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Performance Analysis of Crystalline Silicon and CIGS Photovoltaic Modules in Outdoor Measurement

Sustain Energy Rev. 2015;41:284-297. DOI: 10.1016/j.rser.2014.08.046. [6] Singh GK. Energy. 2013;53:1-13. DOI: 10.1016/ [7] Wenham SR, Green MA. Prog Photovoltaics. 1996;4:3-33. DOI: 10.1002/(SICI)1099-159X(199601/02)4:1<3::AID-PIP117>3.0.CO;2-S. [8] Orbey N, Norsworthy G, Birkmire RW, Russell TWF. Prog Photovoltaics. 1998;6:79-86. DOI: 10.1002/(SICI)1099-159X(199803/04)6:2<79::AID-PIP203>3.0.CO;2-N. [9] Krc J, Topic M. Optical Modeling and Simulation of Thin-Film Photovoltaic Devices. Boca Raton: CRC Press; 2016. [10

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Application of the reduced I-V Blaesser’s characteristics in predicting PV modules and cells conversion efficiency in medium and high insolation conditions

. Technical Digest of the PVSEC 15. Shanghai, 2005:422-423. . [12] King DL, Kratochvil JA, Boyson WE. Temperature coefficients for PV modules and arrays. Measurement methods, difficulties, and results. Proc 26 th IEEE PVSC. Anaheim: 1997. DOI: 10.1109/PVSC.1997.654300. [13] Virtuani A, Pavanello D, Friesen G. Overview of temperature coefficients of different thin film photovoltaic technologies. Proc 25 th EU PVSEC. Valencia: 2010:4248-4252. https

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The Use of Two-Diode Substitute Model in Predicting the Efficiency of PV Conversion in Low Solar Conditions

Photovoltaic Current-Voltage Characteristics. Geneva: IEC; 1987. [30] Blaesser G. PV array Data Translation Procedure. Proc. 13th EU PVSEC. Nice: 1995. [31] Marion B, Rummel S, Anderber A. Current-voltage translation by bilinear interpolation. Progress in Photovoltaics. 2004;12:593-607. DOI: 10.1002/pip.551. [32] Virtuani A, Pavanello D, Friesen G. Overview of Temperature Coefficients of Different Thin Film Photovoltaic Technologies. Proc. 25th EU PVSEC. Valencia: 2010

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Effectiveness of Removal of Humic Substances and Heavy Metals from Landfill Leachates During their Pretreatment Process in the SBR Reactor

. Wenzel A, Gahr A, Niessner R. TOC-removal and degradation of pollutants in the leachate using a thin-film photoreactor. Water Res. 1999;33:937-946. Monje-Ramirez I, Orta de Velasquez MT. Removal and transformation of recalcitrant organic matter from stabilized saline landfill leachates by coagulation-ozonation coupling processes. Water Res. 2004;38:2358-2366. Ketchum LH. Design and physical features of sequencing bath reactors. Water Sci Techn. 1997;35:11-18. Grabińska-Łoniewska A

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A new system for measuring electrical conductivity of water as a function of admittance

Capillary Electrophoresis Devices. Anal. Chem. 2003; 75, 306-312. 12553766 10.1021/ac0157371 Laugere Frederic M. Guijt Rosanne Bastemeijer Jeroen van der Steen Gert Berthold Axel Baltussen Erik Sarro Pascalina W. K. van Dedem Gijs Vellekoop Michiel Bossche Andre On-Chip Contactless Four-Electrode Conductivity Detection for Capillary Electrophoresis Devices Anal. Chem 2003 75 306 312 9 Jinsong Yu and Chung-Chiun Liu, Microfabricated Thin Film Impedance Sensor

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Transient bioimpedance monitoring of mechanotransduction in artificial tissue during indentation

includes the microfluidic system and support, can be given as: (20) R s u b = ρ s u b L K k h s K k ′ h s $${{R}_{sub}}=\frac{{{\rho }_{sub}}}{L}\frac{K\left( {{k}_{hs}} \right)}{K\left( {{{{k}'}}_{hs}} \right)}$$ In a similar manner the geometry of the thin film of the conductive medium can be mapped onto the parallel plate geometry [ 36 ]. In this instance: (21) k t f = tanh π g 2 h tanh π s + g 2 h $${{k}_{tf}}=\frac{\tanh \left( \frac{\pi g}{2h} \right)}{\tanh \left( \frac{\pi \left( s+g \right)}{2h} \right)}$$ and: (22

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Electrical Impedance Spectroscopic Studies on Broiler Chicken Tissue Suitable for the Development of Practical Phantoms in Multifrequency EIT

. Hsu, and Lee M., High frequency impedance spectroscopy on ZnO nanorod arrays, Journal of Applied Physics. 2010; 107: 064312. 10.1063/1.3319555 10.1063/1.3319555 Scrymgeour D. A. Highstrete C. Lee Y. J. Julia W. P. Hsu Lee M. High frequency impedance spectroscopy on ZnO nanorod arrays Journal of Applied Physics 2010 107 064312 10.1063/1.3319555 37 Nielsen J, Jacobsen T, Current distribution effects in AC impedance spectroscopy of electroceramic point contact and thin film model electrodes, Electrochimica Acta. 2010; 55(21): 6248

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A short tutorial contribution to impedance and AC-electrokinetic characterization and manipulation of cells and media: Are electric methods more versatile than acoustic and laser methods?

multi-sensor chip. The chip has been developed for the monitoring of cell-physiological parameters and cell-proliferation behaviour. Glass-wafer technology ensured the microscopic observability of the on-chip cell culture. A mouse-osteoblast precursor-cell line (MC3T3-E1) was used as a model system (manuscript in preparation). The chip has been combined with a microfluidic channel grid, which was imprinted in poly-dimethyl-siloxane. The glass substrate bore thin-film platinum structures which were covered by 1 μm Si 3 N 4 in most chip areas. Bare platinum structures

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Applications of bioimpedance measurement techniques in tissue engineering

example, impedance measurements have been used for continuous monitoring of tissue spheroids ( 62 , 84 , 85 ), as well as estimating the cell size ( 84 , 85 ), proliferation ( 62 ), evaluation of cell concentration ( 86 ) and cell viability ( 87 , 88 ). In addition, this method has been used for monitoring cells behavior by application of bulk ( 89 ) or thin film electrodes ( 90 ), on cells attached to a substrate ( 91 ), on cells in suspension ( 92 ) or on trapped single cell ( 93 ). Microsystems can provide an environment for cell cultures where noninvasive

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