Structural Principle and Performance of Three Cylinder Hydraulic Confined Piston Engine

Dao Zhai Yang; Hong Xin Zhang; Tie Zhu Zhang

doi:10.4028/www.scientific.net/AMM.120.316

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HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vol. 120Structural Principle and Performance of Three...

Structural Principle and Performance of Three Cylinder Hydraulic Confined Piston Engine

Abstract:

Three cylinder HCPE integrates the advantages of HFPE and engine driving plunger pump system, whose structure is compact, energy transforming and transmitting route is short. The structural principle of three cylinder HCPE was described. The dynamical simulation model of HCPE was constructed. Through simulation, volumetric efficiency ranges between 27% and 97%, is slightly influenced by output pressure and more practical rotational speed should be 1 600～1 800 r/min; the universal characteristic of fuel consumption rate ranges between 228.23 g/(kW • h) and 984.11 g/(kW • h), output pressure between 1.01 MPa and 4.27 MPa, output flow between 3.80 m3/h and 16.91 m3/h, effective thermal efficiency between 12.06% and 37.67%, and effective power between 1.12 kW and 19.93 kW, which are evidently better than engine driving lunger system, but slightly worse than HFPE.

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Periodical:

Applied Mechanics and Materials (Volume 120)

Pages:

316-320

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.120.316

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Online since:

October 2011

Authors:

Dao Zhai Yang, Hong Xin Zhang, Tie Zhu Zhang

Keywords:

Engine, Hydraulic, Performance, Pump, Structural Principle

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References

[1] Mikalsen R, Roskilly A. P. Applied Thermal Engineering, Vol.27(2007, pp.2339-2352．

Google Scholar

[2] Mikalsen R., Roskilly A. P. Applied Thermal Engineering，Vol.28(2008), pp.589-600．

Google Scholar

[3] Kim Y. W.，Lim J., Jung H. K. Transactions of the Korean Institute of Electrical Engineers，Vol.57(2008), pp.966-971．

Google Scholar

[4] Hibi A.，Ito T. Journal of Automobile Engineering，Vol.10(2004), pp.1149-1157．

Google Scholar

[5] Wu W.，Yuan S. H.，Hu J. B.，et a1．Frontiers of Mechanical Engineering in China，Vol.4(2009), pp.371-377．

Google Scholar

[6] Tiezhu Zhang, Zuoqiang Dai, Hongxin Zhang, et al. Chinese Journal of Mechanical Engineering, Vol.42(May, 2006), p.169～173.(in Chinese)

Google Scholar

[7] Hongxin Zhang, Zuoqiang Dai, Yi Zhang, et al. China Mechanical Engineering, Vol.17(May, 2006), p.292～295．(in Chinese)

Google Scholar

[8] Hongxin Zhang, Tiezhu Zhang, Wei Huo. Transactions of the Chinese Society for Agricultural Machinery, Vol.40(Mar., 2009), p.36～39．

Google Scholar

[9] Hongxin Zhang, Tiezhu Zhang, Yushun Wang, et al. Chinese Journal of Mechanical Engineering, Vol.18(Mar., 2005), p.411～414.

Google Scholar

[10] Yong Jiang，Xiaodong Wang，and Daozhai Yang. Transactions of the Chinese Society of Agricultural Engineering, Vol.26( Jun., 2010), p.152–156.

Google Scholar