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Description
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Description
To push the conversion efficiency to the limits of thermodynamics, organic solar cells and perovskite solar cells strive to increase the open-circuit voltage (Voc) to the Shockley-Queisser limit. The newly designed REPS_Ultra is a comprehensive system that helps scientists measure, calculate, and analyze the Voc-loss in working solar cells, providing suggestions for improvement in the next step.
- Exploring Scientific Limits: REPS_Ultra enables researchers to explore the scientific limits by providing accurate and comprehensive data.
- Exceptional Weak Light Detection: The innovative REPS_Ultra can detect weak light brightness as low as 10-6% nit with an 8-order magnitude dynamic range. This performance is 1,000 times better than the previous REPS_Pro and 10,000 times stronger than other similar products on the market, which typically offer a 4-order magnitude dynamic range. Its superior weak light detection capability is particularly suited for research on organic materials and novel materials, helping research teams explore scientific limits.
- Enhanced Measurement Speed: With the newly designed REPS_Ultra, the measurement speed has significantly increased by 30% compared to the previous REPS_Pro. It can complete a 40-point scan in just 30 seconds, greatly improving the efficiency of research teams.
Features
- It can measure: absolute EL-EQE, EL spectra(V), JV curve, EQE-J.
- The software can display the charts including: EL-EQE, multi-EL-spectra, JVL curve, Voc loss histogram chart.
- The system can calculate and analyze thermodynamic Voc, radiative recombination Voc, and non-radiative recombination Voc.
- The wavelength detection range: 300~1100nm; and can be extended (option).
- NIST-traceable absolute radiometric calibration (Watt, from 300~1100nm).
- EL-EQE detection range: 1 x 10-6% (8 orders).
- EL-EQE repeatability >99%.
- EL-EQE reproducibility >99%.
- Glove Box integration toolkit.
- Customized test fixtures.

The relation between the improvement of VocFF and non-radiative loss (Spiro-mF).
Proof
1000nm~1100nm OPV EL-EQE







Specification
C-EE-3011-01
ļ¼ Wavelength range: 300 ā 1100 nm
ļ¼ Wavelength resolution: 1 nm (depending on slit and grating)
ļ¼ Exposure time: 5 ms ā 60 s
System Design
Application
- OPV Voc-loss Improvement
- Perovskite Voc-loss Improvement
- Charge Transfer State Identification
Customer Testimonials
Publication
Exploring buried interface in all-vapor-deposited perovskite photovoltaics
Chun-Jen Shih , Yi-Sheng Chen , Dian Luo , Chang-Wei Yu , Kuan-Hung Chen ,Galing Murokinas , Yu-Chen Huang , Chia-Feng Li , Yu-Ching Huang , Shun-Wei Liu Published: 15 September 2024 https://doi.org/10.1016/j.solener.2024.112872⦠5G one sun solar simulator (Enlitech, SS-X). The ā¦
⦠(Enlitech, QE-R) recorded in AC mode with the calibration in advance (Hamamatsu S1337). The V oc -loss Analyzer (Enlitech, REPS) ā¦
Reference toļ¼REPSćSS-XćQE-RShengfan Wu, Yichao Yan, Jun Yin, Kui Jiang, Fengzhu Li, Zixin Zeng, Sai-Wing Tsang & Alex K.-Y. Jen Published: 26 January 2024 https://doi.org/10.1038/s41560-024-01451-8
⦠Highly sensitive EQE was measured by an integrated system (PECT-600, Enlitech), where ⦠⦠voltage/current sources through the instrument (REPS, Enlitech). The current densityāvoltage ( ā¦
Reference toļ¼REPSćEQEćPECT-600Zihao Zhai , Jieyi Chen , Qi Liu , Jin Yang , Sai Wang , Yuanyuan Zhu , Qingyue Jiang , Yufang Li Published: 1 February 2024 https://doi.org/10.1016/j.cej.2024.148586
⦠integrated system PECT-600 (Enlitech Inc.). The electroluminescence (EL) spectra were recorded by EL quantum efficiency measurement system (Model REPS, Enlitech Inc.). Transient ā¦
Reference toļ¼REPSćPECT-600Tianyu Xu,Xinxin Zhang,Shengxiong Zhang,Wenjun Zhang, and Weijie Song Published: January 17, 2024 https://doi.org/10.1021/acsami.3c15503
⦠(3,4) The EQE tests were conducted with an Enli EQE system (Enlitech, QE-R3011) in air. ⦠⦠E loss of devices was tested and calculated by a V OC loss analyzer (Enlitech, REPS). ā¦
Reference toļ¼REPSćEQEćQE-R3011Seoungjun Ahn , Wei-Hao Chiu , Wei-Chen Chu , Pei-Yu Chen , Ting-Han Lin , Kun-Mu Lee First published: 15 September 2024 https://doi.org/10.1016/j.cej.2024.153974
⦠Voc loss measurement was performed by applying external voltage/current sources through the devices (REPS-TEN, Enlitech) The photoluminescence (PL) spectra and time-resolved ā¦
Reference toļ¼REPSćREPS-TENvYu-Ching Huang,Tai-Yuan Wang,Zhi-Hao Huang, and Svette Reina Merden Solante Santiago First published: May 9, 2024 https://doi.org/10.1021/acsami.4c01466
⦠mode using a QE-R system (Enlitech, Taiwan) and a Si-based ⦠⦠spectroscopy system (FTPS, Enlitech), where the photocurrent ā¦
⦠sources through the devices (REPS+, Enlitech). All of the ā¦
Reference toļ¼REPSćQE-RćFTPSHigh-performance SiOx/MgOx electron-selective contacts for crystalline silicon solar cells
Kun LiĀ (ęå¤), Kun GaoĀ (é«é), Xinyu WangĀ (ēåæéØ), Xinliang LouĀ (åØåæäŗ®), Dacheng XuĀ (许大ę), Chunfang XingĀ (é¢ę„č³), Wenhao LiĀ (ęę굩), Haicheng LiĀ (ęęµ·ę¾) & Xinbo YangĀ (ęØę°ę³¢) Published: 28 June 2024 https://doi.org/10.1007/s40843-024-2950-5⦠is one of the representative oxides, which was ā¦
⦠(Enlitech) under standard air mass 1.5 global (AM1.5G) 1 sun conditions. An external quantum efficiency (EQE) setup system (Enlitech) ā¦
Reference toļ¼REPSćEQEXiaoyu Gu, Chengwei Shan, Xiaowei Xu, Qian Liu, Aung Ko Ko Kyaw First published: 06 December 2023 https://doi.org/10.1002/smll.202307840 ⦠using a sunlight simulator (Enlitech, Sirius-SS150A-D) with a Keitheley 2400 source meter. EQE measurement was carried out with a QE-R quantum efficiency system (Enlitech). UVāvis ā¦
Reference toļ¼REPSćSirius-SS150A-DćEQEćQE-RXinxin Xia, Le Mei, Rui Sun, Shuixing Li, Chun-Yu Chen, Jhih-Min Lin, Jie Min, Hongzheng Chen, Xian-Kai Chen, Xinhui Lu First published: 31 January 2024 https://doi.org/10.1002/aenm.202303785
⦠To address this, in this study, molecular packing behaviors of representative state-of-the-art ⦠⦠certified standard silicon solar cell (SRC-2020, Enlitech) with KG-2 filter. Devices were tested ā¦
Reference toļ¼REPSćSRC-2020Protocol for fabricating long-lasting passivated perovskite solar cells
Sisi Wang , Jingyi Sun , Jingjing Xue , Rui Wang Published: 20 September 2024 https://doi.org/10.1016/j.xpro.2024.103265⦠The PSC test system is built by Enlitech Instruments and placed in an N 2 -filled glovebox (see ⦠ā¦We show representative characteristics of the perovskite surface and corresponding ā¦
Reference toļ¼REPSćPSC⦠For a more direct comparison, the evolution of normalized absorption spectra at representative ā¦
⦠Highly sensitive EQE was measured using an integrated system (PECT-600, Enlitech), ā¦
Reference toļ¼REPSćEQEćPECT-600Hrisheekesh Thachoth Chandran, Hua Tang, Taili Liu, Sudhi Mahadevan, Kuan Liu, Zhen Lu, Jiaming Huang, Zhiwei Ren, Fuyou Liao, Yang Chai, Patrick WK Fong, Sai-Wing Tsang, Shirong Lu and Gang Li Published: 12 Dec 2022 https://doi.org/10.1039/D2MH01164F
⦠The active layer processing for other representative systems used in this study is as follows. ⦠⦠an Enlitech solar simulator. Biased EQE and responsivity were measured using an Enlitech ā¦
Reference toļ¼REPSćEQEJingming Zheng, He Wei, Zhiqin Ying, Xi Yang, Jiang Sheng, Zhenhai Yang, Yuheng Zeng, Jichun Ye First published: 20 December 2022 https://doi.org/10.1002/aenm.202203006
⦠-Si(n)/SiO x /n-Si under two representative RF powers of 5 and 12 W, which means that the ⦠⦠mW cm ā2 from the Class AAA solar simulator (EnliTech Co., Ltd.), which was calibrated with ā¦
Reference toļ¼REPSćClass AAANa Lin, Zhenhai Yang, Haojiang Du, Zetao Ding, Zunke Liu , Haiyang Xing , Mingjing Xiao , Yali Ou , Wei Liu, Mingdun Liao, Baojie Yan, Shihua Huang, Yuheng Zeng, Jichun Ye Published: 15 July 2023 https://doi.org/10.1016/j.solener.2023.05.028
⦠The efficiency of the SCs was tested at 25 C and AM1.5 using a solar simulator (Enlitech, SS-F5-3A), while the electrical performance was evaluated using Suns-V oc . To measure the ā¦
Reference toļ¼REPSćSS-F5-3AXiaopeng Duan, Chunhui Liu, Yunhao Cai, Linglong Ye, Jingwei Xue, Yinuo Yang, Wei Ma, Yanming Sun First published: 13 May 2023 https://doi.org/10.1002/adma.202302927
⦠External quantum efficiency (EQE; QE-R3011, Enlitech) measurements were used to verify ⦠⦠PST-OSCs fabricated in this study with representative results reported in the literature. The ā¦
Reference toļ¼REPSćEQEćQE-R3011by Yajie Wang , Chaoyue Zhao , Ziqi Cai , Lihong Wang , Liangxiang Zhu , Hui Huang , Guoping Zhang , Peng You , Chen Xie ,Yaping Wang ,Qing Bai , Tao Yang ,Shunpu Li and Guangye Zhang Published: 18 August 2023 https://doi.org/10.3390/polym15163462
⦠three representative active ⦠ā¦Enlitech QE-S EQE system equipped with a standard silicon diode. The monochromatic light utilized for the EQE measurements emanates from the Enlitech ā¦
Reference toļ¼REPSćQE-SćEQEPrecise synthesis and photovoltaic properties of giant molecule acceptors
Hongmei Zhuo, Xiaojun Li, Jinyuan Zhang, Can Zhu, Haozhe He, Kan Ding, Jing Li, Lei Meng, Harald Ade & Yongfang Li Published: 02 December 2023 https://doi.org/10.1038/s41467-023-43846-3⦠, Enlitech). External electroluminescence quantum efficiency (EQE EL ) measurements were performed by applying external voltage/current sources through the devices (REPS, Enlitech ā¦
Reference toļ¼REPSćEQEćELYu Zhang, Qizhen Song, Guilin Liu, Yihua Chen, Zhenyu Guo, Nengxu Li, Xiuxiu Niu, Zhiwen Qiu, Wentao Zhou, Zijian Huang, Cheng Zhu, Huachao Zai, Sai Ma, Yang Bai, Qi Chen, Wenchao Huang, Qing Zhao & Huanping Zhou Published: 21 September 2023 https://doi.org/10.1038/s41566-023-01287-w
⦠PL mapping measurements were conducted by a laser scanning confocal microscope (Enlitech, SPCM-1000) equipped with a 470 nm pulse laser. The signal collection area for each ā¦
Reference toļ¼REPSćSPCM-1000Polymeric HoleāSelective Contact for Crystalline Silicon Solar Cells
Xinliang Lou, Xinyu Wang, Dacheng Xu, Kun Gao, Shibo Wang, Chunfang Xing, Kun Li, Wenhao Li, Dongdong Li, Guifang Xu, Xinbo Yang First published: 02 November 2023 https://doi.org/10.1002/solr.202300796⦠of polymer-based hybrid solar cells with representative results in the literature. ⦠⦠(Enlitech) under standard air mass (AM) 1.5G one-sun conditions and EQE measurement system (Enlitech ā¦
Reference toļ¼REPSćAM 1.5GćEQEAmine-Thiol/Selenol Chemistry for Efficient and Stable Perovskite Solar Cells
Blake P. Finkenauer , Yiyuan Zhang , Ke Ma , Jonathan W. Turnley , Jacob Schulz , MartĆn Gómez , Aidan H. Coffey , Dewei Sun , Jiaonan Sun , Rakesh Agrawal , Libai Huang , and Letian Dou Published: January 4, 2023 https://doi.org/10.1021/acs.jpcc.2c06967⦠using a Keithley 2450 multimeter and an Enlitech SS-F5-3A solar ⦠ā¦cell (calibrated and certified by Enlitech). The devices were ⦠ā¦(AM2) were selected as representative amines to avoid the ā¦
Reference toļ¼REPSćSS-F5-3A⦠In this work, we synthesized a new polymer acceptor PG-IT2F which is a modification of the representative polymer acceptor PY-IT by replacing its upper linear alkyl sideā¦
Reference toļ¼REPSImportance of structural hinderance in performanceāstability equilibrium of organic photovoltaics
Baobing Fan, Wei Gao, Xuanhao Wu, Xinxin Xia, Yue Wu, Francis R. Lin, Qunping Fan, Xinhui Lu, Wen Jung Li, Wei Ma & Alex K.-Y. Jen Published: 08 October 2022 https://doi.org/10.1038/s41467-022-33754-3⦠EL spectra and quantum efficiency were measured on a REPS Pro system (Enlitech) with a Keithley 2400 external current/voltage source meter connected to support an external electric ā¦
Reference toļ¼REPSćREPS ProXiaoyu Gu, Xue Lai, Yuniu Zhang, Teng Wang, Wen Liang Tan, Christopher R. McNeill, Qian Liu, Prashant Sonar, Feng He, Wenhui Li, Chengwei Shan, Aung Ko Ko Kyaw First published: 20 July 2022 https://doi.org/10.1002/advs.202200445
⦠FTPS-EQE was measured using an integrated system with Fourier transform photocurrentmeter (PECT-600, Enlitech). EQEEL measurement was performed by high-sensitivity solar cell ā¦
Reference toļ¼REPSćFTPS-EQEćPECT-600ćEQE ELYu-Cheng Tseng , Aoto Kato , Jia-Fu Chang , Wen-Chang Chen , Tomoya Higashihara and Chu-Chen Chueh First published: 08 Mar 2022 https://doi.org/10.1039/D2NR00437B
⦠The FTPS-EQE was performed on FTPS PECT-600 from Enlitech Co., Ltd and the EQE EL was measured using REPS from Enlitech Co., Ltd for calculating the energy loss. Time- ā¦
Reference toļ¼REPSćFTPS-EQEćFTPS PECT-600ćEQE ELYunhao Cai, Qian Li, Guanyu Lu, Hwa Sook Ryu, Yun Li, Hui Jin, Zhihao Chen, Zheng Tang, Guanghao Lu, Xiaotao Hao, Han Young Woo, Chunfeng Zhang & Yanming Sun Published: 02 May 2022 https://doi.org/10.1038/s41467-022-29803-6
⦠-eC9:L8-BO-F as a representative system to reveal the ⦠⦠Enlitech) with an irradiation intensity of 100 mWcm ā2 , which was measured by a calibrated silicon solar cell (SRC2020, Enlitech) ā¦
Reference toļ¼REPSćSRC2020Qian Cheng, Haoran Xia, Xing Li, Boxin Wang, Yanxun Li, Xuning Zhang, Hong Zhang, Yuan Zhang, Huiqiong Zhou First published: 06 November 2021 https://doi.org/10.1002/solr.202100805
⦠Herein, based on representative four ammonium halide salts featuring different chain lengths as spacer cations for the 2D perovskite surface modifier, it is shown that choosingd ā¦
Reference toļ¼REPSn-Doping of photoactive layer in binary organic solar cells realizes over 18.3% efficiency
Danqin Li, Fushan Geng , Tianyu Hao , Zeng Chen , Hongbo Wu , Zaifei Ma ,Qifan Xue , Lina Lin , Rong Huang , Shifeng Leng , Bingwen Hu , Xianjie Liu , Jie Wang , Haiming Zhu , Menglan Lv , Liming Ding , Mats Fahlman , Qinye Bao, Yongfang Li Published: 1 June 2022 https://doi.org/10.1016/j.nanoen.2022.107133⦠4A-4B shows the 2D color TA spectra and a few representative ā¦
⦠We further select the representative kinetics wavelength ⦠⦠G (SS-F5ā3A, Enlitech). The light intensity was determined by ā¦
Reference toļ¼REPSćSS-F5ā3AFluidic manipulating of printable zinc oxide for flexible organic solar cells
Xiaoyu Liu, Zhong Zheng, Jianqiu Wang, Yafei Wang, Bowei Xu, Shaoqing Zhang, Jianhui Hou First published: 04 November 2021 https://doi.org/10.1002/adma.202106453⦠As a representative electron transporting layer in organic solar cells, zinc oxide (ZnO) can be fabricated by the ⦠⦠The EQE mapping images were taken with the LSD4 (Enlitech, Taiwan) ā¦
Reference toļ¼REPSćEQEćLSD4100 cm2 Organic Photovoltaic Cells with 23% Efficiency under Indoor Illumination
Yong Cui, Hui-Feng Yao, Ye Xu, Peng-Qing Bi, Jian-Qi Zhang, Tao Zhang, Ling Hong, Zhi-Hao Chen, Zhi-Xiang Wei, Xiao-Tao Hao & Jian-Hui Hou Published: 22 June 2022 https://doi.org/10.1007/s10118-022-2761-x⦠simulator (SS-F5-3A, Enlitech) along with AM 1.5G spectra ( ⦠⦠system (PECT-600, Enlitech), where the photocurrent was ⦠⦠the devices (ELCT-3010, Enlitech). AFM height and phase ā¦
Reference toļ¼REPSćSS-F5-3AćPECT-600ćELCT-3010Xuantong Yang, Mengyuan Gao, Zhaozhao Bi, Yang Liu, Kaihu Xian, Zhongxiang Peng, Qingchun Qi, Saimeng Li, Jinsheng Song, Wei Ma, Long Ye First published: 19 May 2022 https://doi.org/10.1002/marc.202200229
⦠employed as three representative acceptors, respectively. ⦠ā¦(Enli Tech, Taiwan). The EQE data were acquired from the solar cell spectral response measurement system (QE-R, Enli Tech) ā¦
Reference toļ¼REPSćEQEćQE-R







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