The authoritative certification and mass production calibration of large-sized photovoltaic modules, entire large-panel batteries, wide-breadth thin-film photovoltaics, and large-area photoelectric functional materials have extremely strict standards regarding the coverage of light irradiation areas, uniformity of global irradiation, spectral fidelity across all bands, and industrial-grade long-term stable performance. Traditional small and medium-sized light spot simulators cannot cover large-panel samples, and multiple splicing tests have large errors and poor data repeatability. Conventional large-breadth equipment generally have defects such as spectral discontinuity, edge irradiation attenuation, long-term light intensity drift, and insufficient ultraviolet energy, which easily lead to deviation in component efficiency grading, discrepant aging experiment data, low pass rate for authoritative certification, and inability to meet the high-precision standardized testing requirements of photovoltaic enterprises for pilot research and development, production line batch quality inspection, and third-party authoritative certification, thereby restricting the industrialization improvement and upgrading of high-end photovoltaic devices.
Deeply engaged in the field of high-end photovoltaic light simulation and precise detection, Saifan Optoelectronics relies on its self-developed ultra-large-area compound eye uniform light optical technology, full-spectrum xenon lamp precise color matching algorithm, and dual-loop dynamic light intensity compensation architecture, and has launched the 7IS1603A 3A-level xenon lamp steady-state solar simulator. Strictly following the international authoritative standard IEC 60904-9:2020, it achieves triple 3A top-level indicators of spectral matching, irradiation uniformity, and time stability, and with a 160×160mm ultra-large uniform light spot, full-band non-destructive replication of natural sunlight, extreme uniformity across the entire area, and industrial-grade long-term stable performance, it creates a dedicated certification-level light simulation solution for large-sized photovoltaic samples, providing precise, compliant, and traceable core testing benchmarks for cutting-edge scientific research innovation, pilot process iteration, and industrial authoritative quality inspection.
Triple 3A compliance, benchmarking international certification standards
As the flagship large-area steady-state simulation equipment of Saifan, 7IS1603A has fully met the 3A top-level standards in three core performances and can be directly used for international authoritative certifications and traceability of scientific research achievements. The equipment is equipped with imported short arc xenon lamp core light source, achieving continuous coverage of the ultra-wide full-spectrum from 300 to 1100nm, with the energy ratio of ultraviolet, visible, and near-infrared bands highly matching natural sunlight, full-band spectral fidelity exceeding 97%, spectral matching stability controlled within the international standard range of 0.875–1.125, and can precisely adapt to the light response characteristics of all types of photovoltaic devices such as crystalline silicon, cadmium telluride, CIGS, arsenic germanium, and perovskite stacks, completely eliminating test distortion and performance misjudgment caused by spectral omission and mismatch.
The equipment is equipped with an industry flagship 160×160mm ultra-large effective uniform light spot, equipped with multiple sets of compound eye lens array combined uniform light system, through millions of optical simulation optimization of the light path, the uniformity of global irradiation is ≤±3%, no attenuation from the center to the edge, no dark area, no hot spot, no gradient deviation of strength, and can fully cover large-sized photovoltaic large-panel samples in one go without multiple displacements and splicing; equipped with a high-speed photoelectric closed-loop feedback control system, time stability ≤±0.2%/h, supporting thousands of hours of continuous stable operation, throughout without light intensity drift, without spectral attenuation, excellent long-term test consistency, and fully meeting the strict traceability requirements of high-end scientific research papers, project completion, and product compliance certification.
Pure xenon lamp full-spectrum output, restoring outdoor real irradiation conditions
Different from the inherent shortcomings of LED simulators, which lack the ultraviolet band and have limited spectral segmentation, 7IS1603A adopts the original imported short arc xenon lamp light emission architecture, with continuous spectra without discontinuity, balanced energy distribution, and complete replication of the full-band energy characteristics of natural sunlight, truly restoring the complex outdoor irradiation conditions. For high-end scenarios such as UV aging tests of photovoltaic devices, full-spectrum energy efficiency calibration, environmental reliability verification, and long-term power loss assessment, this equipment offers test accuracy and working condition adaptability that cannot be matched by LED equipment. It completely resolves industry pain points such as falsely high efficiency caused by incomplete spectra, distorted aging experiments, and inaccurate reliability judgments of new photovoltaic devices.
The equipment supports continuous adjustment of light intensity ranging from 100 to 2000 W/m², and can flexibly simulate various industrial conditions such as weak light environments, standard sunlight, and strong light overload. It is suitable for multiple experimental scenarios such as standard efficiency calibration, weak light performance analysis, strong light tolerance testing, and continuous power tracking. Relying on its self-developed intelligent voltage stabilization and efficient temperature control architecture, it can quickly stabilize light output upon startup, does not require long-term preheating, and supports 24-hour uninterrupted continuous steady-state operation. It perfectly adapts to industrial batch high-frequency detection, 10,000-hour long-term light bath aging, MPPT dynamic tracking, etc., while balancing extreme test accuracy and industrial operation stability.
Super large area uniform irradiation, one-stop precise testing for large sample specimens
With the advantage of a 160×160mm ultra-large regular and uniform light spot, the equipment completely breaks through the testing limitations of smaller light spot devices and can cover medium and large-sized photovoltaic cells, wide-band films, and small-sized photovoltaic modules all at once. There is no need to move the sample or connect multiple points for testing. It eliminates the errors of alignment and regional testing deviations from the root cause and completes the collection of sample performance in the entire area in a single operation, significantly improving testing efficiency and data accuracy. The extremely uniform light reception characteristics in the area can precisely screen local process non-uniformity, coating deviations, hidden defects, and response differences of large sample specimens, and accurately feedback subtle performance fluctuations of key processes such as diffusion, etching, and coating, providing precise data support for process optimization.
The equipment is broadly compatible with various large-sized photovoltaic test specimens, covering crystalline silicon large-panel batteries, wide-band photovoltaic, compound semiconductors, perovskite stack components, large-area photodetector plates, photocatalytic functional large plates, etc. It perfectly adapts to university large-scale material mechanism research, enterprise pilot process verification, production line batch grading quality inspection, and third-party authoritative certification testing, etc., and is the flagship high-precision core equipment for medium and large-sized photovoltaic testing.
Intelligent closed-loop steady-state light control, fully automatic and efficient standardized testing
Equipped with a dedicated intelligent measurement and control system, it integrates real-time light intensity monitoring, millisecond-level closed-loop dynamic compensation, one-click precise calibration, steady-state locking, automatic data archiving, standardized report output, and other intelligent functions throughout the process. Relying on the AI adaptive light intensity compensation algorithm, the equipment can capture small light intensity fluctuations and spectral offsets during long-term operation in real time, perform millisecond-level dynamic correction, and lock the standard irradiation state throughout the process. It eliminates the need for repeated light adjustment and calibration by humans, completely avoiding human system errors, and ensuring that each set of test data is highly consistent, repeatable, and traceable.
Support for customizing irradiance, light duration, cycle test period, scanning step, etc., can seamlessly link with IV testing systems, EL defect detection modules, precise displacement platforms, high and low temperature temperature control components, and atmosphere regulation systems to achieve integrated automatic operation of light simulation, performance testing, defect screening, and data analysis. The equipment has a low operation threshold and high automation level, perfectly adapting to high-frequency batch detection, long-term aging monitoring, and multi-condition comparison experiments, significantly improving the overall efficiency of research and industrial quality inspection.
Modular expansion architecture, suitable for high-end research and industrial customization
The equipment adopts an open modular design, with sufficient functional upgrade and customization interfaces reserved, and can fully adapt to high-level research and industrial strict scenarios. It can be expanded with AM0 space spectrum switching modules to accurately simulate space irradiation environments and meet the performance calibration of aerospace-grade photovoltaic devices; it can be combined with water-cooled constant temperature and atmosphere regulation components to achieve multi-field coupling dynamic testing of light, temperature, and gas; It features integrated automatic scanning, multi-channel synchronous testing, and global performance mapping functions, enabling the analysis of global performance differences of large-scale samples. It comprehensively covers the needs of basic material characterization, new process iteration, and cutting-edge innovation research at multiple levels.
Domestic flagship precision craftsmanship, with high cost-effectiveness as an alternative to imported equipment.
The core xenon lamp source, ultra-large area uniform light optical system, and dual-loop steady-state control light algorithm of the 7IS1603A complete core components are all independently developed and controllable. The full-spectrum restoration accuracy, ultra-large area uniformity, and ten-thousand-hour long-term stable performance all fully benchmark against the high-end flagship 3A simulator of imported equipment. At the same time, it completely solves the industry pain points of high-priced imported equipment, long delivery cycle, delayed after-sales response, difficulty in customizing working conditions, and extremely high operation and maintenance costs. It possesses core advantages such as full-spectrum lossless replication, ultra-large area uniformity, industrial-grade long-term stable operation, wide application scenarios, and convenient and low-cost operation and maintenance.
The manufacturer provides on-site installation and commissioning, professional technical training, lifetime technical support, personalized working condition customization one-stop services, significantly reducing the equipment procurement and operation and maintenance costs of research institutions and new energy enterprises, helping to replace imported equipment with domestic high-end industrial-grade photovoltaic testing equipment, and empowering the photovoltaic industry with high-end, precise, and standardized quality improvement and upgrading.
Ultra-large light field establishes the benchmark, precisely empowering large-panel photovoltaic testing.
The authoritative calibration of large-sized devices relies on the global standard, stable, and complete ultimate illumination. The 7IS1603A 3A-level xenon lamp steady-state solar simulator, with triple 3A top precision, 160×160mm ultra-large uniform light spot, full-band real-daylight replication, industrial-grade ultra-long stable state, intelligent minimalist control, and flagship performance, fully covers the calibration of medium and large-sized photovoltaic devices, large-area photovoltaic material characterization, long-term reliability aging test, and authoritative quality inspection of industrial batch scenarios, providing solid and reliable precise illumination support for cutting-edge scientific research innovation and high-end industrial development in the photovoltaic industry.