Indoor application of emerging photovoltaics—progress, challenges and perspectives
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Meng Li | Zhe Li | Yiwen Wang | Ram Datt | Xueyan Hou | Dong Yan | Harrison Ka Hin Lee | Bo Hou | Nicolas Uslar Miano | Furong Zhu | Wing C. Tsoi | Zhe Li | Dong Yan | X. Hou | Bo Hou | Meng Li | F. Zhu | R. Datt | Yiwen Wang | H. K. Lee | W. C. Tsoi
[1] J. Shim,et al. Ternary Blend Strategy for Achieving High-Efficiency Organic Photovoltaic Devices for Indoor Applications. , 2019, Chemistry.
[2] Jianqi Zhang,et al. Single‐Junction Organic Photovoltaic Cells with Approaching 18% Efficiency , 2020, Advanced materials.
[3] Harrison Ka Hin Lee,et al. Is organic photovoltaics promising for indoor applications , 2016 .
[4] Jing Li,et al. Dynamic Antisolvent Engineering for Spin Coating of 10 × 10 cm 2 Perovskite Solar Module Approaching 18% , 2020, Solar RRL.
[5] Zhe Li,et al. From fullerene acceptors to non-fullerene acceptors: prospects and challenges in the stability of organic solar cells , 2019, Journal of Materials Chemistry A.
[6] Masahiro Hosoya,et al. Investigation of the organic solar cell characteristics for indoor LED light applications , 2015 .
[7] P. Smowton,et al. Colloidal quantum dot hybrids: an emerging class of materials for ambient lighting , 2020, Journal of Materials Chemistry C.
[8] A. Djurišić,et al. Tailoring Triple‐Anion Perovskite Material for Indoor Light Harvesting with Restrained Halide Segregation and Record High Efficiency Beyond 36% , 2019, Advanced Energy Materials.
[9] Kai Zhu,et al. Scalable fabrication of perovskite solar cells , 2018 .
[10] Rajan Jose,et al. Progress, challenges and perspectives in flexible perovskite solar cells , 2016 .
[11] Thomas M. Brown,et al. Efficient light harvesting from flexible perovskite solar cells under indoor white light-emitting diode illumination , 2017, Nano Research.
[12] Jong Min Kim,et al. Highly Monodispersed PbS Quantum Dots for Outstanding Cascaded-Junction Solar Cells , 2016, ACS energy letters.
[13] Shuchi Gupta,et al. Infrared Solution‐Processed Quantum Dot Solar Cells Reaching External Quantum Efficiency of 80% at 1.35 µm and Jsc in Excess of 34 mA cm−2 , 2018, Advanced materials.
[14] A. Abate,et al. Enhancement in lifespan of halide perovskite solar cells , 2019, Energy & Environmental Science.
[15] Moonyong Kim,et al. Device design rules and operation principles of high-power perovskite solar cells for indoor applications , 2020 .
[16] Behrang H. Hamadani,et al. Photovoltaic Characterization Under Artificial Low Irradiance Conditions Using Reference Solar Cells , 2020, IEEE Journal of Photovoltaics.
[17] Zhe Li,et al. The role of fullerenes in the environmental stability of polymer:fullerene solar cells , 2018 .
[18] Zhe Li,et al. Multiphoton Absorption Stimulated Metal Chalcogenide Quantum Dot Solar Cells under Ambient and Concentrated Irradiance , 2020, Advanced Functional Materials.
[19] Francesca De Rossi,et al. All Printable Perovskite Solar Modules with 198 cm2 Active Area and Over 6% Efficiency , 2018, Advanced Materials Technologies.
[20] Moungi G. Bawendi,et al. Improved performance and stability in quantum dot solar cells through band alignment engineering , 2014, Nature materials.
[21] Hang Yin,et al. Highly‐Transparent and True‐Colored Semitransparent Indoor Photovoltaic Cells , 2020 .
[22] Zhe Li,et al. Toward Improved Environmental Stability of Polymer:Fullerene and Polymer:Nonfullerene Organic Solar Cells: A Common Energetic Origin of Light- and Oxygen-Induced Degradation , 2019, ACS energy letters.
[23] Philip Schulz,et al. Defect Tolerance in Methylammonium Lead Triiodide Perovskite , 2016 .
[24] S. Priya,et al. Record Efficiency Stable Flexible Perovskite Solar Cell Using Effective Additive Assistant Strategy , 2018, Advanced materials.
[25] L. Cinà,et al. Efficient fully laser-patterned flexible perovskite modules and solar cells based on low-temperature solution-processed SnO2/mesoporous-TiO2 electron transport layers , 2018, Nano Research.
[26] Michael Woodhouse,et al. Economic competitiveness of III–V on silicon tandem one‐sun photovoltaic solar modules in favorable future scenarios , 2017 .
[27] Ganesh D. Sharma,et al. Toward High‐Performance Polymer Photovoltaic Devices for Low‐Power Indoor Applications , 2017 .
[28] S. Manzhos,et al. All‐Rounder Low‐Cost Dopant‐Free D‐A‐D Hole‐Transporting Materials for Efficient Indoor and Outdoor Performance of Perovskite Solar Cells , 2020, Advanced Electronic Materials.
[29] Zhe Li,et al. Impact of Aggregation on the Photochemistry of Fullerene Films: Correlating Stability to Triplet Exciton Kinetics. , 2017, ACS applied materials & interfaces.
[30] Valentin D. Mihailetchi,et al. Light intensity dependence of open-circuit voltage of polymer: fullerene solar cells , 2005 .
[31] Mario Leclerc,et al. Recent Progress on Indoor Organic Photovoltaics: From Molecular Design to Production Scale , 2020, ACS Energy Letters.
[32] Changduk Yang,et al. Guest-oriented non-fullerene acceptors for ternary organic solar cells with over 16.0% and 22.7% efficiencies under one-sun and indoor light , 2020 .
[33] O. Voznyy,et al. Gradient-Doped Colloidal Quantum Dot Solids Enable Thermophotovoltaic Harvesting of Waste Heat , 2016 .
[34] Ken-Tsung Wong,et al. Device characteristics and material developments of indoor photovoltaic devices , 2020 .
[35] Takuma Yasuda,et al. Organic energy-harvesting devices achieving power conversion efficiencies over 20% under ambient indoor lighting , 2019, Journal of Materials Chemistry A.
[36] Chien-Yu Chen,et al. Perovskite Photovoltaics for Dim‐Light Applications , 2015 .
[37] G. Konstantatos,et al. Solution-processed solar cells based on environmentally friendly AgBiS2 nanocrystals , 2016, Nature Photonics.
[38] Hyun Hwi Lee,et al. All‐Day Operating Quaternary Blend Organic Photovoltaics , 2019, Advanced Functional Materials.
[39] R. Signerski,et al. Effect of band gap on power conversion efficiency of single-junction semiconductor photovoltaic cells under white light phosphor-based LED illumination , 2020 .
[40] Yun‐Hi Kim,et al. Understanding Performance of Organic Photovoltaics under Indoor and Outdoor Conditions: Effects of Chlorination of Donor Polymers. , 2020, ACS applied materials & interfaces.
[41] Hang Yin,et al. Designing a ternary photovoltaic cell for indoor light harvesting with a power conversion efficiency exceeding 20 , 2018 .
[42] Peter Veelaert,et al. A Proposal for Typical Artificial Light Sources for the Characterization of Indoor Photovoltaic Applications , 2014 .
[43] T. Miyasaka,et al. Stabilizing the Efficiency Beyond 20% with a Mixed Cation Perovskite Solar Cell Fabricated in Ambient Air under Controlled Humidity , 2018 .
[44] Hang Yin,et al. From 33% to 57% – an elevated potential of efficiency limit for indoor photovoltaics , 2020 .
[45] A. Donald,et al. Dependence on material choice of degradation of organic solar cells following exposure to humid air , 2015, Journal of polymer science. Part B, Polymer physics.
[46] Zhike Liu,et al. Europium and Acetate Co-doping Strategy for Developing Stable and Efficient CsPbI2 Br Perovskite Solar Cells. , 2019, Small.
[47] Markus Hösel,et al. Solar cells with one-day energy payback for the factories of the future , 2012 .
[48] N. Park,et al. Scalable fabrication and coating methods for perovskite solar cells and solar modules , 2020, Nature Reviews Materials.
[49] P. Lin,et al. Lead‐Free Double Perovskites for Perovskite Solar Cells , 2020, Solar RRL.
[50] Yiying Wu,et al. Monoammonium Porphyrin for Blade-Coating Stable Large-Area Perovskite Solar Cells with >18% Efficiency. , 2019, Journal of the American Chemical Society.
[51] L. Reindl,et al. Maximum efficiencies of indoor photovoltaic devices , 2013, IEEE Journal of Photovoltaics.
[52] Adolf Acquaye,et al. Perovskite solar cells: An integrated hybrid lifecycle assessment and review in comparison with other photovoltaic technologies , 2017 .
[53] A. Arias,et al. Evaluation of indoor photovoltaic power production under directional and diffuse lighting conditions , 2019, Solar Energy Materials and Solar Cells.
[54] Z. Hassan,et al. Enhancement of optical transmittance and electrical resistivity of post-annealed ITO thin films RF sputtered on Si , 2018, Applied Surface Science.
[55] Christoph J. Brabec,et al. Organic photovoltaics for low light applications , 2011 .
[56] Young-Jun You,et al. Highly Efficient Indoor Organic Photovoltaics with Spectrally Matched Fluorinated Phenylene‐Alkoxybenzothiadiazole‐Based Wide Bandgap Polymers , 2019, Advanced Functional Materials.
[57] A. Nozik. Spectroscopy and hot electron relaxation dynamics in semiconductor quantum wells and quantum dots. , 2001, Annual review of physical chemistry.
[58] J. Luther,et al. Third generation photovoltaics based on multiple exciton generation in quantum confined semiconductors. , 2013, Accounts of chemical research.
[59] Bo Hou. Colloidal Quantum Dots: The Artificial Building Blocks for New‐Generation Photo‐Electronics and Photochemistry , 2019, Israel Journal of Chemistry.
[60] Ian Marius Peters,et al. Technology and Market Perspective for Indoor Photovoltaic Cells , 2019, Joule.
[61] Tae Geun Kim,et al. Highly efficient flexible organic photovoltaics using quasi-amorphous ZnO/Ag/ZnO transparent electrodes for indoor applications , 2019, Journal of Power Sources.
[62] Erin Baker,et al. Estimating the manufacturing cost of purely organic solar cells , 2009 .
[63] Jong Min Kim,et al. Red green blue emissive lead sulfide quantum dots: heterogeneous synthesis and applications. , 2017, Journal of materials chemistry. C.
[64] T. Brown,et al. Perovskite Photovoltaics on Roll-To-Roll Coated Ultra-thin Glass as Flexible High-Efficiency Indoor Power Generators , 2020 .
[65] K. Wong,et al. High-Efficiency Indoor Organic Photovoltaics with a Band-Aligned Interlayer , 2020, Joule.
[66] J. Jung,et al. Reduced energy loss in SnO2/ZnO bilayer electron transport layer-based perovskite solar cells for achieving high efficiencies in outdoor/indoor environments , 2020 .
[67] Takuma Yasuda,et al. High-Performance Organic Energy-Harvesting Devices and Modules for Self-Sustainable Power Generation under Ambient Indoor Lighting Environments. , 2019, ACS Applied Materials and Interfaces.
[68] Yong Cui,et al. 1 cm2 Organic Photovoltaic Cells for Indoor Application with over 20% Efficiency , 2019, Advanced materials.
[69] T. Xu,et al. On-device lead sequestration for perovskite solar cells , 2020, Nature.
[70] I. Samuel,et al. Efficient indoor p-i-n hybrid perovskite solar cells using low temperature solution processed NiO as hole extraction layers , 2019, Solar Energy Materials and Solar Cells.
[71] G. Kang,et al. High-Power and Flexible Indoor Solar Cells via Controlled Growth of Perovskite Using a Greener Antisolvent , 2020, ACS Applied Energy Materials.
[72] Alan J. Heeger,et al. Recombination in polymer-fullerene bulk heterojunction solar cells , 2010 .
[73] T. Miyasaka,et al. Perovskite Solar Cells: Can We Go Organic‐Free, Lead‐Free, and Dopant‐Free? , 2019, Advanced Energy Materials.
[74] Hang Yin,et al. Porphyrin-based thick-film bulk-heterojunction solar cells for indoor light harvesting , 2018 .
[75] Matthew J. Carnie,et al. Outstanding Indoor Performance of Perovskite Photovoltaic Cells - Effect of Device Architectures and Interlayers , 2018, Solar RRL.
[76] M. Roeffaers,et al. It's a trap! On the nature of localised states and charge trapping in lead halide perovskites , 2020, Materials Horizons.
[77] Juan‐Pablo Correa‐Baena,et al. The role of carbon-based materials in enhancing the stability of perovskite solar cells , 2020 .
[78] Ning Li,et al. Stability of Nonfullerene Organic Solar Cells: from Built‐in Potential and Interfacial Passivation Perspectives , 2019, Advanced Energy Materials.
[79] F. Cacialli,et al. Highly efficient perovskite solar cells for light harvesting under indoor illumination via solution processed SnO2/MgO composite electron transport layers , 2018, Nano Energy.
[80] O. Inganäs,et al. Wide-gap non-fullerene acceptor enabling high-performance organic photovoltaic cells for indoor applications , 2019, Nature Energy.
[81] Yiwang Chen,et al. Recent Progress on the Long‐Term Stability of Perovskite Solar Cells , 2018, Advanced science.
[82] T. López-luke,et al. Improving the stability of perovskite solar cells under harsh environmental conditions , 2020 .
[83] A. Nozik,et al. Multiexciton generation by a single photon in nanocrystals. , 2006, Nano letters.
[84] Aram Amassian,et al. Air-stable n-type colloidal quantum dot solids. , 2014, Nature materials.
[85] Matthew J. Carnie,et al. Interface Modification by Ionic Liquid: A Promising Candidate for Indoor Light Harvesting and Stability Improvement of Planar Perovskite Solar Cells , 2018, Advanced Energy Materials.
[86] Ilke Celik,et al. A technoeconomic analysis of perovskite solar module manufacturing with low-cost materials and techniques , 2017 .
[87] Sean P. Dunfield,et al. From Defects to Degradation: A Mechanistic Understanding of Degradation in Perovskite Solar Cell Devices and Modules , 2020, Advanced Energy Materials.
[88] Zhe Li,et al. Organic photovoltaic cells – promising indoor light harvesters for self-sustainable electronics , 2018 .
[89] Yongfang Li,et al. Origin of Efficient Inverted Nonfullerene Organic Solar Cells: Enhancement of Charge Extraction and Suppression of Bimolecular Recombination Enabled by Augmented Internal Electric Field. , 2017, The journal of physical chemistry letters.
[90] C. Ballif,et al. Instability of p–i–n perovskite solar cells under reverse bias , 2020 .
[91] T. Kamiya,et al. Band gap tuning of a-Si:H from 1.55 eV to 2.10 eV by intentionally promoting structural relaxation , 1998 .
[92] James W. Evans,et al. Organic solar cells and fully printed super-capacitors optimized for indoor light energy harvesting , 2016 .
[93] Thuc‐Quyen Nguyen,et al. Solution‐Processed Semitransparent Organic Photovoltaics: From Molecular Design to Device Performance , 2019, Advanced materials.
[94] Hongxia Wang,et al. Alkaline-earth bis(trifluoromethanesulfonimide) additives for efficient and stable perovskite solar cells , 2020 .
[95] Christoph J. Brabec,et al. Abnormal strong burn-in degradation of highly efficient polymer solar cells caused by spinodal donor-acceptor demixing , 2017, Nature Communications.
[96] T. Nozaki,et al. Silicon nanocrystal hybrid photovoltaic devices for indoor light energy harvesting , 2020, RSC advances.
[97] Group structure and kinship in beluga whale societies , 2020, Scientific Reports.
[98] Barbara K. Hughes,et al. Comparing multiple exciton generation in quantum dots to impact ionization in bulk semiconductors: implications for enhancement of solar energy conversion. , 2010, Nano letters.
[99] Y. Galagan,et al. Highly Efficient Perovskite Solar Cells Using Non-Toxic Industry Compatible Solvent System , 2017 .
[100] Changhwan Shin,et al. Ultra-thick semi-crystalline photoactive donor polymer for efficient indoor organic photovoltaics , 2019, Nano Energy.
[101] W. Que,et al. Recent Progress of Flexible Perovskite Solar Cells , 2019, physica status solidi (RRL) – Rapid Research Letters.
[102] A. Di Carlo,et al. Mesoporous perovskite solar cells and the role of nanoscale compact layers for remarkable all-round high efficiency under both indoor and outdoor illumination , 2016 .
[103] Dong Ha Kim,et al. Unprecedentedly high indoor performance (efficiency > 34 %) of perovskite photovoltaics with controlled bromine doping , 2020 .
[104] J. Nelson,et al. Relationship between Fill Factor and Light Intensity in Solar Cells Based on Organic Disordered Semiconductors: The Role of Tail States , 2020 .
[105] M. Mildner,et al. Re-epithelialization and immune cell behaviour in an ex vivo human skin model , 2020, Scientific Reports.
[106] Hong Lin,et al. Flexible quintuple cation perovskite solar cells with high efficiency , 2019, Journal of Materials Chemistry A.
[107] F. Roland,et al. Global CO2 emissions from dry inland waters share common drivers across ecosystems , 2020, Nature Communications.
[108] K. Ho,et al. Performance Characterization of Dye-Sensitized Photovoltaics under Indoor Lighting. , 2017, The journal of physical chemistry letters.
[109] F. Pelayo García de Arquer,et al. Monolayer Perovskite Bridges Enable Strong Quantum Dot Coupling for Efficient Solar Cells , 2020 .
[110] N. Zheng,et al. Moisture-tolerant and high-quality α-CsPbI3 films for efficient and stable perovskite solar modules , 2020 .
[111] Jun Liu,et al. All-polymer indoor photovoltaics with high open-circuit voltage , 2019, Journal of Materials Chemistry A.