Characterisation of Photovoltaic Materials and Cells

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Standard Measurement Services and Prices No. Measurement Description Reference 1 Large area, 0.35-sun biased spectral response (SR) 2 Determination of linearity of spectral response with respect to irradiance 3 Xenon short arc lamp I-V characterization under AM1.5G with spectral mismatch correction Enlitech SR-156 large area spectral response analyzer; AC/DC mode with lock-in detection; Measurement range: 300 1200 nm; Beam power monitoring and compensation; Measurement cell size: Up to 156 x 156 mm 2 ; Repeatability: Within 0.4% in integrated I sc ; Probe beam spatial uniformity: 5% ( 156 x 156 mm 2 ); Bias light spatial uniformity: 2% ( 156 x 156 mm 2 ); Stage temperature control range: 20-60 C & ±0.5 C accuracy; We welcome customers to have cells preconditioned by light soaking at SERIS at a low cost (see item 5). Enlitech SR-156 large area spectral response analyzer; Spectral response at 1%, 5%, 10%, 30%, 100% of 1-sun bias; Specifications of spectral response analyser as per Item 1; OAI TriSOL 300mm steady-state solar simulator (Class AAA); 0.35-sun biased spectral response (See Item 1); Spectral match to AM1.5G spectrum: ±12.5%; Spatial non-uniformity: 2% over 300 x 300 mm 2 area; Stage temperature control range: 10-70 C & ±0.5 C accuracy; Area measurement included (refer to Item 6); We welcome customers to have cells preconditioned by light soaking at SERIS at a low cost (see item 5). Price as of Jan 1 2015 (US Dollars) IEC 60904-8 1 st cell: $250; IEC 60904-8, IEC 60904-10 IEC 60904-1 IEC 60904-7 IEC 60904-9 2 nd cell onwards: $120 1 st cell: $450; 2 nd cell onwards: $400 1 st cell: $300; 2 nd cell onwards: - $180 (with SR for every cell) or - $50 (SR only for 1 st cell, spectral mismatch correction based on 1 st cell) Page 1 of 7

Standard Measurement Services and Prices 4 LED I-V characterization under AM1.5G or arbitrary spectrum conditions with spectral mismatch correction Wavelabs Sinus-220 steady-state solar simulator (Class AAA); 0.35-sun biased spectral response (See Item 1); 21 sets of LEDs tunable to compose arbitrary, temporally stable spectra as defined by customer; Spatial non-uniformity: 2% over 160 x 160 mm 2 area; Stage temperature control range: 20-60 C & ±0.5 C accuracy; Area measurement included (refer to Item 6); 5 Light soaking Solixon A-70 solar simulator; We welcome customized requests for measurement under more than one spectrum. Total illumination area: 70 x 70 cm 2 ; Acceptable sample height: 10 mm; Spectrum: IEC Class A; Nominal light intensity: 1000 W/m 2 ± 2% Irradiance homogeneity: ±5%; Temporal instability: ±5% over 24 hours; 6 Area measurement of cell Sunny Instruments MV-322; Stage temperature control range: 25-60 C & ±2 C homogeneity (dependent on sample); Typical application e.g.: light soaking at 1 sun at 25 C, typically stabilizes boron-doped cell within 6 hours; High-Precision Topology Measurement Tool; Measuring range: (i) 300 mm (x-axis), (ii) 200 mm (y-axis), (iii) 200 mm (z-axis); Accuracy (@20 C ± 1 C): 3 + 4L/1000 m (xy-axis) IEC 60904-1 IEC 60904-7 IEC 60904-9 1 st cell: $300; 2 nd cell onwards: - $180 (with SR for every cell) or - $50 (SR only for 1 st cell, spectral mismatch correction based on 1 st cell) $80 per batch (up to 16 x 6 wafers) for 6 hours $100 per sample Page 2 of 7

Standard Measurement Services and Prices 7 Determination of temperature coefficient - T dependent I-V - Mismatch factor correction at 25 C 8 Single point, solar cell active area internal quantum efficiency (IQE) 9 Total reflectance / transmittance Measured using either Xenon (Item 3) or LED I-V tester (Item 4); 0.35-sun biased spectral response (See Item 1); Temperature dependent I-V characterization (at 15, 25, 30, 40, 50, 60 C) Full area spectral response measurement at 25 C; Bentham/IVT PVE300 spectral response system; Measurement of external quantum efficiency (EQE) and total reflectance (R) using small beam spectral response; Measurement wavelength range: 300-1700 nm; Motorized X-Y stage with 200 x 200 mm travel; Small typical beam size ~ 1 x 4 mm; For metal finger pitch > 1.5 mm, beam lies completely within active area of solar cell between fingers; Excellent repeatability of < 0.2% in integrated I sc ; Agilent Cary 7000 UMS; Measurement wavelength range: 200-2500 nm; White reflectance standard Automatic wavelength calibration; Wavelength accuracy: (i) UV-VIS (200-900nm): ± 0.08 nm (ii) NIR (760-2500nm): ± 0.4 nm $300 per sample 1 st cell: $200 (EQE or R only), $250 (EQE and R); 2 nd cell onwards: $80 (EQE or R only), $100 (EQE and R) Mapping option at $30 per additional point (EQE or R), $50 (EQE and R) 1 st sample: $100; 2 nd sample onwards: $50 Page 3 of 7

No. Measurement Description 10 Angular resolved reflectance Agilent Cary 7000 UMS; Measurement wavelength range: 200-2500 nm; Automatic wavelength calibration; Wavelength accuracy: (i) UV-VIS (200-900nm): ± 0.08 nm (ii) NIR (760-2500nm): ± 0.4 nm 11 PCD point measurement / mapping Semilab PV-2000; Measures injection-dependent differential lifetime in Si by measuring the rate of change in carrier density with step changes in illumination conditions 12 Corona voltage measurement / mapping Semilab PV-2000; Employs incremental corona charging of dielectrics and subsequent measuring of the surface potential with a vibrating capacitive electrode (Kelvin probe), to achieve non-contact mapping/measurement of (i) Surface barrier height (V sb ) (range: -800 to 800 mv, resolution: 1 mv), (ii) Flat band voltage (V fb ) (range: -60 to 60 V, resolution: 0.001 V), (iii) Dielectric total charge (Q tot ) (range: 5 x 10 9 to 5 x 10 13 cm -2, resolution: 5 x 10 9 /cm 2 ) (iv) Interface trap density (D it ) (10 10 to 10 13 cm -2, resolution: 10 10 cm -2 ), Suitable for mapping square wafers up to 156 x 156 mm 13 Surface photovoltage (SPV) sheet resistance mapping Semilab PV-2000; SPV-based technique for fast mapping 14 Four point probe mapping AIT Instruments CMT-SR2000-PV with Jandel probes Allows mapping / checking of spatial uniformity of square wafers up to 156 mm x 156 mm and round wafers up to 230 mm diameter, with maximum thickness of 6mm; Measuring range: 1 mω/sq 2 MΩ/sq (sheet resistance) or 10.0 mω.cm - 200.0 kω.cm (resistivity) Page 4 of 7

15 Fourier transform infrared (FTIR) spectroscopy Thermo Scientific Nicolet is50 FT-IR; Spectral range of 10 25000 cm -1 ; Surface analysis of materials using attenuated total reflection (ATR) Single Bounce Ge ATR Accessory; High wavenumber resolution of ~0.1 cm -1 16 Raman spectroscopy Renishaw invia; 514 nm Ar ion excitation laser (50 mw); Measures Raman spectrum from 100 cm -1 to 4000 cm -1 ; Raman peak positions allow material and phase identification (e.g. amorphous silicon vs crystalline silicon) Raman relative peak intensities and peak shifts provide further information on material and strain; Research grade Leica microscope (5x, 20x, 50x objectives) with binocular head and integral color video camera 17 3D profile microscope Zeta Instruments, Zeta-300; Non-contact optical profiler; High sensitivity for low reflectance surfaces such as anti-reflection coated, rough surfaces Optically image large areas and provide accurate 3D topography information; Enables measurement of roughness parameters, lateral dimensions, step heights, wall angles, etc; Z resolution: <10 nm; 5x, 20x, 50x, 100x, 150x objective; Motorized XY stage with 200 x 200 mm travel and automated Z stage 18 Electron beam induced current (EBIC) Extension to Zeiss Auriga FESEM; Allows study of electronic quality of p-n junctions with SEM resolution 19 Electron backscattered diffraction (EBSD) Bruker e-flash 1000 attachment to Zeiss Auriga FESEM; Mapping of crystal orientation of crystalline semiconductor films; Native resolution: 640 x 480 pixels; Page 5 of 7

20 Scanning Electron Microscope (SEM) Zeiss Auriga field emission scanning electron microscope (FESEM); Characterization of sample's surface topography, structure and electrical properties; Schottky type field emission system; Resolution: 1.0 nm at 15 kv and 1.9 nm at 1 kv; Accelerating voltage: 100V to 30 kv ; Beam current: up to 20 na; Equipped with EBSD and EBIC detector; 21 Quasi-steady state photoconductance (QSSPC) lifetime Sinton Instruments, WCT-120; Measures effective lifetime of Si in either quasi-steady state or transient modes Measures implied Voc and emitter saturation current density jo; Sensor area: 40 mm diameter; Lifetime measurement range: 1 s to 10 ms; Typical calibrated injection range: 1013 to 1016 cm-3; Sample size diameter: 40 to 210 mm; 22 Lifetime spectroscopy with T dependence Sinton Instruments lifetime tester with temperature controlled chuck 23 Stylus profiling Veeco Dektak 150 Surface Profiler; Measures surface steps, variation and roughness as a function of position by monitoring the displacement of a stylus moved in contact on the sample surface; Vertical resolution: 1Å max; Vertical range: 524 mm; Scan length range: 55 mm 24 Fe imaging of wafers BT Imaging LIS-R2; PL based method of determining iron concentration Page 6 of 7

25 PL imaging of raw wafer with defect mapping BT Imaging LIS-R2; High power 915 nm infrared laser; Si back illuminated deep depletion CCD camera with high sensitivity over wavelengths from 800 to 1100 nm Image size: up to 1024 x 1024 pixels; Maximum wafer size: 160 x 160 mm; Variable illumination intensity: up to 3.6 suns 26 PL/EL of cells with Rs and efficiency maps BT Imaging LIS-R2; Combination of luminescence images at different operating points of a finished solar cell to construct maps of Rs and efficiency 27 Electrochemical Capacitance Voltage (ECV) Profiling WEP Wafer Profiler CPV21; Measurement of concentration of active dopants in semiconductors; E.g. Bulk doping density or doping profile of Si, Ge, GaAs, InP, GaN, etc; Concentration resolution: < 1012 cm-3 to > 1021 cm-3; Depth resolution (depending on material): 1 nm to 100 mm For further information, please contact: Dr Johnson WONG Head of PV Characterisation Group Silicon Materials and Cells Cluster Email: johnson.wong@nus.edu.sg Tel: +65 6601 1961 Page 7 of 7