AMETEK ModuLab XM Photoelectrochemical Test System
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AMETEK ModuLab XM Photoelectrochemical Test System
The ModuLab XM PhotoEchem Test System is a high-end, configurable photoelectrochemical measurement platform developed specifically for solar cell and photovoltaic research. Built on Solartron Analytical’s world-leading expertise in transfer function and impedance measurements, the system provides exceptional accuracy and flexibility for the characterization of DSSC, perovskite solar cells, photoanodes, and advanced photoelectrochemical devices.
Developed in close collaboration with Professor Laurie Peter (University of Bath, UK), a world-renowned expert in photovoltaic research, the ModuLab PhotoEchem XM was engineered to meet the most demanding requirements of modern PV researchers. The system integrates a reference-grade potentiostat, frequency response analyzer (FRA), and dedicated PhotoEchem module, enabling complete electrical, electrochemical, and photoelectrochemical characterization.
A key advantage of the platform is its ease of use, with automated analysis available at the click of a button, while advanced users can design fully customized experiments using the powerful step sequencer. The system is also expandable for general electrochemistry and materials testing, ensuring long-term flexibility. A dedicated variant is available as the SolarLab XM system.
Product Type: Photoelectrochemical Test System
Platform: ModuLab XM
Manufacturer: Solartron Analytical (AMETEK)
Core System Components
• Reference-grade potentiostat
• High-accuracy frequency response analyzer (FRA)
• Dedicated PhotoEchem module
• XM-Studio software with step sequencer
Measurement Techniques
• IMPS (Intensity Modulated Photocurrent Spectroscopy)
• IMVS (Intensity Modulated Photovoltage Spectroscopy)
• Electrochemical Impedance Spectroscopy (EIS)
• Photovoltage Decay
• Charge Extraction (dark and short circuit)
• I–V characterization
• AC impedance and capacitance measurements
• Full electrochemical techniques (CV, chrono, galvanostatic, AC voltammetry)
Automatically Calculated Parameters
• Effective electron diffusion coefficient
• Effective electron lifetime
• Fill factor (FF)
• Maximum power (Pmax)
• Open-circuit voltage (Voc)
• Short-circuit current (Isc)
• Conversion efficiency
Optical & Light Source Specifications
• Wavelength range: 350 – 1100 nm
• Intensity range: 6 decades (with ND filter)
• Maximum beam divergence: 4°
• Maximum beam diameter / cell size: 1 cm
• IMPS / IMVS transfer function: Reference photodetector
• Calibration: NIST traceable
Light Source & Driver Performance
• LED driver maximum current: 10 A
• LED stability at max power: < 2% drift after 24 hours
• Maximum modulation frequency (IMPS / IMVS): 250 kHz
• Excellent thermal management for long-term stability
Advanced Capabilities
• IPCE option for quantum efficiency measurements
• Femtoamp-level low-current measurements supported
• Expandable to electrochemistry and materials testing
Applications
• Perovskite solar cells
• Dye-sensitized solar cells (DSSC)
• Photoanodes and photocatalysts
• Photoelectrochemical water splitting (e.g. iron oxide systems)
• Electron transport and recombination studies
• PV device efficiency and degradation analysis
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Professional guidance for product selection
After-sales service and maintenance
Always available technical assistance