Technical training for the wind turbine industry Danish Wind Power Academy 2016 Because knowledge makes all difference in your operation.… [Module index END] DWPA Presentation 2016 GB-R13 Page 1
Technical training for the wind turbine industry History Strong background. Danish Wind Power Academy (DWPA) was founded in 2004 by technicians with strong experience from the wind turbine industry. Innovative educational concept. We have developed an innovative educational concept for technical personnel at all levels. Today our instructors together count on almost 60 years of practical “hands-on” experience with the challenges from all kind of turbines, but most important…. our instructors use precisely this valuable knowledge in our training courses. High flexibility and adaptability with reference to the participants skills and backgrounds for targeted and efficient training. Wide range of training courses divided within the following fields of study: - Mechanics - Hydraulics - Electrics - WTG controller and operation. Mission To get turbines perform as desired by technicians achieving understanding of technology and operation . [Module index END] DWPA Presentation 2016 GB-R13 Page 2
Technical training for the wind turbine industry Target group, clients & products Target group. We focus on the technicians as their knowledge and experience are decisive for operation of the wind turbines, but today we find more than 60% of our participants on our open training classes being O&M management seeking transparency. Furthermore we have a targeted program for new employees entering the wind turbine industry with absolutely no previous WTG background Clients. Our typical clients is IPP´s, turbine owners and operators, 3 rd party service providers, and not at least a large number of very important sub suppliers to the industry DONG Energy Enbridge Vattenfall Atlantic Power E.ON Climate & Renewables Upwind Solutions RWE Iberdrola Renewables Juwi Wind Mitsubishi Power Systems Renewable Energy Systems Frontier Pro Availon EDF Renewables WindMW B9 Energy Ltd DUKE Energy ABB AES Bosch Rexroth Statkraft SKF Meridian Energy ZF Wind Power Vestas Wind Technology Ltd AGL Energy Ltd Pacific Hydro Siemens Wind Power A/S [Module index END] DWPA Presentation 2016 GB-R13 Page 3
Technical training for the wind turbine industry Concept About the DWPA training wheel. We see a training course as a dynamic 1. Uncovering process starting with the uncovering of a of the need need for more knowledge or practical experience. If the need can be met in the best way by a customer adjusted training course, the process shown will then be passed through step by step. 2. Exchange of When the acquired knowledge and 5. Reinforcement documentation experience are anchored, you will see the favourable profit of the training course in your organisation. However, the process does not stop here. The need to develop knowledge lasts for ever and therefore the training process will be never-ending. Please visit our website at www.danishwpa.com for more detailed 4. Condition description of our training wheel. 3. Development Based Training [Module index END] DWPA Presentation 2016 GB-R13 Page 4
Technical training for the wind turbine industry 1. Uncovering of the need. Portfolio driven utility in the US. Required performance on 450 MW must be reached 1. Uncovering Operational control of assets after EOW of the need. Park 1 TX, 54 2,3 MW turbines, 124,2 MW TOC 2006 Park 2 TX, 55 2,3 MW turbines, 126,5 MW TOC 2008 Park 3 TX, 87 2,3 MW turbines, 200,1 MW TOC 2010 Future focus on unit performance instead of park performance KPI´s: On unit basis – Loss of production MW/h & USD Build up in-house operational excellence Find, select and train necessary staff for operation Certification / knowledge / skills demands set for all operation personnel 2. Exchange of 5. Anchoring Target group for training: Risk, Asset, Operation, Site Management, Lead and Assistant technicians documentation Improved operational and financial transparency 4. Training 3. Development [Module index END] DWPA Presentation 2016 GB-R13 Page 5
Technical training for the wind turbine industry 2. Exchange of documentation. Relevant operation data and documentation to be exchanged 1. Uncovering Today´s performance is presented by numbers and SCADA downloads of error, warning and event logs of the need. Special site conditions and specific operational challenges among main components, systems and sub systems are presented Wind turbine and possible site specific turbine documentation will be exchanged and create foundation for training First analyses of errors done and estimated ROI on training calculated 2. Exchange of First thoughts about skills and background needed from the technicians 5. Reinforcement documentation N/A OK Received Documentation Comments Installation Manual Not relevant Operation Manual x 300 pg Sparepart Catalogue x No ABB parts yet Misc. Work Instruction W/I x MK II not MK IV Maintenance Manual x Electric diagram WPS User Manual x 200-300 pg Error responce list x Timestamps not valid Electrical diagram: Turbine x 500 pg, wrong project Parameter list x Electrical diagram: Converteam or ABB x ABB, only prototype doc [Module index END] DWPA Presentation 2016 GB-R13 Page
Technical training for the wind turbine industry 2.1. Example of operation analysis of 25 Vestas V100 1.8, TOC 2014 1. Uncovering of the need. 2. Exchange of 5. Reinforcement documentation 4. Condition 3. Development Based Training [Module index END] DWPA Presentation 2016 GB-R13 Page 7
Technical training for the wind turbine industry 2.2 Will perfect scheduled maintenance give you failure free operation? Today´s maintenance KPIs don’t reflect the true cost of the “competencies gap” “Checklists” assume a high level of competencies possessed by the technicians, but even this is not enough to reduce downtime. [Module index END] DWPA Presentation 2016 GB-R13 Page 8
Technical training for the wind turbine industry 3. Development. We develop training courses for all people in OMS of turbines, based on their own assets and challenges. General cross knowledge of safe and correct operation of the particular turbine. 1. Uncovering Errors will be categorised in systems of the need. System (All) and subsystems with background in Sum of Count of Downtime Detected the root cause. 604 Remote stop 18472:17 596 7 Low voltage L2 16767:09 668 Focus on selected errors in cooperation 8 Low voltage L3 15781:29 661 with the owner and operator 12 Grid drop voltage L1 14245:22 710 6 Low voltage L1 4684:50 141 14 Grid drop voltage L3 2629:26 76 13 Grid drop voltage L2 1646:19 76 612 Remote utility stop 979:34 1624 252 Generator overspeed 2 961:19 211 394 Overspeed guard TAC84 956:12 206 2. Exchange of 468 Pitch ac. pressure mismatch 814:35 349 5. Anchoring 504 Main CB 1 tripped 793:40 82 documentation 205 Short untwist CCW 736:47 1480 359 Pitch oil low 696:49 178 43 Grid recovery fault 3 589:50 9 603 Safety stop 534:02 148 60 Low frequency L1 480:56 79 397 Overspeed guard TAC85 443:12 235 251 Generator overspeed 1 340:55 219 438 Hub valve supply off 333:30 72 602 Emergency stop 277:18 52 377 Yaw brake pressure too low 258:20 148 193 Gear oil temp. high long term 255:27 140 601 Manual stop keyboard 247:58 44 445 Hub computer com. fault 247:29 246 322 Pump time yaw brake too long 240:34 187 837 Press. sensor fault brake Acc. 238:38 108 1 Power up 232:51 657 841 Press. sensor fault shaft brake 225:46 127 313 Pitch main pump overload 4. Training 208:14 43 3. Development 226 10 min wind speed high 197:47 518 823 Thyristor L1 short circuit 184:50 4 323 Pump time pitch too long 184:21 21 63 High frequency L1 183:13 314 228 1 min wind speed high 117:55 262 302 Yaw motor 2 overload 110:48 34 305 Gear oil pump overload 110:32 35 219 Wind sensor fault 109:01 490 237 Extreme flap moment protection 107:49 1277 [Module index END] DWPA Presentation 2016 GB-R13 Page 9
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