YIELD ASSESSMENT OF THE PHOTOVOLTAIC POWER PLANT

Report number: PV-9320-1501-27Issued: 06 January 2015 16:27 (UTC)

1. Site info

Site name: Madurai, India

Coordinates: 09° 56' 14.0" N, 78° 07' 44.91" EElevation a.s.l.: 139 mSlope inclination: 0°Slope azimuth: 218° southwest

Annual global in-plane irradiation: 1896 kWh/m2

Annual air temperature at 2 m: 27.9 °C

2. PV system info

Installed power: 12.0 kWpType of modules: crystalline silicon (c-Si)Mounting system: fixed mounting, building integratedAzimuth/inclination: 90° (east) / 30°Inverter Euro eff.: 97.5%DC / AC losses: 5.5% / 1.5%Availability: 99.0%

Annual average electricity production: 16.6 MWhAverage performance ratio: 72.6%

Location on the map: http://solargis.info/imaps/#loc=9.93722248715,78.1291410327&tl=Google:Satellite&z=19

3. Geographic position

Google Maps © 2015 Google

4. Terrain horizon and day length

Left: Path of the Sun over a year. Terrain horizon (drawn by grey filling) and module horizon (blue filling) may haveshading effect on solar radiation. Black dots show True Solar Time. Blue labels show Local Clock Time.

Right: Change of the day length and solar zenith angle during a year. The local day length (time when the Sun is above thehorizon) is shorter compared to the astronomical day length, if obstructed by higher terrain horizon.

© 2015 GeoModel Solar page 1 of 4

Site: Madurai, India, lat/lon: 9.9372°/78.1291°PV system: 12.0 kWp, crystalline silicon, fixed integrated, azim. 90° (east), inclination 30°

© 2015 GeoModel Solar Report number: PV-9320-1501-27 Issued: 06 January 2015 16:27 (UTC) page 2 of 4

5. Global horizontal irradiation and air temperature - climate reference

Month Ghm

Ghd

Dhd

T24

Jan 165 5.33 2.28 24.4Feb 172 6.16 2.20 26.1Mar 210 6.78 2.36 28.6Apr 190 6.32 2.70 31.0May 187 6.03 2.84 31.5Jun 169 5.64 2.75 29.7Jul 164 5.28 2.84 29.0Aug 171 5.53 2.86 29.1Sep 173 5.75 2.64 28.9Oct 159 5.14 2.60 27.3Nov 132 4.41 2.40 25.2Dec 141 4.54 2.22 24.1Year 2033 5.57 2.56 27.9

Long-term monthly averages:

Ghm

Monthly sum of global irradiation [kWh/m2]Gh

dDaily sum of global irradiation [kWh/m2]

Dhd

Daily sum of diffuse irradiation [kWh/m2]T

24Daily (diurnal) air temperature [°C]

6. Global in-plane irradiationFixed surface, azimuth 90° (east), inclination. 30°

Month Gim

Gid

Did

Rid

Shloss

Jan 153 4.92 2.17 0.04 0.2Feb 158 5.66 2.13 0.05 0.2Mar 193 6.24 2.28 0.06 0.2Apr 177 5.90 2.58 0.05 0.2May 173 5.60 2.69 0.05 0.2Jun 158 5.28 2.59 0.05 0.2Jul 155 4.98 2.68 0.04 0.3Aug 162 5.23 2.71 0.05 0.3Sep 164 5.46 2.51 0.05 0.2Oct 149 4.80 2.44 0.04 0.3Nov 123 4.10 2.24 0.04 0.3Dec 131 4.23 2.10 0.04 0.3Year 1896 5.20 2.43 0.05 0.2

Long-term monthly averages:

Gim

Monthly sum of global irradiation [kWh/m2] Shloss

Losses of global irradiation by terrain shading [%]Gi

dDaily sum of global irradiation [kWh/m2]

Did

Daily sum of diffuse irradiation [kWh/m2]Ri

dDaily sum of reflected irradiation [kWh/m2]

Average yearly sum of global irradiation for different types of surface:

kWh/m2 relative to optimally inclinedHorizontal 2034 99.8%Optimally inclined (5°) 2039 100.0%2-axis tracking 2526 123.9%Your option 1897 93.0%

Site: Madurai, India, lat/lon: 9.9372°/78.1291°PV system: 12.0 kWp, crystalline silicon, fixed integrated, azim. 90° (east), inclination 30°

© 2015 GeoModel Solar Report number: PV-9320-1501-27 Issued: 06 January 2015 16:27 (UTC) page 3 of 4

7. PV electricity production in the start-up

Month Esm

Esd

Etm

Eshare

PR

Jan 114 3.68 1.4 8.3 74.4Feb 115 4.13 1.4 8.4 72.8Mar 138 4.45 1.7 10.0 71.3Apr 125 4.20 1.5 9.1 71.0May 123 3.99 1.5 9.0 71.2Jun 114 3.83 1.4 8.3 72.3Jul 112 3.64 1.4 8.2 72.7Aug 117 3.79 1.4 8.5 72.4Sep 118 3.95 1.4 8.6 72.3Oct 109 3.54 1.3 7.9 73.5Nov 92 3.07 1.1 6.7 74.6Dec 98 3.17 1.2 7.1 74.9Year 1381 3.78 16.6 100.0 72.6

Long-term monthly averages:

Esm

Monthly sum of specific electricity prod. [kWh/kWp] Eshare

Percentual share of monthly electricity prod. [%]Es

dDaily sum of specific electricity prod. [kWh/kWp] PR Performance ratio [%]

Etm

Monthly sum of total electricity prod. [MWh]

8. System losses and performance ratio

Energy conversion step Energy output Energy loss Energy loss Performance ratio

[kWh/kWp] [kWh/kWp] [%] [partial %] [cumul. %]

1. Global in-plane irradiation (input) 1901 - - 100.0 100.0

2. Global irradiation reduced by terrain shading 1897 -4 -0.2 99.8 99.8

3. Global irradiation reduced by reflectivity 1838 -59 -3.1 96.9 96.7

4. Conversion to DC in the modules 1537 -301 -16.4 83.6 80.9

5. Other DC losses 1453 -84 -5.5 94.5 76.4

6. Inverters (DC/AC conversion) 1416 -37 -2.5 97.5 74.5

7. Transformer and AC cabling losses 1395 -21 -1.5 98.5 73.4

8. Reduced availability 1381 -14 -1.0 99.0 72.6

Total system performance 1381 -520 -27.4 - 72.6

Energy conversion steps and losses:

1. Initial production at Standard Test Conditions (STC) is assumed,2. Reduction of global in-plane irradiation due to obstruction of terrain horizon and PV modules,3. Proportion of global irradiation that is reflected by surface of PV modules (typically glass),4. Losses in PV modules due to conversion of solar radiation to DC electricity; deviation of module efficiency from STC,5. DC losses: this step assumes integrated effect of mismatch between PV modules, heat losses in interconnections and cables, lossesdue to dirt, snow, icing and soiling, and self-shading of PV modules,6. This step considers euro efficiency to approximate average losses in the inverter,7. Losses in AC section and transformer (where applicable) depend on the system architecture,8. Availability parameter assumes losses due to downtime caused by maintenance or failures.

Losses at steps 2 to 4 are numerically modeled by pvPlanner. Losses at steps 5 to 8 are to be assessed by a user. The simulationmodels have inherent uncertainties that are not discussed in this report. Read more about simulation methods and related uncertaintiesto evaluate possible risks at http://solargis.info/doc/pvplanner/.

Site: Madurai, India, lat/lon: 9.9372°/78.1291°PV system: 12.0 kWp, crystalline silicon, fixed integrated, azim. 90° (east), inclination 30°

© 2015 GeoModel Solar Report number: PV-9320-1501-27 Issued: 06 January 2015 16:27 (UTC) page 4 of 4

9. SolarGIS v1.8 - description of the database

SolarGIS is high-resolution climate database operated by GeoModel Solar. Primary data layers include solar radiation, air temperatureand terrain (elevation, horizon).

Air temperature at 2 m: developed from the CFSR and GFS data (© NOAA NCEP, USA); years: 1994 - 2011; recalculated to15-minute values. The data are spatially enhanced to 1 km resolution to reflect variability induced by high resolution terrain.

Solar radiation: calculated from the satellite and atmospheric data:- Meteosat PRIME satellite (© EUMETSAT, Germany) 1994 - 2010, 15-minute or 30-minute values for Europe, Africa and Middle East,- Meteosat IODC satellite (© EUMETSAT, Germany) 1999 - 2011, 30-minute values for Asia,- GOES EAST satellite (© NOAA, USA) 1999 - 2012, 30-minute, partially 3-hourly values for Americas,- MTSAT satellite (© JMA, Japan) 2007 - 2012, 30-minute values for Pacific,- MACC (© ECMWF, UK) 1994 - 2012, atmospheric data,- GFS, CFSR (© NOAA, USA), 1994 - 2012, atmospheric data.

This estimation assumes year having 365 days. Occasional deviations in calculations may occur as a result of mathematical roundingand cannot be considered as a defect of algorithms. More information about the applied data, algorithms and uncertainty can be foundat: http://solargis.info/doc/pvplanner/.

10. Service provider

GeoModel Solar s.r.o. , Milana Marečka 3, 84107 Bratislava, Slovakia; Registration ID: 45 354 766, VAT Number: SK2022962766;Registration: Business register, District Court Bratislava I, Section Sro, File 62765/B

11. Mode of use

This report shows solar power estimation in the start-up phase of a PV system. The estimates are accurate enough for small andmedium-size PV systems. For suntracking simulations, only theoretical options are shown without considering backtracking and shading.For large projects planning and financing, more information is needed:1. Statistical distribution and uncertainty of solar radiation2. Detailed specification of a PV system3. Interannual variability and P90 uncertainty of PV production4. Lifetime energy production considering performance degradation of PV components.

More information about full PV yield assessment can be found at: http://solargis.info/doc/8.

12. Disclaimer and legal information

Considering the nature of climate fluctuations, interannual and long-term changes, as well as the uncertainty of measurements andcalculations, GeoModel Solar cannot take full guarantee of the accuracy of estimates. The maximum possible has been done for theassessment of climate conditions based on the best available data, software and knowledge. GeoModel Solar shall not be liable for anydirect, incidental, consequential, indirect or punitive damages arising or alleged to have arisen out of use of the provided report.

This report is copyright to © 2015 GeoModel Solar, all rights reserved.SolarGIS® is a trade mark of GeoModel Solar

13. Contact information

This report has been generated for Miss. anjali balakrishnan, meenakshi street, 625016, madurai, India.

This document is electronically signed by GeoModel Solar. The authenticity of this report can be verified here:http://solargis.info/doc/120