligent automation software. It is designed for advanced space PV technologies such as GaInP₂/GaAs/Ge triple-junction cells and perovskite/silicon tandem cells, supporting device screening, long-term stability evaluation, and qualification-style verification. 

Traditional space PV test benches often suffer from scattered instruments, complex cabling, unstable interfaces, and time-consuming setup. LC-SPV-ST-2525 addresses these pain points through a plug-and-play cabinet architecture, improving test repeatability and lab efficiency, while reducing wiring errors and daily maintenance workload. 

To simulate the “space environment” in the most essential dimensions, the system combines:

  • AM0 spectral fidelity (for extraterrestrial irradiance conditions)

  • Extreme thermal cycling capability (for eclipse / sunlight transition conditions)

  • High-precision electrical characterization (for I-V / MPPT and degradation tracking)

  • Automation & data integrity (for long-duration and unattended experiments) 

Space Solar Module Stability Test System


Product Functions

1) Class A AM0 LED Solar Simulation (IEC 60904-9 Edition 3 AM0)

The integrated AM0 LED solar simulator provides Class A performance across spectral match, uniformity, and long-term stability, enabling accurate extraterrestrial PV characterization and aging studies.

AM0 Light Source Performance


ItemSpecification
Standard / SpectrumIEC 60904-9 Edition 3 (AM0)
Spectral MatchClass A (350–1800 nm)
Irradiance Uniformity≤ ±2% (Class A)
Long-Term Instability≤ ±2% (Class A)
Standard Irradiance1367 W/m² (1 Solar Constant)
Irradiance Adjustment100–1500 W/m² (Continuous)
Lifetime> 10,000 hours


AM0 Solar Cell Testing Equipment

This allows users to perform AM0 efficiency validation, light soaking, and performance drift studies with controlled, repeatable exposure. 


2) Ultra-Wide Temperature Precision Thermal Stage (-180°C to +150°C)

The precision photoelectric thermal stage supports extreme temperature simulation comparable to space thermal cycling conditions. Fast ramp rates help shorten test cycles, while high control precision supports reliable parameter comparisons.

Thermal Stage Capability

ItemSpecification
Temperature Range-180°C to +150°C
Control Accuracy (Setpoint)±0.1°C
Temperature Stability±0.5°C (Long-term hold)
Ramp Rate≥ 15°C/min
Electrical Probing4 Kelvin probes, independently adjustable
Observation WindowSapphire window + heated anti-fog
Vacuum Compatibility1×10⁻³ Pa (optional vacuum chamber)

This module enables low-temperature performance mapping, thermal stress screening, and temperature-dependent degradation evaluation for space PV devices.


3) Multi-Channel I-V Scan, Hysteresis, and MPPT Tracking (1–9 Channels)

To increase throughput, the system supports 1–9 independent channels for parallel measurements. Each channel can run I-V scans and MPPT tracking, allowing fast comparison of multiple devices, recipes, or process conditions.

Electrical Measurement (Per Channel)


ItemSpecification
Voltage Range0 to ±60 V
Current Range0 to ±5 A
Accuracy≤ 0.1% F.S.
Scan TypesForward / Reverse / Loop (Hysteresis)
MPPT AlgorithmsP&O, Incremental Conductance


Space Photovoltaic Reliability Testing System

For perovskite and tandem devices, hysteresis loop scans help quantify instability effects related to ion migration or transient response, while MPPT tracking records realistic maximum-power behavior over time. 


4) Intelligent Automation, Visualization, and Report Generation

The system integrates an industrial PC and a high-definition display for stable long-term operation, remote control, and visualized data tracking. Automated sequence control supports 24/7 unattended tests with consistent execution and traceable data logs.

Automation & Software Functions

ModuleWhat It Does
Sequence AutomationEdit complex test workflows; unattended 7×24
Real-Time VisualizationI-V, P-V, MPPT trajectories in real time
Report OutputOne-click professional test reports
Data ManagementLocal large storage + network backup
Safety ProtectionOver-temp / over-current / leakage protection
Emergency StopPhysical emergency power cut-off

This enables long-duration stability studies (light soaking + thermal cycling) with reduced manual intervention and improved data integrity. 


Features

Integrated Cabinet Design (Plug-and-Play)

  • One cabinet integrates light, thermal, measurement, and control.

  • Reduces scattered instruments and complex wiring.

  • Compact footprint improves lab space efficiency and professional appearance. 

True Space Condition Simulation

  • Class A AM0 spectrum for extraterrestrial irradiance.

  • -180°C to +150°C for extreme thermal environments.

  • Supports qualification-oriented evaluation and degradation mechanism studies. 

Expandable Architecture

  • 1–9 channels configurable for throughput needs.

  • Optional modules: vacuum chamber and liquid nitrogen system to extend test capability for deeper space simulation scenarios. 


Technical Specifications & Compliance

Physical / Electrical / Environmental

CategorySpecification
Main Cabinet Size650 (W) × 550 (D) × 900 (H) mm
With Workbench1250 (W) × 550 (D) × 900 (H) mm
Total Weight~180 kg
Power RequirementAC 220V ±10%, 50Hz, single-phase 3-wire
Power Consumption≤4.5 kW peak / ~2.5 kW typical
Operating Environment18–28°C, ≤60% RH

Standards

Standard TypeStandard
InternationalIEC 60904-9 (Edition 3, AM0 & AM1.5G)
North AmericaASTM E927

Application Range

LC-SPV-ST-2525 is suitable for aerospace manufacturers, universities, and research institutes, covering the full workflow from R&D to certification-style verification:

  • Material Screening & R&D: parallel high-throughput tests for perovskite/OPV and advanced space PV materials

  • Long-Term Stability Evaluation: light soaking under AM0 and extreme thermal cycling from -180°C to +150°C; MPPT power degradation tracking

  • Quality Certification & Final Validation: IEC/ASTM-aligned reports; traceable data for shipment validation and qualification readiness

  • Supported technologies: III-V multi-junction, perovskite/silicon tandem, flexible thin-film PV 


Final Key Summary Table

ItemLC-SPV-ST-2525
AM0 SimulatorClass A, 350–1800 nm
AM0 Uniformity / Stability≤±2% / ≤±2%
Irradiance1367 W/m² standard; 100–1500 W/m² adjustable
Thermal Stage-180°C to +150°C
Temp Accuracy / Stability±0.1°C / ±0.5°C
Ramp Rate≥15°C/min
Channels1–9 independent, customizable
I-V & MPPTHysteresis scan + P&O / IncCond MPPT
Electrical Range0…±60 V, 0…±5 A, ≤0.1% F.S.
Vacuum Option1×10⁻³ Pa compatible (optional chamber)
PowerAC 220V, ≤4.5 kW peak
ComplianceIEC 60904-9, ASTM E927


  • 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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