Results 21 to 30 of about 5,701 (239)

Kinematic and Static Analyses of the Pedaling by Means of New Slider-Crank Mechanism

Journal of Biomechanical Science and Engineering, 2007
A slider-crank mechanism whose coupler curve is the approximate ellipse is designed so that a man may perform the pedaling of the elliptical motion of the foot.
Yasuo YOSHIZAWA, Katsumi WATANABE, Kyuichi NIIZEKI   +2 more
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Inertial Vibration Characteristics of Track Chassis Caused by Reciprocating Motion of Crank Slider

Shock and Vibration, 2019
The crank slider of self-propelled baling machinery is used for straw compression on the crawler chassis structure. During the reciprocating motion of the crank slider, the inertia of the piston will cause a greater shock to baling machinery.
Zhong Tang, Yu Li, Yuepeng Zhou, Haotian Zhang   +3 more
doaj   +1 more source

A parametric study on the dynamic response of planar multibody systems with multiple clearance joints [PDF]

, 2010
A general methodology for dynamic modeling and analysis of multibody systems with multiple clearance joints is presented and discussed in this paper. The joint components that constitute a real joint are modeled as colliding bodies, being their behavior ...
A. Tasora, A.A. Shabana, B. Brogliato, B. Brogliato, B. Miedema, B.M. Kwak, C. Glocker, C. Glocker, C. Innocenti, D.T. Greenwood, E.J. Haug, F. Farahanchi, F. Pfeifer, F. Pfeiffer, F. Pfeiffer, G. Gilardi, H. Hertz, H.M. Lankarani, J. Ambrósio, J. Ambrósio, J. Baumgarte, J. Pang, J. Rhee, J.-S. Pang, J.A. Zukas, J.C. Trinkle, J.J. Moreau, J.M. McCarthy, M. Anitescu, M. Anitescu, M. Förg, M.T. Bengisu, N. Srivastava, O.A. Bauchau, P. Flores, P. Flores, P. Flores, P. Flores, P. Flores, P. Flores, P. Flores, P. Flores, P. Flores, P. Flores, P.D. Panagiotopoulos, P.E. Nikravesh, P.E. Nikravesh, P.E. Nikravesh, Paulo Flores, R.C. Smith, R.I. Leine, R.R. Ryan, R.S. Haines, S. Dubowsky, S. Dubowsky, S. Dubowsky, S. Erkaya, S. Erkaya, S. Wiggins, S.P. Timoshenko, T. Kakizaki, W. Goldsmith, W. Wu, W.M. Mansour, W.W. Gear   +64 more
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KINEMATIC SYNTHESIS OF CRANK-SLIDER MECHANISM OF THE GRIPPING DEVICE BASED ON THE POWER TRANSMISSION INDEX

Nauka ta progres transportu, 2019
Purpose. The main purpose of the work is to carry out a kinematic synthesis of a crank-slider gripping device in accordance to the criterion of the constancy of the drive power of the mechanism with restrictions on permissible pressure angles in ...
R. P. Pogrebnyak, M. R. Pohrebniak
doaj   +1 more source

A comprehensive survey of the analytical, numerical and experimental methodologies for dynamics of multibody mechanical systems with clearance or imperfect joints [PDF]

, 2018
"Available online 19 December 2017"A comprehensive survey of the literature of the most relevant analytical, numerical, and experimental approaches for the kinematic and dynamic analyses of multibody mechanical systems with clearance joints is presented ...
Abdallah, Acary, Aginaga, Ahmed, Ahmedalbashir, Akhadkar, Akhadkar, Alshaer, Alshaer, Alves, Ambrósio, Ambrósio, Ambrósio, Ambrósio, Andersson, Archard, Armstrong-Helouvry, Askari, Askari, Askari, Askari, Askari, Attia, Awrejcewicz, Bagci, Bahgat, Bahgat, Bai, Bai, Bai, Bai, Bai, Banerjee, Bannwart, Barthels, Barwell, Bauchau, Bei, Bengisu, Bing, Booker, Bordbar, Bouyer, Brito, Brogliato, Brown, Brutti, Brüls, Bu, Burgin, Cammarata, Cannon, Cavalieri, Centea, Chace, Chaker, Chase, Chen, Chen, Chen, Chen, Chen, Choi, Choi, Chunmei, Ciavarella, Ciavarella, Claro, Costa, Crowther, Daniel, Daniel, Dankowicz, Deck, Dhande, Dhande, Dietl, Dong, Dowson, Dowson, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dubowsky, Dupac, Dziedzic, Earles, Earles, Earles, Earles, Ebrahimi, Elrod, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Erkaya, Falcon, Farahan, Farahanchi, Fawcett, Feng, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Flores, Fogarasy, Frêne, Frączek, Furuhashi, Furuhashi, Gahr, Garrett, Gaul, Geng, Gerstmayr, Gharib, Goenka, Goenka, Goldsmith, Gonthier, Goodman, Goodman, Grant, Greenwood, Gugan, Gummer, Gummer, Guo, Haddadi, Haddadi, Haessig, Hahnm, Haines, Haines, Haines, Hamid M. Lankarani, Hamrock, Han, Harish, Haroun, Haug, Herbert, Hertz, Hippmann, Hori, Hou, Hu, Huang, Huang, Huang, Hummel, Hunt, Innocenti, Isaac, Jalón, Jalón, Jankowski, Jawale, Jia, Jin, Johnson, Joskowicz, Kagami, Kakizaki, Karnopp, Keller, Khemili, Khulief, Khulief, Khulief, Klepp, Kobrinsky, Kolhatkar, Koshy, Krinner, Krinner, Kumar, Kurka, Kuwabara, Lai, Lankarani, Lankarani, Lankarani, Lankarani, Lankarani, Lee, Lee, Lee, Lee, Li, Li, Li, Li, Li, Li, Li, Li, Lin, Ling, Liu, Liu, Liu, Liu, Liu, Liu, Liu, Liu, Lopes, Love, Lugt, Luo, Luo, Luo, Luo, Ma, Ma, Ma, Ma, Ma, Machado, Machado, Magalhães, Mahrus, Mansour, Marhefka, Marques, Marques, Marques, Masoudi, Mattei, Megahed, Meng, Meng, Meng, Miedema, Minamoto, Mistry, Moens, Moes, Moghadasi, Moore, Moreau, Morita, Morita, Mukras, Mukras, Mukras, Muvengei, Muvengei, Muvengei, Muvengei, Nikolic, Nikravesh, Noble, Nonato, Norton, Olyaei, Orden, Osman, Pandey, Pang, Panovko, Parenti-Castelli, Patir, Paulo Flores, Pennestrì, Pereira, Pereira, Pereira, Pfeiffer, Pfeiffer, Pinkus, Pust, Pyragas, Pérez-González, Qi, Qi, Qi, Qiang Tian, Qin, Quaranta, Quental, Quental, Radzimovsky, Rahmanian, Ramírez, Ravn, Ravn, Ravn, Reis, Reye, Rhee, Rhyu, Rigaud, Roger, Rooney, Salahshoor, Sardashti, Sawyer, Schulz, Schwab, Schwager, Seneviratne, Seneviratne, Shabana, Shabana, Shabana, Sharfi, Shi, Shi, Shiau, Shih, Shimojima, Shin, Shin, Skrinjar, Slavič, Slim, Sommerfeld, Song, Soong, Stammers, Stefanelli, Stewart, Stoenescu, Stolarsky, Stribeck, Strömberg, Su, Sun, Sun, Sun, Sun, Sun, Sun, Tan, Tasora, Tasora, Tatara, Tatara, Thompson, Thornton, Threlfall, Thümmel, Thümmel, Tian, Tian, Tian, Tian, Tian, Tian, Ting, Ting, Ting, Ting, Ting, Townsend, Tsuji, Uicker, Varedi, Varedi, Veluswami, Venanzi, Vencl, Villaggio, Virlez, Vu-Quoc, Vu-Quoc, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Weiss, Wilson, Wilson, Winfrey, Woods, Wu, Wu, Wu, Wu, Wu, Wu, Wu, Wu, Wu, Xiang, Xiang, Xu, Xu, Xu, Xu, Xu, Yan, Yan, Yang, Yang, Yang, Yaqubi, Yaqubi, Yaqubi, Yigit, Yigit, Yoshioka, Younes, Yudin, Zakhariev, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhao, Zhao, Zhao, Zhao, Zhao, Zhao, Zhao, Zhao, Zhao, Zhao, Zhao, Zheng, Zhou, Zhu, Zhu, Zhu, Zhuang, Zhuang   +478 more
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Optimization of a High–Speed Deployment Slider–Crank Mechanism: A Design Charts Approach [PDF]

, 2014
Mechanical and aerospace applications often require that mechanisms deploy in a quick stable and reliable way. The objective of this study is to implement a general optimization procedure to perform a first stage conceptual design of HSD mechanisms ...
Cavezza, A, Gautham, M, Mariti, L, Muchino, V, Pennestrì, E, Valentini, P   +5 more
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Dynamic modelling of an intermittent slider–crank mechanism

Applied Mathematical Modelling, 2009
zbMATH Open Web Interface contents unavailable due to conflicting licenses.
Fung, Rong-Fong, Chiang, Chin-Lung, Chen, Shin-Jen   +2 more
openaire   +2 more sources

Single piece compliant spatial slider–crank mechanism

Mechanism and Machine Theory, 2014
Abstract This paper presents a novel study on the analysis of the “single piece” compliant spatial slider–crank mechanism. In the previous study performed by the authors, a “partially compliant” version of the spatial slider–crank mechanism was introduced.
Volkan Parlaktaş, Engin Tanık
openaire   +2 more sources

A study on dynamics of mechanical systems including joints with clearance and lubrication [PDF]

, 2006
In this work a methodology for the dynamical analysis of mechanical systems considering realistic joint characteristics, namely, joints with clearance and lubrication is presented. For the case of the joints with clearance modelled as a contact pair with
Ambrósio, Jorge, Claro, José Carlos Pimenta, Flores, Paulo, Koshy, C. S., Lankarani, H. M.   +4 more
core   +1 more source

Task Space Position Control of Slider-Crank Mechanisms Using Simple Tuning Techniques Without Linearization Methods

IEEE Access, 2020
In this work, a position control in task space for slider-crank mechanisms is presented. In order to apply linear controllers it is required to linearize the mechanism dynamics at an equilibrium point.
Adolfo Perrusquia, Juan Alejandro Flores-Campos, Christopher R. Torres-Sanmiguel, Noe Gonzalez   +3 more
doaj   +1 more source