Test Summary Report Giraffe 2.0 Hybrid Wind-Solar Power Station - for wind: according to IEC Annex M - for solar: measurement report

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Contact person Tanja Tränkle 2016-06-29 4P05805-R01 rev. 1 1 (7) Safety +46 10 516 57 19 Tanja.Trankle@sp.se Innoventum AB Morgan Widung / Marcus Ulmefors Turning Torso office 275 Lilla Varvsgatan 14 211 15 Malmö Test Summary Report Giraffe 2.0 Hybrid Wind-Solar Power Station - for wind: according to IEC 61400-2 2013 Annex M - for solar: measurement report (5 appendices) Summary This report has been prepared in accordance with the requirements of IEC 61400-2 Edition 3:2013 in order to provide a summary of testing in support of consumer labelling in accordance with Annex M of the standard. The Giraffe is a wooden construction including a hybrid system of both wind and solar energy production. The above mentioned standard IEC 61400-2 is solely dedicated for consumer labelling of the wind turbine part. The appendices to this report even include stated measurements of the solar performance of the Giraffe, however, this is not part of the consumer labelling as it is not based on a certain standard and such can be considered as information only. The requirements of ISO/IEC 17025 and relevant standards used to define the test requirements (e.g. IEC 61400-12-1) have been fulfilled by using calibrated instruments, competent personnel and documented methods. The test organization is accredited for acoustic noise measurement (SWEDAC Ackred.nr. 1002) according to IEC 61400-11. For the other tests carried out the organization is following the established quality system adopted and qualified for ISO 17025. Revision History Date Revised by Description of Changes 2016-06-27 - First issue 2016-06-29 Tanja Tränkle Explanation turbine class; Turbulence intensity; Declared Sound Power Level; Postal address Office location Phone / Fax / E-mail This document may not be reproduced other than in full, except with the SP Box 24036 SE-400 22 GÖTEBORG Sweden Gibraltargatan 35 SE-412 79 GÖTEBORG +46 10 516 50 00 +46 31 16 12 95 info@sp.se prior written approval of SP.

2016-06-29 4P05805-R01 rev. 1 2 (7) References IEC 61400-2:2013 Wind turbines Part 2: Small wind turbines IEC 61400-11:2011 Wind turbines Part 11: Acoustic noise measurement techniques IEC 61400-12-1:2005 Wind turbines Part 12-1: Power performance measurements of electricity producing wind turbines Description of the hybrid system The Giraffe 2.0 Hybrid Wind-Solar Power Station of InnoVentum AB consists of a laminated wood structure hosting a Sonkyo Energy Windspot 3.5 kw. The Windspot 3.5 kw is a horizontal axis machine with a 3-blade upwind rotor with variable pitch blades. The test object also hosts 24pcs of ITS Innotech Solar Eco Plus E250 solar panels with 6 kw total installed power. The panels are facing south, three columns of the panels are angled from the north-south centerline to the west, the other three columns are angled outwards to the east. Figure 1: Giraffe 2.0 Hybrid Wind-Solar Power Station

2016-06-29 4P05805-R01 rev. 1 3 (7) A summary of the test turbine configuration and manufacturer s declared ratings can be found in Table 1below: Table 1: Turbine configuration responsible vendor wind turbine model manufacturer of Windspot 3,5 kw model serial number generator 004285 serial number blades 40 030 902 serial number tail 40 000 014 support structure general description of main components Innoventum AB Turning Torso office 275, Lilla Varvsgatan 14, 211 15 Malmö, Sweden Windspot 3,5 kw mounted on InnoVentum Giraffe 2.0 Sonkyo Energy Windspot 3.5 kw InnoVentum Giraffe 2.0 wood structure - Main body + generator + variable pitch - 1 Tail - 1 Blades set (3 blades) - 1 Controller (on-grid type) - 1 Inverter - 1 Dump Load (diversion load) reference power (W or kw) 2 746 W (@11 m/s) (according to test) reference annual energy (kwh/yr) (according to test) 4 760 kwh (@5 m/s), 7 324 kwh (@6 m/s) hub height 12 m rotor diameter (m) (if applicable) 4,05 m swept area (m 2 ) 12,9 m 2 number of blades 3 upwind or downwind rotor (if applicable) Upwind VAWT or HAWT or other HAWT tower top weight (kg) 165 kg description of protection and shutdown system Passive centrifugal variable pitch system with shock absorber. Electric brake. description of yaw mechanism Passive system: tail direction of rotation Clockwise (viewed upwind) rotor speed and/or tip speed range (r/min 250 rpm and/or m/s) (according to test) cut-in wind speed (m/s) cut-out wind speed (m/s) extreme wind speed (3-s gust during test period) SWT class (as designed, and if available as tested) power form 3 m/s None 34 m/s Giraffe 2.0 tested according to class IV; (Windspot 3.5 kw in other configurations designed and tested according to class I) Unstable Vac out from generator Rectified to Vdc in controller Monophase 230 Vac 50 Hz after inverter

2016-06-29 4P05805-R01 rev. 1 4 (7) maximum output power (per definitions, 4 200 W giving the P60 as a minimum) maximum output voltage (per definitions, 264 Vac giving the U0,2 as a minimum) maximum output current(s) (per definitions, 20 Amp giving the i60 as a minimum) declared sound power level at a wind speed of 81 db (A) @ 8 m/s 8 m/s (db(a)) (according to test) operating temperature range ( C) -20 C / 50 C available support structures; Steel tower 12/18 m; Wooden tower 12 m (tested) design life (years) 25 Power Performance Testing In order to show the turbine s performance at each wind speed following table (Table 2) is providing the power curve statistics (corrected to an air density of 1,225kg/m 3 ) including uncertainty. Table 2: Measured Power Curve Bin no. Measured Power Curve Reference air density: 1,225 kg/m 3 Category A Category B Hub height wind speed Power output C P No of data sets Standard uncertainty s i Standard uncertainty u i Combined uncertainty Standard uncertainty u ci (m/s) (W) (1 min avg.) (W) (W) (W) 2 1,0 0 0,01 321 0,0 0,0 0,0 3 1,5 0 0,00 629 0,0 0,0 0,0 4 2,0 0 0,00 1 047 0,0 0,0 0,0 5 2,5 4 0,03 1 476 0,3 0,7 0,8 6 3,0 37 0,17 1 439 0,5 6,8 6,9 7 3,5 77 0,22 3 156 0,5 9,8 9,8 8 4,0 132 0,26 4 431 0,7 14,2 14,2 9 4,5 209 0,29 5 544 0,9 21,3 21,3 10 5,0 303 0,31 5 939 1,0 27,7 27,7 11 5,5 414 0,32 6 087 1,3 35,6 35,6 12 6,0 549 0,32 5 534 1,7 45,3 45,3 13 6,5 702 0,32 5 171 2,0 55,0 55,0 14 7,0 875 0,32 4 845 2,4 64,8 64,8 15 7,5 1 075 0,32 4 546 2,8 80,9 81,0 16 8,0 1 305 0,32 3 927 3,4 98,0 98,0 17 8,5 1 563 0,32 6 654 4,2 114,9 114,9 18 9,0 1 824 0,32 2 660 5,0 122,8 122,9 19 9,5 2 109 0,31 2 276 5,5 139,3 139,4 20 10,0 2 368 0,30 2 011 6,3 132,8 132,9

2016-06-29 4P05805-R01 rev. 1 5 (7) 21 10,5 2 588 0,28 1 870 6,2 117,5 117,6 22 11,0 2 746 0,26 1 518 6,2 90,8 91,1 23 11,5 2 869 0,24 1 263 6,5 74,7 75,0 24 12,0 2 985 0,22 977 5,8 74,4 74,6 25 12,5 3 070 0,20 679 7,7 57,7 58,2 26 13,0 3 144 0,18 568 6,8 53,7 53,9 27 13,5 3 228 0,17 413 7,4 61,8 62,2 28 14,0 3 294 0,15 311 12,3 52,1 53,5 29 14,5 3 355 0,14 260 12,3 51,1 52,6 30 15,0 3 409 0,13 248 18,3 47,6 51,0 31 15,5 3 459 0,12 197 21,8 46,7 51,5 32 16,0 3 529 0,11 189 17,7 63,0 65,4 33 16,5 3 564 0,10 157 26,8 39,5 47,7 34 17,0 3 665 0,10 116 6,6 95,5 95,8 35 17,5 3 705 0,09 91 8,1 42,8 43,5 36 17,9 3 690 0,08 62 45,9 33,1 56,5 Maximum Recorded Power: 4 156 W vid 24 m/s hub height wind speed (1 min average). Observed ambient temperature range during duration test -12 to +32 C (observed 8 km off the test site). In order to show the turbine s performance at each wind speed, following graph (Figure 2) is providing power output in W at each wind speed. The dotted lines are indicating the standard uncertainty on power output in both directions. 4000 3500 3000 2500 2000 1500 1000 Power output (W) ± 1 Uncertainty 500 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 normalised wind speed (m/s) Figure 2: Measured power curve at sea level air density 1,225 kg/m 3 The data sets of small wind turbines are collected in 1 minute intervals with a sampling rate of 1 Hz (in contrast to 10 minute intervals with a sampling rate of 1 Hz for large wind turbines). The variation in wind speed and power output is therefore of much less interest when the average is taken in 1 minute intervals. Scatter data within 1 minute intervals and associated scatter plots are therefore omitted.

2016-06-29 4P05805-R01 rev. 1 6 (7) Annual Energy Production Table 3 is showing an estimate of the total energy production of a wind turbine during a oneyear period by applying the measured power curve to different reference wind speed frequency distributions at hub height, assuming 100 % availability. Table 3: Estimated annual energy production (air density at sea level) Estimated annual energy production (database A) Reference air density: 1,225 kg/m 3. No cut-out wind speed (extrapolation by constant power from last bin) Hub height annual avg. wind speed (Rayleigh) Standard uncertainty in AEP Standard uncertainty in AEP AEPmeasured AEPextrapolated Complete / incomplete (m/s) (kwh) (kwh) (%) (kwh) 4 2 533 203 8 % 2 533 Complete 5 4 760 324 7 % 4 762 Complete 6 7 324 422 6 % 7 352 Complete 7 9 814 486 5 % 9 993 Complete 8 11 888 518 4 % 12 480 Complete 9 13 364 527 4 % 14 688 Incomplete 10 14 231 529 4 % 16 535 Incomplete 11 14 577 500 3 % 17 970 Incomplete *AEP Measured is less than 95% of AEP extrapolated, see IEC 61400-12-1:2005 part 8.3 Reference Annual Energy: 4 760 kwh at 5 m/s annual average wind speed Acoustic Noise Measurement The acoustic noise test was conducted in accordance with IEC 61400-11. Wind speeds are shown at hub height. Table 4: Apparent A-weighted sound power level, L_WA, for different wind speeds at hub height Wind speed (m/s) 7 8 9 10 11 L WA (db) 78 81 83 85* 88* *Values marked with an asterisk means that background measurements according to standard have not been fulfilled for these wind speeds, why background correction from wind speed 9 m/s has been used for calculation of these values. This approximation may overvalue the sound power level from the wind turbine somewhat at these wind speeds. Declared Sound Power Level: 85 db(a) at 8 m/s Duration Test Summary The following table (Table 5) is providing an overview of the general duration test requirements according to IEC 61400-2:2013 part 13.4.

2016-06-29 4P05805-R01 rev. 1 7 (7) Table 5: Duration Test Summary Criteria Result Note Min. 6 months operation 10,5 months Completed Min. 2 500 h of power production in any wind speed 8 100 h Completed Min. 250 h of power production in winds of 7,2 m/s 1 592 h Completed Min. 25 h of power production in winds of 10,8 m/s 411 h Completed Min. 10 min of wind in 15 m/s 57 h Completed Turbulence intensity at 15 m/s recorded 11,08 % Record only Operational time fraction of at least 90 % 100 % Completed Max. instantaneous wind speed recorded (maximum observed 3-s gust) 34 m/s Record only No major failure of the turbine or components in the Passed Completed turbine system No significant wear, corrosion, or damages to the turbine Passed Completed components No significant degradation of produced power at comparable wind speeds Passed Completed Safety - Fire Research, Fire Dynamics Performed by Examined by Signature_1 Tanja Tränkle Signature_2 Lars Boström Appendices Appendix 1: Appendix 2: Appendix 3: Appendix 4: Appendix 5: 4P05805-R02 Revision 1 Ljudeffektnivå hos vindkraftverk Giraffe V2 4P05805-R03 rev. 1 Performance analysis of solar power production for the Giraffe 2.0hybrid wind-solar power station 4P05805-R04 rev. 4 Performance analysis of wind power according to IEC 61400-12-1:2006 for the Giraffe 2.0 hybrid wind-solar power station 4P05805-R05 Duration Test Report Giraffe 2.0 Hybrid Wind-Solar Power Station for wind power production according to IEC 61400-2 2013 part 13.4 Consumer label

2016-06-29 4P05805-R01 rev. 1 1 (1) Appendix 1 4P05805-R02 Revision 1 Ljudeffektnivå hos vindkraftverk Giraffe V2

2016-06-29 4P05805-R01 rev. 1 1 (1) Appendix 2 4P05805-R03 rev. 1 Performance analysis of solar power production for the Giraffe 2.0hybrid wind-solar power station

2016-06-29 4P05805-R01 rev. 1 1 (1) Appendix 3 4P05805-R04 rev. 4 Performance analysis of wind power according to IEC 61400-12- 1:2006 for the Giraffe 2.0 hybrid wind-solar power station

2016-06-29 4P05805-R01 rev. 1 1 (1) Appendix 4 4P05805-R05 Duration Test Report Giraffe 2.0 Hybrid Wind-Solar Power Station for wind power production according to IEC 61400-2 2013 part 13.4

2016-06-29 4P05805-R01 rev. 1 1 (1) Appendix 5 Consumer Label