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The Water Purifiers 05.05.2015 1 Yeditepe University, Istanbul Doruk ANGUN Peren AKSU Ramazan GÖKAY Salih GÜVEN

Design of a Water Purification System for a Building

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  1. 1. 05.05.2015 1Yeditepe University, Istanbul Doruk ANGUN Peren AKSU Ramazan GKAY Salih GVEN
  2. 2. Contents The Need and the Statement of the Problem The Objective & The Scope The Project Partition Tree Literature Survey Preliminary Design Alternatives Selected Designs Detailed Design Conclusion References 05.05.2015 2Yeditepe University, Istanbul
  3. 3. The Need and The statement of the problem Insufficient water supply Difficulties in the demijohn transport Waiting time of cold or hot water serve Number of water dispensers Change frequency of demijohns Health problems caused by demijohns 05.05.2015 3Yeditepe University, Istanbul
  4. 4. The objective & The Scope Objectives Compact size Long life span Efficient Low cost Reliable Operates non-stop Scopes Cold & hot water taps 1 dispenser at each floor Clean water tank A pump PPRC type pipes 05.05.2015 4Yeditepe University, Istanbul
  5. 5. The Project Partition Tree 05.05.2015 5Yeditepe University, Istanbul
  6. 6. Literature Survey Some Companies Sartorius Laboratory equipment providers, they can develop products according to customer needs. PUR They produce high technology filtration systems for consumers. Amway Amway develops water purifiers for users. National Sanitation Foundation (NSF) NSF is an organization that works on public health and safety. 05.05.2015 6Yeditepe University, Istanbul
  7. 7. Literature Survey Some Patents[1] Drinking Water Purification Device - [ US 2014/0008302 A1 Jan.09,2014 King ] System contains silver ions. Water Purification Systems [US 7,927,488 B1 Apr.19,2011 Wilfong ] It balances the pH of the water. Wireless Water Purification Systems and Wireless Remote Dispensing Devices For Water Purification Systems [ US 7,824,543 B2 Nov.02,2010 Larkner ] It includes wireless controller system. Reverse Osmosis Purification System [ US 6,190,558 B1 Feb.20, 2001 Robbins ] It sends the product water stream to mixing unit to get more pure water Apparatus For Water Treatment [US 4,971,687-Nov.20,1990 - Anderson] Water is sterilized or disinfected by an ultarviolet lamp. 05.05.2015 Yeditepe University, Istanbul 7
  8. 8. Literature Survey Some Scientific Studies Heavy metal rejection was evaluated using a sugarelectrolyte draw solution. The impact of various cleaning agents on membrane performance was tested[2]. The feasibility of using the Vertically Aligned Carbon Nanotube membrane for water purification was examined[3]. A cost-effective method which is for phosphorus removal from reject water of sludge dewatering process by using supernatant from sludge lime stabilization (SLS) processes was studied[4]. 05.05.2015 Yeditepe University, Istanbul 8
  9. 9. Preliminary Design Alternatives Interfaces 24.03.2015 9Yeditepe University, Istanbul Eco Dispenser Drop Shape Dispenser The Water Prism
  10. 10. Preliminary Design Alternatives Filters 24.03.2015 10Yeditepe University, Istanbul All in One Filter In Place Filtration Internal Sand Filter Multi Layered Filter Reverse Osmos Filter
  11. 11. Preliminary Design Alternatives Connectors 24.03.2015 11Yeditepe University, Istanbul Hose Adapter Easy Connector Laser Flowmeter Connection Apparatus Simple Connector
  12. 12. Selected Designs 0 2 4 6 8 10 Eco Dispenser Drop Shape Water Pyramid Interface Interface 0 2 4 6 8 10 12 Water Pumps Water Pumps 0 5 10 15 20 25 Connectors Connectors0 5 10 15 20 25 Filters Filters 05.05.2015 12Yeditepe University, Istanbul
  13. 13. Detailed Design 05.05.2015 13Yeditepe University, Istanbul
  14. 14. Detailed Design After the preliminary design now we will focus on detatils such as: External dimensions Materials requirements Design life Operating parameters 05.05.2015 14Yeditepe University, Istanbul
  15. 15. Pipe Flow Analysis When the water flows through the pipes two types of losses will occur: 1. Major Losses (Frictional Losses) 2. Minor Losses 05.05.2015 15Yeditepe University, Istanbul
  16. 16. Pipe Flow Analysis 1. Major Losses (Frictional Losses) Pipe diameters are selected with respect to flow rate and velocity for each floor. Velocity limit (1.5 m/s) is checked for diameter selection. Reynolds number is calculated and flow regime is checked. Friction factor (f) is calculated by using (f=64/Re) for laminar, and checked from moody chart for turbulent flows. Length of the pipes are chosen as 4 m. Head loss is calculated by using : 05.05.2015 Yeditepe University, Istanbul 16
  17. 17. Pipe Flow Analysis 1. Major Losses (Frictional Losses) 05.05.2015 Yeditepe University, Istanbul 17 Total Major Loss=1,549 m
  18. 18. Pipe Flow Analysis 05.05.2015 Yeditepe University, Istanbul 18 Head loss has a decreasing trend as the height increases.
  19. 19. Pipe Flow Analysis 05.05.2015 Yeditepe University, Istanbul 19 Velocity has a decreasing trend as the height increases.
  20. 20. Pipe Flow Analysis 2. Minor Losses Piping systems include fittings, valves, inlets, exits etc. Additional losses occur because of flow separation and mixing due to fittings. The minor losses associated with Velocity (V) Loss Coefficient (KL) Gravity 05.05.2015 Yeditepe University, Istanbul 20
  21. 21. Pipe Flow Analysis Section System Components (in vertical) Pump to -2nd Floor 1 x Check Valve 1 x 4 m Straight Pipe 1 x 90 Elbow -2nd Floor to 6th Floor 8 x Gate Valve 8x 4 m Straight Pipe 8 x T-Piece 6th Floor to Uppermost 1 x 90 Elbow TOTAL 1 x Check Valve 8 x Gate Valve 9 x 4 m Straight Pipe 8 x T-Piece 2 x 90 Elbow 05.05.2015 Yeditepe University, Istanbul 21
  22. 22. Pipe Flow Analysis 05.05.2015 Yeditepe University, Istanbul 22 Total Minor Loss= 0.472 m
  23. 23. Pipe Flow Analysis 05.05.2015 Yeditepe University, Istanbul 23 Minor head loss has a decreasing trend as the height increases.
  24. 24. Pipe Flow Analysis Total height= 36 meters Total head loss= 1.549 m + 0.472 m= 2.021 meters. The pump must have at least 36 + 2 = 38 meters of head. 05.05.2015 Yeditepe University, Istanbul 24
  25. 25. Cost Analysis 1. Pipes[5]: T-Piece: 90 Elbow: Straight Pipe 05.05.2015 Yeditepe University, Istanbul 25 Frat 7742252520 Unit Cost= 0.50 TL Total Cost= 8 x 0.50 TL= 4 TL Frat 771000025 Unit Cost= 0.40 TL Total Cost= 2 x 0.40 TL= 0.80 TL Frat PPRC with fiberglass 20 mm Cost per meter=2.99 TL Total Cost=40 m x 2.99 TL= 119.6 TL 25 mm Cost per meter=4.34 TL Total Cost=20 m x 4.34 TL= 86.8 TL
  26. 26. Cost Analysis 2. Valves [6]: Gate Valve: Check Valve: 05.05.2015 Yeditepe University, Istanbul 26 Duyar, DIN 3216 Unit Cost= 10 TL Total Cost= 8 x 10 TL= 80 TL Duyar, Disc Type Check Valve Unit Cost= 42 TL Total Cost= 1 x 42 TL= 42 TL
  27. 27. Cost Analysis 3. Filter[7]: R12-1200-1 Wall Mounted RO System Cost = 7830TL 4. Pump[8]: Wilo FMHI 405 1,1/2-M-1-E Multi Staged Horizontal Domestic Hidrofor Cost=1.961 TL 5. Control Unit: RG Control Unit , SG5221 Water Pump Controller Cost=175 TL (Typical Design) 6. Water Tank: Cost = 500TL 05.05.2015 Yeditepe University, Istanbul 27
  28. 28. Cost Analysis 7. Design & Engineering: Cost = 10000Tl Total Cost = 20000TL 05.05.2015 Yeditepe University, Istanbul 28
  29. 29. Simulation of the System By the help of the Matlab s Simulink Hydraulics Add- on , the simulation of the system were done detailed. The general control loop ; 05.05.2015 Yeditepe University, Istanbul 29
  30. 30. Simulation of the System Subsystem ; 05.05.2015 Yeditepe University, Istanbul 30
  31. 31. Simulation of the System 05.05.2015 Yeditepe University, Istanbul 31
  32. 32. 05.05.2015 Yeditepe University, Istanbul 32 Conclusion A retrofitable system was designed. The system was designed based on having long life span. Efficient & Low Cost appliances were considered during the design stage. With this system individuals do not wait for changing of demijohns. Health problems caused by demijohns will be removed.
  33. 33. References [1] www.uspto.gov [online avaliable- March 23,2015] [2] Point of use water treatment with forward osmosis for emergency relief-Ethan Butler, Andrew Silva, Kyle Horton, Zachary Rom, Malgorzata Chwatko, Arie Havasov, Jeffrey R. McCutcheon [3] High performance and antifouling vertically aligned carbon nanotube membrane forwater purification - YoungbinBaek , CholinKim , DongKyunSeo , TaewooKim , JeongSeokLee , YongHyupKim , KyungHyunAhn , SangSeekBae , SangCheolLee , Jaelim Lim , KyunghyukLee , JeyongYoon [4] A cost-effective method for the treatment of reject water from sludge dewatering process using supernatant from sludge lime stabilization- Weichao Ren a, Zhen Zhou , Lu-Man Jiang , Dalong Hu , Zhan Qiu , Haijuan Wei , Luochun Wang 05.05.2015 33Yeditepe University, Istanbul
  34. 34. References [5] http://www.firat.com/userfiles/file/pdf/tr/Brosurler2014/PPRC- KOMPOZIT_TR_2014.pdf [6] http://www.duyarvana.com/ [7] http://www.belkraft.com/images/R12.jpg [8] http://www.wiloturkiye.com/FMHI-405-112-M-1-E-Monofaze-Cok- Kademeli-Yatay-Hidromatli-Hidrofor%2cPR-264.html 05.05.2015 Yeditepe University, Istanbul 34