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Y. Yuan et al.
3. The amplitude and energy can be used as the characteristic parameters for
distinguishing the signal acoustic emission caused by plastic deformation and
fracture;
4. The characteristic parameter distribution of the acoustic emission signal at
different stages of the tensile process is very different, and it is inferred that
the structure of the HDPE material molecule is related.
5. Overall, the acoustic emission signal of the plastic liner is less than that of the
fiber layer, indicating that most of the signals that appear during the monitoring
of Type IV Gas Cylinder are from the fiber layer. This test can be a follow-up
Type IV Gas Cylinder Provide a basis for fatigue monitoring.
Acknowledgements This work is financially supported by National Key Research and Development Program of China (Grant No. 2017YFC0805604).
References
1. T. Jie, Research on Safety Technology of Fully Wound CNG Gas Cylinder with Plastic Liner
Composite Material [D] (Sichuan University, Chengdu, 2005)
2. G. Dong, Structural Design of Non-Metallic Liner CNG Gas Cylinder and Research on Rapid
Temperature Rise (Northeast Petroleum University, Daqing, 2019)
3. W. Fei, Z. Jianping, T. Jun, et al., Research on acoustic emission testing technology of fiberwound composite material cylinders. Aerospace Manuf. Technol. 3, 59–63
4. L. Min, Safety analysis of full-complex winding gas cylinders for in-use vehicles. Saf. Spec.
Equip. China 29(11), 3–6 (2013)
5. Y. Zhong, Li. Xiaohui, Z. Shu, Safety research of CNG gas cylinders for automotive composite
materials based on ANSYS. Chin. J. Saf. Sci. 21(3), 77–82 (2011)
6. L. Min, Li. Wenchun, L. Yongjun, Defect analysis of fully compressed gas cylinders for
compressed natural gas for vehicles. Press. Vessels 27(3), 56–61 (2010)
7. Li. Xiaohui, Safety and Reliability Analysis of All-Composite CNG Gas Cylinders for Vehicles
(Capital University of Economics and Business, Beijing, 2010)
8. X. Lirong, Failure mode analysis and prevention of CNG all-composite gas cylinders for
vehicles. Pressure Vessels 26(12), 51–61 (2009)
9. L. Zhejun, Ge. Li, W. Junfeng et al., Preliminary research on acoustic emission detection of
composite gas cylinders. Aerosp. Mater. Technol. 2, 120–123 (2011)
10. M. Surgeon, M. Wevers, One sensor linear location of acoustic emission events using plate
wave theories. Mater. SxiEng. 265(1–2), 254 (1999)
11. G. Caprino, V. Lopresto, Acoustic emission source location in unidirectional carbon fiber
reinforced plastic plates with virtually trained artificial neural net works. J. Appl. Polym. Sci.
122(6):3506 (2011)
12. M. Kaphle, A.C. Tan, Identification of acoustic emission wave modes for accurate source
location in plate-like structures. Struct. Control Health Monitor. 19(2), 187 (2012)
13. F. Dahmene, S. Yaacoubi, M. El Mountassir, Acoustic emission of composites structures: story,
success, and challenges. Phys. Procedia 70(2015), 599–603
14. W. Wang, Z. Zeng, Cluster analysis of acoustic emission signals during 304NG stainless steel
stress corrosion process. J. Chem. Ind. Eng. 62(4), 1027 (2011)
15. G. Kaloginnakis, J. Quintelier, Identification of wear mechanisms of glass/polyester composites
by means of acoustic emission. Wear 264, 235 (2008)
Y. Yuan et al.
3. The amplitude and energy can be used as the characteristic parameters for
distinguishing the signal acoustic emission caused by plastic deformation and
fracture;
4. The characteristic parameter distribution of the acoustic emission signal at
different stages of the tensile process is very different, and it is inferred that
the structure of the HDPE material molecule is related.
5. Overall, the acoustic emission signal of the plastic liner is less than that of the
fiber layer, indicating that most of the signals that appear during the monitoring
of Type IV Gas Cylinder are from the fiber layer. This test can be a follow-up
Type IV Gas Cylinder Provide a basis for fatigue monitoring.
Acknowledgements This work is financially supported by National Key Research and Development Program of China (Grant No. 2017YFC0805604).
References
1. T. Jie, Research on Safety Technology of Fully Wound CNG Gas Cylinder with Plastic Liner
Composite Material [D] (Sichuan University, Chengdu, 2005)
2. G. Dong, Structural Design of Non-Metallic Liner CNG Gas Cylinder and Research on Rapid
Temperature Rise (Northeast Petroleum University, Daqing, 2019)
3. W. Fei, Z. Jianping, T. Jun, et al., Research on acoustic emission testing technology of fiberwound composite material cylinders. Aerospace Manuf. Technol. 3, 59–63
4. L. Min, Safety analysis of full-complex winding gas cylinders for in-use vehicles. Saf. Spec.
Equip. China 29(11), 3–6 (2013)
5. Y. Zhong, Li. Xiaohui, Z. Shu, Safety research of CNG gas cylinders for automotive composite
materials based on ANSYS. Chin. J. Saf. Sci. 21(3), 77–82 (2011)
6. L. Min, Li. Wenchun, L. Yongjun, Defect analysis of fully compressed gas cylinders for
compressed natural gas for vehicles. Press. Vessels 27(3), 56–61 (2010)
7. Li. Xiaohui, Safety and Reliability Analysis of All-Composite CNG Gas Cylinders for Vehicles
(Capital University of Economics and Business, Beijing, 2010)
8. X. Lirong, Failure mode analysis and prevention of CNG all-composite gas cylinders for
vehicles. Pressure Vessels 26(12), 51–61 (2009)
9. L. Zhejun, Ge. Li, W. Junfeng et al., Preliminary research on acoustic emission detection of
composite gas cylinders. Aerosp. Mater. Technol. 2, 120–123 (2011)
10. M. Surgeon, M. Wevers, One sensor linear location of acoustic emission events using plate
wave theories. Mater. SxiEng. 265(1–2), 254 (1999)
11. G. Caprino, V. Lopresto, Acoustic emission source location in unidirectional carbon fiber
reinforced plastic plates with virtually trained artificial neural net works. J. Appl. Polym. Sci.
122(6):3506 (2011)
12. M. Kaphle, A.C. Tan, Identification of acoustic emission wave modes for accurate source
location in plate-like structures. Struct. Control Health Monitor. 19(2), 187 (2012)
13. F. Dahmene, S. Yaacoubi, M. El Mountassir, Acoustic emission of composites structures: story,
success, and challenges. Phys. Procedia 70(2015), 599–603
14. W. Wang, Z. Zeng, Cluster analysis of acoustic emission signals during 304NG stainless steel
stress corrosion process. J. Chem. Ind. Eng. 62(4), 1027 (2011)
15. G. Kaloginnakis, J. Quintelier, Identification of wear mechanisms of glass/polyester composites
by means of acoustic emission. Wear 264, 235 (2008)