مروری بر ظروف تحت فشار کامپوزیتی با آستری پلیمری

نوع مقاله : تالیفی

نویسندگان

1 دانشجو / دانشگاه آزاد اسلامی واحد جنوب

2 عضو هیئت علمی گروه مهندسی شیمی، دانشگاه آزاد اسلامی واحد تهران جنوب

چکیده

ظروف تحت فشار یکی از کاربرد­ی­ ترین و پرخطر­ترین تجهیزات در صنایع مختلف هستند. این ظروف براساس جنس و ساختار به چهار نوع تقسیم می ­شوند. ضعف در طراحی، ساخت و تولید، کارکرد و به­ ویژه انتخاب نادرست مواد از عوامل شکست ظروف تحت فشار هستند. با ورود کامپوزیت­ ها به دنیای این ظروف، بسیاری از ضعف­ های طراحی جبران و خواص مکانیکی آن­ها بهبود یافته است. وزن ظرف با بهره­ گیری از پلیمر­های پرچگالی مانند پلی ­اتیلن، کاهش یافته است. ظروف تحت فشار نوع چهارم با استفاده هم­زمان از ساختار کامپوزیتی و آستری پلیمری قابلیت کاهش وزن تا یک پنجم و دو برابرشدن عمر مفید نسبت به ظروف نوع اول می­ یابند. از مزایای ظروف نوع چهارم، مقاومت در برابر خوردگی، عدم خستگی در بارگذاری­ های پیاپی، سبک و قابل حمل­ بودن، فشار عملیاتی زیاد (bar 700) و عدم پیچیدگی روش تولید بوده و از معایب آن، هزینه تولید زیاد به­ واسطه استفاده از الیاف کربن است. از این ظروف در ذخیره سوخت­ های جایگزین نظیر هیدروژن و کپسول ­های اکسیژن فردی قابل حمل استفاده می ­شود. در این مقاله، انواع ظروف تحت فشار به­ طور اجمالی مرور شده و نوع چهارم با سایر انواع دیگر مقایسه شده است.

کلیدواژه‌ها

موضوعات


عنوان مقاله [English]

An Overview of Composite Pressure Vessels with Polymer Liner

نویسندگان [English]

  • zeinab rouzbehani 1
  • mehrnoush mohammadi 2
1 student/ islamic azad university/south branch
2 Source text 67 / 5000 Translation results Faculty member of Chemical Engineering Department, Islamic Azad University, South Tehran Branch
چکیده [English]

Pressure vessels are one of the most widely used and high-risk equipment in various industries. Pressure vessels are divided into four types based on material and structure. Weakness in design, construction and production, service and especially incorrect choice of materials are the causes of pressure vessel failure. With the introduction of composites into the world of these vessels, many design weaknesses and their mechanical properties have been improved. By using high density polymers such as polyethylene, the weight of the pressure vessel is reduced. Type IV pressure vessels with the simultaneous use of composite structure and polymer liner are able to reduce weight by up to one-fifth and double the useful life compared to the type I of vessels. The advantages of the fourth type of pressure vessels are corrosion resistance, no fatigue in consecutive loads, lightness and portability, high operating pressure (700 bar) and lack of complexity of the production method, and their disadvantage is the high production cost due to the use of carbon fibers. These pressure vessels are used to store alternative fuels such as hydrogen and portable individual oxygen capsules. In this article, the pressure vessels types are briefly reviewed and the fourth type is compared with other types.

کلیدواژه‌ها [English]

  • pressure vessels
  • composite structure
  • polymer liner
  • polyethylene
  • carbon fiber
1. Toudehdehghan A., and Wai-Hong T.A., A Critical Review and Analysis of Pressure Vessel Structures, IOP Conf. Ser: Mater. Sci. Eng., 469, 012009, 2019.
2. Jegatheesan J. and Zakaria Z., Stress Analysis on Pressure Vessel,  Environ. Ecosys. Sci. (ESS), 2, 53-57, 2018.
3. Paul R.J., The Development of Lightweight Composite Cylinders for Use in Demanding Structure Application, MS Thesis, The Mancheser University, School of Material, UK, 2011.
4. Khan M.I., Yasmin T., and Khan N.B., Safety Issues Associated with the Use and Operation of Natural Gas Vehicles: Learning from Accidents in Pakisan, J. Braz. Soc. Mech. Sci., 38, 2481-2497, 2015.
5. Eskandari Jam J. and Yaghoubi M.S., Introduction to the Design of  Type II CNG Tanks (Persian), Malek Ashtar University of Technology, Tehran, 5-52, 2013.
6.  Sloan J., The Markets: Pressure Vessels,  https://www.compositesworld.com/articles/the-markets-pressure-vessels-2021, available in  July 2021.
7. Kartav O., Design  and  Production  of  Light-Weight  Pressure Resisant  Composite  Tank  Materials  and  Sysems  for 
Hydrogen  Storage,  PQDT-Global, 2020.
8.  Li M., Bai Y., Zhang C., Song Y., Jiang S., Grouset D., and Zhang M., Review on the Research of Hydrogen Storage 
Sysem Fas Refueling in Fuel Cell Vehicle, Int. J. Hydrogen Energ.,  44, 10677-10693, 2019.
9. Rajak D.K., Pagar D.D., Menezes P.L., and Linul E., Fiber-Reinforced Polymer Composites: Manufacturing, Properties, 
and Applications,  Polymers,  11, 1667-1704, 2019.
10. Woodruf J., Advantages and Disadvantages of Polymer Composites,  https://homeseady.com/13653187/advantages-
disadvantages-of-polymer-composites.htm, available in November 2018.
11. Pasuszak P.D. and Muc A.,  Application  of  Composite Materials  in  Modern  ConsructionS, Key. Eng. Mater.,  542, 
119-129, 2013.
12. Hsissoun R., Seghiri R., Benzekri Z., Hilali M., Rafk M., and Elharf A., Polymer Composite Materials: A Comprehensive 
Review, Compos. Struct., 262, 113640, 2021.
13. Gasior P., Wachtarczyk K., Blachut A., Kaleta J., Yadav N., Ozga M., and Baron A., Validation of Selected Optical 
Methods for Assessing Polyethylene (PE) Liners Used in High Pressure Vessels for Hydrogen Storage, Appl.  Sci., 11, 5667, 
2021. 
14. Murry B.R.,  Characterization of Rotationally Moulded Polymer Liners For Low Permeability Cryogenic Applications 
in Composite Overwrapped Pressure Vessels., PhD Thesis, National University of Ireland Galway, Galway, Ireland, 2016. 
15. Polyethylene (PE)-Complete Guide,  https://omnexus.specialchem.com/selection-guide/polyethylene-plasic, available 
in 2021.
16. Spare S., Pareek K., and Vysa M., Invesigation of Satructural Stability of Type IV Compressed Hydrogen Storage Tank 
During Refueling of Fuel Cell Vehicle,  J. Energy Stor.,  2, e150, 2020.
17. Villalonga S., Thomas C., Nony C., Thiebaud F., Geli M., Lucas A., Knobloch K., and Maugy C., Application of Full 
Thermoplasic Composite for Type IV 70 MPa High Pressure Vessels,  18th International Conference on Composite 
Materials (ICCM-18), Korea, 2011.
18. Barboza Neto E.S., Ceolho L.A.F., Forte M.M.C., Amico S.C., and Ferreira C.A., Processing of a LLDPE/HDPE Pressure 
Vessel Liner by Rotomolding,  J. Mater. Res.,  17, 236-241, 2014.
19. Kunowsky M., Marco-lozar J.P., and Linares-Solano A., Material Demands for Storage Technologies in a Hydrogen 
Economy, J. Renew. Energy, 2013, Article ID 878329, 2013.
20. Guo K., Wen L., Xiao J., Lei M., Wang S., Zhang C., and Hou X., Design of Winding Pattern of Filament Wound Composite Pressure Vessel with Unequal Openings Based on Non-Geodesics, J. Eng. Fiber. Fabr., 15, 1-17, 2020.
21. Clarich A., Wen Z., and Fratti G., Design Optimization, Cos and Risk Analysis of CNG Vessels Transportation, 14th 
WCCM-ECCOMAS Congress (Virtual), 2021.
22. Seyedi S.M., Naddaf Oskouei A., and Sayah Badkhor M., Experimental, Numerical and Optimization Study of 
Composite Tanks with Non-metallic Primer (CNG Fourth Type), Modares Mech. Eng. (Persian), 20, 1789-1800, 2020.
23. Heidari Rarani M., Ahmadi Jabeli M., and Baniasadi E., Burs Modeling of Type 4 High Pressure Storage Vessel (Persian), 
The 5th International Conference on Composite, Tehran, 20-21 December, 2016.
24. Shelley D.A., Carbon Nanotube Reinforcement in Composite Cylinders, MS Thesis, Naval Posgraduate School Monterey, California, December 2020.
25. Berro Ramirez J.P., Halm D., Grandidier J.C., Villalonga S., and Nony F., 700 bar Type VI High Pressure Hydrogen 
Storage Vessel Burs-Simulation and Experimental Validation, Int. J. Hydrogen Energ,  40, 13183-13192, 2015.
26. Shrigandhi G.D. and Kothavale B.S., Biodegradable Composites for Filament Winding Process, Mater. Today, 42, 
2762-2768, 2021.
27. Fontana M.G., Corrosion Engineering, McGraw Hill, USA, 3rd ed., 15-80, 2005.
28. Momeni A. and Lotf Haghighat M., Invesigation of Typesof Corrosion and Its Causes in CNG Tanks,  4th CNG 
International Conference and Exhibition, Tehran, 23-25 July, 2011.
29. Gas Cylinders-High Pressure Cylinders for the on Board Storage of Natural Gas as a Fuel for Automative Vehicles, ISO 
11439:2013, 2nd ed., 2013.
30. Cho S.M., Kim D.E., Seong H.J., Ko Y.K., Kim H.C., Lee K.O., Jo M.S., and Lyu S.K., Development of a Type 4 
Composite Cylinder for Self-Contained Breathing Apparatus, J. Korean Soc. Manuf. Process Eng.,  18, 1-6, 2019.
31.  Pressure Vessels for Alternative Fuels 2014-2023,  https://www.compositesworld.com/articles/pressure-vessels-for-
alternative-fuels-2014-2023,  available in December 2014.
32. Alizadeh E., Babaei J., Batalebluie R., and Behrooz H., Numerical and Experimental Study of Reinforced Composite 
Vessels with Hoop Stifeners Under External Hydrosatic Pressure,  J. Model. Eng.,  16, 339-349, 2018.
33. Moon J.C., Kim I.H., Choi B.H., Kweon J.H., and Choi J.H., Buckling of Filament-Wound Composite Cylinders Subjected 
to Hydrosatic Pressure for Underwater Vehicle Applications, Compos. Struct., 92, 2241-2251, 2010.
34. Su Y., Lv H., Zhou W., and Zhang C., Review of the Hydrogen Permeability  of  the  Liner  Material  of  Type  IV  On-Board Hydrogen Storage  Tank, World Electr. Veh., 12, 130, 2021