Photovoltaics literature survey (No. 187) DOI Open Access
Ziv Hameiri

Progress in Photovoltaics Research and Applications, Journal Year: 2023, Volume and Issue: 32(1), P. 56 - 60

Published: Dec. 10, 2023

In order to help readers stay up-to-date in the field, each issue of Progress Photovoltaics will contain a list recently published journal articles that are most relevant its aims and scope. This is drawn from an extremely wide range journals, including IEEE Journal Photovoltaics, Solar Energy Materials Cells, Renewable Energy, Sustainable Reviews, Applied Physics, Physics Letters. To assist readers, separated into broad categories, but please note these classifications by no means strict. Also inclusion not endorsement paper's quality. If you have any suggestions email Ziv Hameiri at [email protected]. Surmenev RA, Surmeneva MA. The influence flexoelectric effect on materials properties with emphasis photovoltaic related applications: A review. Today 2023; 67: 256–298. Röhr JA, Sartor BE, Lipton J, et al. dive underwater solar cells. Nature Photonics 17(9): 747–754. Henry R, Balar N, Ade H. In-situ ellipsometry for determination thermal transitions relaxations organic materials. Chemistry 35(18): 7406–7421. Cetinbas I, Tamyurek B, Demirtas M. Parameter extraction cells modules hybrid white shark optimizer artificial rabbits optimization. Conversion Management 296: 117621. Zahmatkeshsaredorahi A, Jakob DS, Fang H, Pulsed force Kelvin probe microscopy through integration lock-in detection. Nano Letters 23(19): 8953–8959. Chu MQ, Jiang Z, Wojcik M, Probing three-dimensional mesoscopic interfacial structures single view using multibeam x-ray coherent surface scattering holography imaging. Communications 14(1): 5795. Saliba Unger E, Etgar L, systematic discrepancy between short circuit current integrated quantum efficiency perovskite 5445. Mateo Romero HF, Hernández-Callejo González Rebollo MÁ, Optimized estimator output power PV EL images I–V curves. 265: 112089. Mintairov MA, Evstropov VV, SA, Current invariant as fundamental relation saturation currents band gaps semiconductor Cells 2024; 264: 112619. Liu XN, Xu ZY, Yan Y, Full-area i-a-Si:H/ATO/Mg electron-selective contacts silicon Acs 6(18): 9446–9454. Mo SI, Choi S, An JH, Design rule electron- hole-selective polycrystalline silicon-based passivating contact Interfaces 15(40): 46849–46860. Shehata MM, Macdonald DH, Black LE. Dramatic reduction recombination ALD TiOx capping layer TiCl4 H2O: role chlorine. 15(39): 46504–46512. Li YS, Chen ZW, Zhang Construction efficient polymetallic oxidation–reduction triggered thermite reaction. 116: 108801. Mahmood Fi, F, Hacke P, Susceptibility polarization type potential induced degradation commercial bifacial p-PERC modules. Photovoltaics: Research Applications 31(11): 1078–1090. Rudolph D, Messmer T, Timofte Improvement solder interconnections applied back low-temperature copper paste busbars. 112603. Jhou JC, Gaurav Lin HT, Bandgap tunable Si-based triple junction tandem cell: Numerical analysis-aided experimental investigation. 9434–9445. Wright Stefani BV, Jones TW, considerations bottom cell perovskite/silicon tandems: terawatt scalability perspective. Environmental Science 16(10): 4164–4190. ZJ, Bristow Babics Reverse-bias resilience monolithic Joule 7(9): 1992–2002. Jang Kim Lee Efficient flexible low-temperature-processed Al-doped zinc oxide electron transport layer. 9778–9787. Khandelwal K, Shankar SS, Malhotra Unraveling Impact thickness active morphology device performance semitransparent cells: comprehensive study. 6(19): 10078–10087. Kumagai Shimizu Minoda Visualization tens nanometers spaced donor: Acceptor bulk heterojunctions across submicrometer-square cross sections 9363–9370. Wang CF, Improving devices under low illuminations. 10163–10171. FH, YJ, MD, ternary indoor photovoltaics fullerene derivative host acceptor nonfullerene material guest acceptor. 10137–10146. QL, Huang Ran GL, layer-by-layer n-doping 46138–46147. Sun FB, XC, Wan High miscibility-induced trap density all-polymer cyclohexyl-hexyl side chains. Advanced Functional 33: 2306791. Guo CH, Fu YW, polymer donor pre-aggregate toward ordered molecular aggregation 19.3% binary 35: 2304921. Cui Zhao C, Souza JPA, Eliminating imbalanced mobility bottlenecks via reshaping internal distribution photovoltaics. 10(29): 2302880. Gao He DX, Flashing ratchet driving carriers accelerate directional migration devices. 123(10): 103902. Lewinska G, Kanak Danel KS, Effect benzene-based dyes optothermal layers Surface 641: 158535. Kong XY, Zhan LL, SX, Spontaneous vertical phase multi-acceptors system enables high-efficiency non-halogenated solvent large-area module application. Chemical Engineering 473: 145201. MY, Wu HB, Reducing voltage losses based fluorinated acceptors. 474: 145390. HQ, Yang DB, Ding PF, Dual Forster resonance energy transfer effects high photocurrent fill factor 145395. Smeets Q, Vanderspikken Structurally pure reproducible high-performance 35(19): 8158–8169. Siddika Peng ZX, Molecular interactions drive morphological mechanical stabilities 7(7): 1593–1608. W, Oh Park Building-up relations intra- intermolecular interactions, miscibility, low-cost, fully non-fused acceptor-based 117: 108853. YY, YX, Suppressing electron–phonon coupling conversion. 5079. YM, F. Mechanisms improved open-circuit 8(9): 919–920. Tan Fan WX, Zhu MB, Nonfused ring acceptors loss over 18%. Small 2304368. Zhou HR, HJ, Masud Synergistic size-tailored structural engineering postinterface modification highly stable dye-sensitized 15(37): 43835–43844. Speranza Zaccagnini Scalia Pouch-sealing effective way fabricate their supercapacitors. Power Sources 583: 233581. Yoo Kaliamurthy AK, JJ, PVP/PEG blend electrolytes quasi-solid-state operating temperature. 233568. Alizadeh Roudgar-Amoli Shariatinia Recent developments perovskites oxides spinel platinum-free counter electrodes Reviews 187: 113770. Gianola Bella Homo-tandem-bifacial new paradigm boost photoconversion above limit. 112116. Scarano V, Gontrani Zarate AYS, push–pull dye semi-transparent p-type Tuning conjugation sexithiophene chain engineering. 112143. JW, MH, Involving hydroxyl-rich D-glucamine address hole issues tin-based 9815–9823. Magliano Mariani Agresti Semitransparent ultrathin protective buffer layers. 6(20): 10340–10353. Majhi Sridevi Jain Insight controlled passivation PEDOT:PSS defect modulation charge 6(17): 8695–8706. Feng Tang Stable inverted enabled design lewis base molecules. 9276–9286. Zou YH, Hu HH, Multifunctional interface treatment phosphate 9994–10004. Coffey AH, SJ, Gómez Controlling crystallization quasi-2D Incorporating bulky conjugated ligands. 13(33): 2201501. Huddy JE, Scheideler WJ. Rapid 2D Patterning large area flexography. 2306312. Sadeghi Van Sambeek Simonian Expanding periodic table include chalcogenide alloys gap spanning 1.5–1.9 eV. 2304575. Meng X, Dual-interface covalent framework durable 35(38): 2302839. Yue Cai Printable FAPbBr3 multifunctional building-integrated 35(36): 2301548. ZN, machine learning prediction model quantitative analyzing non-radiative non-fullerene 475: 119–127. Lou LY, ZS. synergistic strategy hexaazatrinaphthylene-cyanoindone-based transporting enabling 145808. Yin Cross-linking polymerization boosts From regulation. 4251–4279. Du Qiu SD, Efficient, stable, printed carbon-electrode hole-transporting bilayers. 7(8): 1920–1937. GP, Qin Jacobberger RM, What symmetry efficiency? 2152–2173. Liang 1966–1991. JD, Dong Room-temperature processed TiO2 construct composite planar 11(41): 22206–22215. Hidalgo Atourki RP, Bulky cation hinders undesired secondary phases FAPbI3 68: 13–21. Shin Aging mini 37: 101381. Cheng CD, Yao YG, novel phosphonate additive 24% synergetic promotion passivation. 8850–8859. Luo KK, Dissolved-Cl2 redox reaction 3738. Yu Modulation multiple-barrier light-heat 6120. GX, Su ZH, Canil Highly p-i-n endure temperature variations. 379(6630): 399–403. SM, Wei ligand reactivity high-temperature operation 381(6654): 209–215. Mandal TN, Heo Im SH, d-FAPbI3 crystals. 2305246. Narayanan Rajni KS. CdTe superstrate geometry-back-contact materials: 8644–8659. Geng Hyperactive selenium source yields kesterite 12.86% efficiency. 2307389. Gehrke AS, Sommer DE, Dunham ST. Atomistic models Ga diffusion Cu(In,Ga)Se2. 134(11): 115002. LZ, Tao SY, Crystallization mechanism Cu2ZnSn(S,Se)4 thin film situ potassium doping. 11(37): 20139–20150. Hwang Reforming chemistry CIGS precise Ag doping strategy. 11(36): 19546–19555. JL, Interface-suppressed high-quality symmetrical CZTSe green electrodeposition process. 11(39): 21293–21299. Khattak Baig Bouich Designing next-generation numerical investigation innovative variants enhanced performance. 112105. Sawa Babucci Donzel-Gargand O, Enhanced Cu2ZnSnS4 FTO W/FTO absorber air annealing Na incorporation. 112605. Stam du Fossé Infante Guilty charged: undercoordinated indium electron-charged phosphide dots. 17(18): 18576–18583. CY, synthesis dots 0D/3D 2304161. DY, WH, CdSe dot-sensitized Eu-doped photoanode. a-Materials Processing 129(11): 752. Hou QG, RL, Facile pseudohalide pretreatment 145657. Salah FEA, Maouhoub Tifidat analytical approach forecasting peak panels working outdoor conditions explicit model. Management: X 20: 100423. Abedi Moradi Shirmohammadi R. Real-time assessment GSM-based smart monitoring system: Addressing impact climate change estimation software. Reports 10: 2361–2373. Chang CCW, TJ, Han Moth flame optimization maximum point tracking scheme partial shading conditions. 9: 374–379. Dbouk HM, Chehimi Khalaf A. Photovoltaic sizing learning. 512–518. Sahin Isik van Sark W. Predictive modeling plant considering weather conditions: comparative analysis neural networks multiple linear regression. 2837–2849. Sharma Lim El-Kenawy EM, Identification parameters implementing teaching unique exemplar generation (TLBO-UEGS). 1485–1506. Singh Powar S. Putting practice decision-making thorough location evaluation plants India distinctive zones. Strategy 50: 101202. Al-Wesabi Farh HMH, Dynamic global partially shaded MPSO-PID anti-windup Artificial Intelligence 126: 106965. LC, Xie Distributed online control fast fluctuations imperfect communication. Transactions Smart Grid 14(5): 3681–3695. Tripathi Chopra Sahu HS, MPP technique DDM array different irradiance 14(4): 2177–2191. ZR, dust deposition simulation application installation parameter Cleaner Production 423: 138743. Ali Khan Niazi Victoria Comparative configurations agrivoltaic systems Europe. 1101–1113. Merodio Martínez-Moreno Moretón Albedo measurements yield uncertainty systems. 1130–1143. Pinochet Couderc Therias UV-induced or discolouration: Between devil deep yellow sea. 1091–1100. Theristis Riedel-Lyngskær Stein JS, Blind intercomparison: multidimensional data lessons learned. 1144–1157. Nobre Boulêtreau Colas Potential ecological impacts floating lake biodiversity ecosystem functioning. 188: 113852. Taylor Pettit Sekiyama Justice-driven agrivoltaics: Facilitating agrivoltaics embedded justice. 113815. Hayibo Pearce JM. Vertical free-swinging racking modeling: agrivoltaics. 218: 119343. Willockx Lavaert Cappelle J. Performance single-axis tracked arable land. 217: 119181. Almukhtar Lie TT, Al-Shohani WAM. Comprehensive temperature: Experimental insights mathematical modeling. 112125. Anusuya Vijayakumar Manikandan eternity: holistic review panel End-of-Life management. 112135. Laevens BPM, Pijpers FP, Boonstra Markov Chain Monte Carlo parameters. 112132. Smith SE, Djeridi Calaf Particle transport-driven flow dynamics heat modules: Implications soiling. 112084. Jordan DC, Barnes TM. Degradation science kilometers: pathway rapid detection reliable RRL 7(17): 2300170. YD, YB, JB, Physical-assisted multi-agent graph reinforcement regulation PV-rich network. 351: 121743. incremental method concept drift privacy protection. 121919. Liao Xiao YQ, Quantifying surplus urban scale: case study Seoul. Buildings 298: 113523. Williams Michaels Crossland AF, Decarbonising electrical grids capacity factors. 4650–4659. Sander Jung Schindler D. New renewable priority zones onshore wind expansion. 294: 117575. Opstal When do circular business resolve barriers residential adoption? Evidence survey Flanders. Policy 182: 113761. PD, desert microclimate. 2128–2137. Marques Silva HBD, Thakur Categorizing shared markets: CANVAS transaction costs. 1602–1617. Shakeel SR, Yousaf Irfan adoption household level: Insights literature 101178. Gan Elgowainy Lu ZF, Greenhouse gas emissions embodied US supply chain. 18(10): 104012. Saxena Brown Arneth Modelling land sensitivity change. 104017. YT, XJ, How much carbon dioxide has Chinese manufacturing industry emitted? 425: 123993. David Kaul Maurer Public value mapping assess guide governmental investments environmental justice: Studying United States Department Energy. 113765. Shi Tian regulatory policies perform? China's Top-10,000 enterprises energy-saving program. 113734. Bai B. Nexus finance development technological innovation: achieve transition. 119295. Ren Weibel scale photovoltaic-based projects poverty reduction: Empirical evidence China. 119294. Chao promote joint alleviation clean development: evolutionary game theoretic 119296. Miao Can deposit-return recycling waste China? Analysis game. 112136.

Language: Английский

Strategies for Improving Efficiency and Stability of Inverted Perovskite Solar Cells DOI
Wenxiao Zhang, Xuemin Guo,

Zhengbo Cui

et al.

Advanced Materials, Journal Year: 2024, Volume and Issue: 36(37)

Published: March 1, 2024

Abstract Perovskite solar cells (PSCs) have attracted widespread research and commercialization attention because of their high power conversion efficiency (PCE) low fabrication cost. The long‐term stability PSCs should satisfy industrial requirements for photovoltaic devices. Inverted with a p‐i‐n architecture exhibit considerable advantages excellent competitive efficiency. continuously broken‐through PCE inverted shows huge application potential. This review summarizes the developments outlines characteristics including charge transport layers (CTLs), perovskite compositions, interfacial regulation strategies. latest effective CTLs, modification, promotion strategies especially under light, thermal, bias conditions are emphatically analyzed. Furthermore, applications structure in high‐efficiency stable tandem, flexible devices, modules main obstacles systematically introduced. Finally, remaining challenges faced by devices discussed, several directions advancing proposed according to development status industrialization requirements.

Language: Английский

Citations

50

Dual Interface Passivation With Multi‐Site Regulation Toward Efficient and Stable Inverted Perovskite Solar Cells DOI Open Access
Kunpeng Li, Yong Han, Xinlong Zhao

et al.

Advanced Energy Materials, Journal Year: 2025, Volume and Issue: unknown

Published: Feb. 23, 2025

Abstract The rapid crystallization process of perovskite produces a large number defects that remain critical factor disturbs the performance solar cells (PSCs). In this research, these challenges are mitigated by introducing multifunctional 2,6‐pyridinedicarboxylic acid chloride (PAC) as an additive into perovskite. During thermal annealing process, predominant accumulation PAC occurs at upper and buried interfaces film. possesses multiple passivating sites facilitate anchoring lead iodine defects, thereby enhancing quality material across both its dual grain boundaries. With unique property, combined with advantages enhanced crystallization, reduced non‐radiative recombination, boosted charge carrier mobility, optimal energy level alignment, PSC achieved power conversion efficiency (PCE) 25.60% maintained more than 90% after 3000 h under one equivalent light 1400 dark high temperature (85 °C). interface passivation strategy provides sustainable solution to stability environmental for commercialization cells.

Language: Английский

Citations

2

Enhanced efficiency in two-terminal all-perovskite tandem solar cells via binary functional high polymer doping strategy DOI
Ziang Xie, Sen Chen,

Yili Pei

et al.

Chemical Engineering Journal, Journal Year: 2024, Volume and Issue: 482, P. 148638 - 148638

Published: Jan. 8, 2024

Language: Английский

Citations

9

Boosting the Intelligent Development of Electromagnetic Shielding Polymer Composites by Expert Knowledge DOI

Wenjing Cao,

Xiong Li, Yiyuan Chen

et al.

Advanced Functional Materials, Journal Year: 2024, Volume and Issue: unknown

Published: Sept. 17, 2024

Abstract An intelligent process for developing electromagnetic interference (EMI) shielding composites is imperative to eliminate the escalating pollution of waves (EMWs). Meanwhile, integrating porous and/or layered structures with polymers demonstrated as an effective approach. Herein, expert knowledge serves guidance Simulation‐First Strategy in designing that incorporate MXene bubble wrap‐like aerogels (MB a‐b A), characterized by distinct diameters a and densities b . The simulated EMI efficiency (EMI SE) corresponding MB A/polyethylene glycol AP) predicted through finite element analysis (FEA) simulation. Subsequently, AP are fabricated template methods exhibit outstanding SE up 83.1 dB ultrahigh absorption (SE A ) 75.1 X band at = 10 µm 0.50, perfectly aligning simulation outcomes. Combined macro‐scale FEA experimental evidence, pronounced EMWs attenuation effect, heat storage/release, mechanical performances unequivocally substantiated. Based on these, this work proves feasibility development strategy provides research basis advanced materials directed knowledge.

Language: Английский

Citations

6

Buried Interface Engineering for MAPbI3 Perovskite Solar Cells by the Novel Carbon Nitride Synergistic Strategy DOI
Zuhong Li,

Jinguo Cao,

Xiaojie Yang

et al.

ACS Applied Materials & Interfaces, Journal Year: 2025, Volume and Issue: unknown

Published: April 2, 2025

Carrier recombination, which arises from defects present at both the buried interface and throughout bulk phase, hinders performance improvement in perovskite solar cells (PSCs). Nonetheless, current strategies still face some pressing issues. Herein, we demonstrate a novel synergistic strategy of carbon nitride (C3N3) as modified layer antisolvent additive to reduce energy loss resulting nonradiative recombination. C3N3 functions serve an interfacial modification that enhances electron mobility, improves contacts, matches levels between SnO2 perovskite. Meanwhile, acts layer, reducing defect density modulating level, boosts efficiency moisture stability PSCs. Consequently, target devices achieve remarkable power conversion 21.43%, with unencapsulated retaining 90% their initial value after operating 1000 h. These integrated provide promising method for simultaneously defects, potential application other photoelectronic devices.

Language: Английский

Citations

0

Enhanced performance of fiber-based perovskite solar cell achieved by multi-functional high polymer doping strategy DOI
Ziang Xie, Sen Chen, Shiping Zhang

et al.

Journal of Colloid and Interface Science, Journal Year: 2024, Volume and Issue: 663, P. 309 - 328

Published: Feb. 20, 2024

Language: Английский

Citations

3

A novel chain-like conjugated donor-π-acceptor molecular additive for highly efficient and stable perovskite solar cells DOI
Haipeng Jiang,

Chunyu Wei,

Jin Wang

et al.

Chemical Engineering Journal, Journal Year: 2024, Volume and Issue: 490, P. 151778 - 151778

Published: April 30, 2024

Language: Английский

Citations

2

Enhancing Efficiency and Stability of Inverted Perovskite Solar Cells through Solution‐Processed and Structurally Ordered Fullerene DOI
Xianglang Sun, Chunlei Zhang, Danpeng Gao

et al.

Angewandte Chemie International Edition, Journal Year: 2024, Volume and Issue: 64(1)

Published: Sept. 11, 2024

The electron transporting layer (ETL) used in high performance inverted perovskite solar cells (PSCs) is typically composed of C

Language: Английский

Citations

2

Enhancing Efficiency and Stability of Inverted Perovskite Solar Cells through Solution‐Processed and Structurally Ordered Fullerene DOI
Xianglang Sun, Chunlei Zhang, Danpeng Gao

et al.

Angewandte Chemie, Journal Year: 2024, Volume and Issue: 137(1)

Published: Sept. 11, 2024

Abstract The electron transporting layer (ETL) used in high performance inverted perovskite solar cells (PSCs) is typically composed of C 60 , which requires time‐consuming and costly thermal evaporation deposition, posing a significant challenge for large‐scale production. To address this challenge, herein, we present novel design solution‐processible material (ETM) by grafting non‐fullerene acceptor fragment onto . synthesized BTPC exhibits an exceptional solution processability well‐organized molecular stacking pattern, enabling the formation uniform structurally ordered film with mobility. When applied as ETL PSCs, not only excellent interfacial contact layer, resulting enhanced extraction transfer efficiency, but also effectively passivates defects to suppress non‐radiative recombination. Resultant ‐based PSCs deliver impressive power conversion efficiency (PCE) 25.3 % retain almost 90 initial values after aging at 85 °C 1500 hours N 2 More encouragingly, solution‐processed demonstrates remarkable thickness tolerance, enables PCE up 24.8 200 nm. Our results highlight promising fullerene‐based ETM, opening avenue improving scalability efficient stable PSCs.

Language: Английский

Citations

2

A Diphosphonic Acid-Based Interlayer for Highly Efficient and Stable Inverted Perovskite Solar Cells DOI
Yuanyuan Xu, Yu Chen,

Lishou Ban

et al.

ACS Applied Materials & Interfaces, Journal Year: 2024, Volume and Issue: 16(43), P. 59536 - 59546

Published: Oct. 21, 2024

We investigate an interlayer of 6,6′-bis(4-(bis(4-methoxyphenyl)amino)phenyl)-[1,1′-binaphthalene]-(2,2′-diyl)bis(oxy)bis(propane-3,1-diyl)bis(phosphonic acid) (BINOL-PA) with undoped poly[bis(4-phenyl)(2,4,6-trimethylphenyl)amine] (PTAA) coverage. The incorporation the 1,10-bi-2-naphthol central core enhances π–π stacking and reduces charge recombination at interface. Compared to PTAA alone (0.95 eV), BINOL-PA/PTAA exhibits a shorter distance from Fermi energy (EF) valence-band maximum (VBM) (0.36 eV). Two phosphoric acid units in BINOL-PA fine-tune molecular dipoles. Theoretical calculations reveal electrostatic surface potential differences between their backbone structure. Open-circuit voltage decay (OCVD) electrochemical impedance spectroscopy (EIS) results suggest suppressed interface recombination. photovoltaic conversion efficiency (PCE), short-circuit current density (JSC), open-circuit (VOC), fill factor (FF) for device are measured as 21.02%, 22.67 mA cm–2, 1.12 V, 82.8%, respectively, all higher than those achieved by PCE 18%. significantly elevates VOC FF values compared dopant-free alone. champion retains over 89% its initial after being exposed ambient environment without encapsulation more 30 days. thermal aging test conducted under nitrogen atmosphere demonstrates that retention rate displays 60% 1500 h.

Language: Английский

Citations

1