References¶

[Aok79]

Akira Aoki. Experimental study on motorcycle steering performance. Society of Automotive Engineers, February 1979. SAE Paper 790265.

[BMCP07]

Pradipta Basu-Mandal, Anindya Chatterjee, and Jim M. Papadopoulos. Hands-free circular motions of a benchmark bicycle. Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences, 463(2084):1983–2003, August 2007.

[BL99]

S. Berriah and G. Lachiver. Control of equilibrium and trajectory of a remotely controlled bicycle. In Engineering Solutions for the Next Millennium. 1999 IEEE Canadian Conference on Electrical and Computer Engineering. 1999.

[BFG+98]

A. V. Beznos, A. M. Formal’sky, E. V. Gurfinkel, D. Jicharev, A. V. Lensky, K. V. Savitsky, and L.S. Tchesalin. Control of autonomous motion of two-wheel bicycle with gyroscopic stabilization. In Proceedings of the 1998 IEEE International Conference on Robotics and Automation, 2670–2675. Leuven, Belgium, 1998.

[Bic11]

BicyRobo. Bicyrobo thailand championship. World Wide Web, 2011. http://bicyrobo.ait.ac.th/.

[BBCL03]

F. Biral, D. Bortoluzzi, V. Cossalter, and M. Lio. Experimental study of motorcycle transfer functions for evaluating handling. Vehicle System Dynamics: International Journal of Vehicle Mechanics and Mobility, 39(1):1–25, 2003.

[Bje06]

L. Bjermeland. Modeling, simulation and control system design for an autonomous bicycle. Master’s thesis, Norges Teknisk-Naturvitenskapelige Universitet, 2006.

[BST09]

I. Boniolo, S. M. Savaresi, and M. Tanelli. Roll angle estimation in two-wheeled vehicles. IET Control Theory and Applications, 3(1):20–32, January 2009.

[BTS08]

I. Boniolo, M. Tanelli, and S.M. Savaresi. Roll angle estimation in two-wheeled vehicles. In 17th IEEE International Conference on Control Applications, Part of 2008 IEEE Multi-conference on Systems and Control, 31–36. San Antonio, Texas, USA, September 2008.

[BDL00]

D. Bortoluzzi, A. Doria, and R. Lot. Experimental investigation and simulation of motorcycle turning performance. In 3rd International Motorcycle Conference. 2000.

[Bre10]

Snorre Eskeland Brekke. Autonomous bicycle. Master’s thesis, Norwegian University of Science and Technology, 2010.

[CP10]

S. M. Cain and N. C. Perkins. Comparison of a bicycle steady-state turning model to experimental data. In Bicycle and Motorcycle Dynamics 2010 Symposium on the Dynamics and Control of Single Track Vehicles. Delft, Netherlands, October 2010. TU Delft.

[Cal07]

Craig Calfee. Geometry of bike handling. North American Hand Built Bicycle Show Program, 2007.

[CMMR06]

R. Capitani, G. Masi, A. Meneghin, and D. Rosti. Handling analysis of a two-wheeled vehicle using MSC.ADAMS/motorcycle. Vehicle System Dynamics: International Journal of Vehicle Mechanics and Mobility, 44:698–707, 2006.

[CALR10]

V. Cerone, D. Andreo, M. Larsson, and D. Regruto. Stabilization of a riderless bicycle [Applications of control]. Control Systems, IEEE, 30(5):23 –32, October 2010.

[CCM+75]

R. F. Chandler, C. E. Clauser, J. T. McConville, H. M. Reynolds, and J. W. Young. Investigation of inertial properties of the human body. Technical Report AMRL TR 74-137, Wright-Patterson Air Force Base, Ohio, 1975. NTIS No. AD-A016 485.

[CD06]

Chih-Keng Chen and Thanh-Son Dao. Fuzzy control for equilibrium and roll-angle tracking of an unmanned bicycle. Multibody System Dynamics, 15:321–346, 2006.

[CD10]

Chih-Keng Chen and Trung-Kien Dao. A study of bicycle dynamics via system identification. In 2010 International Symposium on Computer Communication Control and Automation (3CA), volume 2, 204–207. May 2010.

[Che00]

Ping Ho Chen. A scheme of fuzzy training and learning applied to elebike control system. In Ninth IEEE International Conference on Fuzzy Systems. 2000.

[CBAS03]

Kok Y. Cheng, David Bothman, and Karl J. Åström. Bicycle torque sensor experiment. Technical Report, University of California, Santa Barbara, 2003.

[CC07]

R.F. Chidzonga and E. Chikuni. Stabilizing a bicycle below critical speed. In AFRICON 2007, 1–7. September 2007.

[CE03]

Richard. F. Chidzonga and Eduard Eitelberg. Controlling velocity and steering for bicycle stabilization. In First African Control Conference. Cape Town, South Africa, December 2003.

[CMY69]

C. E. Clauser, J. T. McConville, and J. W. Young. Weight, volume and center of mass of segments of the human body. Technical Report AMRL TR 69-70, Wright-Patterson Air Force Base, Ohio, 1969. NTIS No. AD-710 622.

[Clo94]

Chad Cloud. Teaching kids how to ride a bike [fuzzy control]. In Proceedings of the First International Joint Conference of the North American Fuzzy Information Processing Society Biannual Conference. The Industrial Fuzzy Control and Intelligent Systems Conference, and the NASA Joint Technology Workshop on Neural Networks and Fuzzy Logic. NAFIPS/IFIS/NASA ‘94., 175–176. December 1994.

[CHA96]

S. O. Cloyd, M. Hubbard, and L. W. Alaways. A control scheme for an opposed recumbent tandem human-powered bicycle. Journal of Applied Biomechanics, 212(4):480–492, November 1996.

[Con09]

Brendan Connors. Modeling and stability analysis of a recumbent bicycle with oscillating leg masses. Master’s thesis, University of California, Davis, 2009.

[CH08]

Brendan Connors and Mont Hubbard. Modelling and stability analysis of a recumbent bicycle with oscillating leg masses. In Margaret Estivalet and Pierre Brisson, editors, The Engineering of Sport 7, volume 1, 677–685. ISEA, Springer Paris, August 2008.

[CL02]

V. Cossalter and R. Lot. A motorcycle multi-body model for real time simulations based on the natural coordinates approach. Vehicle System Dynamics, 37(6):423–447, 2002.

[CLP07]

V. Cossalter, R. Lot, and M. Peretto. Steady turning of motorcycles. Proceedings of the Institution of Mechanical Engineers, Part D: Journal of Automobile Engineering, 221:1343–1356, 2007.

[CDL99]

Vittore Cossalter, Alberto Doria, and Roberto Lot. Steady turning of two-wheeled vehicles. Vehicle System Dynamics, 31(3):157–181, 1999.

[DL11]

Peter de Lange. Rider identification in bicycling: A preliminary analysis. Master’s thesis, Delft University of Technology, 2011.

[DLH96]

D. S. de Lorenzo and Mont Hubbard. Dynamic bicycle stability of a flexibly coupled rider. Internal report UC Davis, 1996.

[DL97]

David S. de Lorenzo. Quantification of structural loading during off-road cycling. Master’s thesis, Univeristy of California, Davis, 1997.

[Dem11]

Christopher Dembia. Yeadon: A Python Library For Human Inertia Estimation. 2011. http://pypi.python.org/pypi/yeadon/.

[Dem55]

W. T. Dempster. Space requirements of the seated operator, geometrical, kinematic and mechanical aspects of the body with special reference to the limbs. Technical Report WADC 55-159, Wright-Patterson AFB, Ohio, 1955.

[DFT12]

A. Doria, M. Formentini, and M. Tognazzo. Experimental and numerical analysis of rider motion in weave conditions. Vehicle System Dynamics, 2012.

[Doy88]

A. J. R. Doyle. The essential human contribution to bicycle riding. Training, Human Decision Making and Control, pages 351–370, 1988.

[Doy87]

Anthony John Redfern Doyle. The Skill of Bicycle Riding. PhD thesis, Department of Psychology, University of Sheffield, 1987.

[Doh53]

E. Döhring. Über die Stabilität und die Lenkkräfte von Einspurfahrzeugen. PhD thesis, Technical University Braunschweig, Germany, 1953.

[Doh55]

E. Döhring. Stability of single-track vehicles. Forschung Ing.-Wes., 21(2):50–62, 1955. Translated by J. Lotsof, March 1957.

[Eat73a]

David J. Eaton. An experimental study of the motorcycle roll stabilization task. In Proceedings of the Ninth Annual Conference on Manual Control, 233–234. May 1973.

[Eat73b]

David J. Eaton. Man-Machine Dynamics in the Stabilization of Single-Track Vehicles. PhD thesis, University of Michigan, 1973.

[ES73]

David J. Eaton and Leonard Segel. Lateral dynamics of the uncontrolled motorcycle. In Second International Congress on Automotive Safety. San Francisco, CA, USA, July 1973.

[Edw72]

Frederick G. Edwards. Determination of pilot and vehicle describing functions from the gemini-10 mission. Technical Report, NASA Ames Research Center, 1972.

[ER10]

J.L. Escalona and A.M. Recuero. A bicycle model for education in machine dynamics and real-time interactive simulation. In Proceedings of Bicycle and Motorcycle Dynamics 2010, A Symposium on the Dynamics and Control of Single Track Vehicles. Delft, The Netherlands, October 2010.

[ER11]

José Escalona and Antonio Recuero. A bicycle model for education in multibody dynamics and real-time interactive simulation. Multibody System Dynamics, pages 1–20, 2011.

[Eve10]

M. V. C. Evertse. Rider analysis using a fully instrumented motorcycle. Master’s thesis, Delft University of Technology, 2010.

[FMPM06]

Chad Findlay, Jason Keith Moore, and Claudia Perez-Maldonado. SISO control of a bicycle-rider system. MAE 272 Report 2, Winter 2006, 2006.

[For92]

F.A. Forouhar. Robust stabilization of high-speed oscillations in single track vehicles by feedback control of gyroscopic moments of crankshaft and engine inertia. PhD thesis, University of California, Berkeley, 1992.

[FSR90]

G. Franke, W. Suhr, and F. Rieß. An advanced model of bicycle dynamics. European Journal of Physics, 11(2):116–121, 1990.

[FB03]

Ruggero Frezza and Alessandro Beghi. Simulating a motorcycle driver. In Wei Kang, Carlos Borges, and Mingqing Xiao, editors, New Trends in Nonlinear Dynamics and Control and their Applications, volume 295 of Lecture Notes in Control and Information Sciences, pages 175–186. Springer Berlin / Heidelberg, 2003.

[Fu65]

Hiroyasu Fu. Fundamental characteristics of single-track vehicles in steady turning. JSME Bulletin, 9(34):284–293, 1965.

[Gal00]

Jason Matthew Gallaspy. Gyroscopic stabilization of an unmanned bicycle. Master’s thesis, Auburn University, Auburn, Alabama, USA, 2000.

[Get94]

Neil H. Getz. Control of balance for a nonlinear nonholonomic non-minimum phase model of a bicycle. In American Control Conference, volume 1, 148–151. Baltimore, MD, June–July 1994. AACC.

[Get95]

Neil H. Getz. Internal equilibrium control of a bicycle. In Proceedings of the 34th IEEE Conference on Decision and Control (Cat. No.95CH35803), volume 4, 4285–4287. New York, NY, USA, December 1995. IEEE Control Syst. Soc, IEEE. Proceedings of 1995 34th IEEE Conference on Decision and Control, 13-15 December 1995, New Orleans, LA, USA.

[GM95]

Neil H. Getz and Jerrold E. Marsden. Control for an autonomous bicycle, paper 525473. In International Conference on Robotics and Automation, volume 2, 1397–1402. Nagoya, Aichi, Japan, May 1995. IEEE.

[GWS05]

I. W. Griffiths, J. Watkins, and D. Sharpe. Measuring the moment of inertia of the human body by a rotating platform method. American Journal of Physics, 73(1):85–92, 2005.

[Gus02]

Fredrik Gustafsson. Methods for estimating the roll angle and pitch angle of a two-wheeled vehicle system and a computer program to perform the methods. 2002.

[Han88]

Richard Scott Hand. Comparison and stability analysis of linearized equations of motion for a basic bicycle model. Master’s thesis, Cornell University, Ithaca, New York, May 1988.

[Hes97]

R. A. Hess. Handbook of Human Factors and Ergonomics., chapter Feedback Control Models: Manual Control and Tracking, pages 1249–1294. number 38. Wiley, New York, Second edition, 1997.

[HMH12]

Ronald Hess, Jason K. Moore, and Mont Hubbard. Modeling the manually controlled bicycle. IEEE Transactions on Systems, Man, and Cybernetics - Part A: Systems and Humans, 42(3):545–557, 2012.

[HB07]

Jesse B. Hoagg and Dennis S. Bernstein. Nonminimum-phase zeros: much to do about nothing. IEEE Control Systems Magazine, 27:45–57, June 2007.

[HAP05]

Kevin Huyge, Jorge Ambrósio, and Manuel Pereira. A control strategy for the dynamics of a motorcycle. In ENOC. Eindhoven, Netherlands, August 2005.

[Inc09]

Northern Digital Incorporated. Optotrak certus motion capture system. 2009. http://www.ndigital.com/.

[IM06]

K. Iuchi and T. Murakami. An approach to fusion control of stabilization control and human input in electric bicycle. In 32nd Annual Conference on IEEE Industrial Electronics, 3211–3216. Paris, France, 2006.

[INM05]

K. Iuchi, H. Niki, and T. Murakami. Attitude control of bicycle motion by steering angle and variable cog control. In Industrial Electronics Society, 2005. IECON 2005. 31st Annual Conference of IEEE, 6. November 2005.

[JD98]

A. W. Jackson and M. Dragovan. An experimental investigation of bicycle dynamics. Unpublished report, 1998.

[Jam05]

Stephen R James. Lateral dynamics of motorcycles towing single-wheeled trailers. Vehicle System Dynamics: International Journal of Vehicle Mechanics and Mobility, 43(8):581–599, 2005.

[Jam02]

Stephen R. James. Lateral dynamics of an offroad motorcycle by system identification. Vehicle System Dynamics, 38(1):1–22, July 2002.

[JMJ78]

H. R. Jex, R. E. Magdaleno, and A. M. Junker. Roll tracking of g-vector tilt and various types of motion washout. In Fourteenth Annual Conference on Manual Control, 463–502. University of Southern California, April 1978.

[Jol02]

I.T. Jolliffe. Principal Component Analysis. Springer Series in Statistics. Springer, New York, 2nd edition, 2002.

[Jon70]

David E. H. Jones. The stability of the bicycle. Physics Today, 23(4):34–40, 1970.

[KO96]

I. Kageyama and Y. Owada. An analysis of a riding control algorithm for two wheeled vehicles with a neural network modeling. Vehicle System Dynamics, 25:317–326, 1996.

[KMBU04]

Ichiro Kageyama, Shun’ichi Miyagishi, Masayuki Baba, and Hajime Uchiyama. Construction of rider robot for motorcycle. Journal of the Society of Automotive Engineers of Japan, 58:67–73, 2004.

[KF59]

Katumi Kageyama and Hiroyasu Fu. Experiments on control characteristics of a motor-cycle in steady turning, especially on the effects of lean in and lean out. Jour. SAE Japan, 13(10):41–45, 1959. 596009.

[KN03]

Yutaka Kamata and Hidekazu Nishimura. System identification and attitude control of motorcycle by computer-aided dynamics analysis. JSAE Review, 24(4):411 – 416, 2003.

[KL00]

T. R. Kane and D. A Levinson. Dynamics Online: Theory and Implementation with AUTOLEV. Online Dynamics, Inc., Sunnyvale, CA, 2000.

[Kan75]

Thomas R. Kane. Fundamental kinematical relationships for single-track vehicles. International Journal for Mechanical Sciences, 17:499–504, 1975.

[Kan77a]

Thomas R. Kane. Kinematical implications of side slip for single-track vehicles. Society of Automotive Engineers, February 1977. SAE Paper 770056.

[Kan77b]

Thomas R. Kane. Steady turning of single-track vehicles. In International Automotive Engineering Congress and Exposition, number 770057. Detroit, MI, February–March 1977. SAE.

[Kan78]

Thomas R. Kane. The effect of frame flexibility on high speed weave of motorcycles. In SAE Paper 780306, 33–40. SAE, 1978.

[KL85]

Thomas R. Kane and David A. Levinson. Dynamics: Theory and Applications. McGraw Hill, New York, NY, 1985.

[Kar04]

Dean Karnopp. Vehicle Stability. Marcel Dekker, Inc., 2004.

[KAN88]

T. Katayama, A. Aoki, and T. Nishimi. Control behaviour of motorcycle riders. Vehicle System Dynamics, 17:211–229, 1988.

[KM08]

Lychek Keo and Yamakita Masaki. Trajectory control for an autonomous bicycle with balancer, paper 4601741. In International Conference on Advanced Intelligent Mechatronics, 676–681. Xi’an, China, July 2008. IEEE/ASME.

[KY11]

Lychek Keo and Masaki Yamakita. Control of an autonomous electric bicycle with both steering and balancer controls. Advanced Robotics, 25:1–22, January 2011.

[Koe83]

C. Koenen. The dynamic behaviour of a motorcycle when running straight ahead and when cornering. PhD thesis, Delft University of Technology, 1983.

[Kon55]

M. Kondo. Experimental study on the stability and control of single-track vehicles. JSME, 58(442):827–833, 1955.

[Koo06]

J. D. G. Kooijman. Experimental validation of a model for the motion of an uncontrolled bicycle. Master’s thesis, Delft University of Technology, 2006.

[KMP+11]

J. D. G. Kooijman, J. P. Meijaard, Jim M. Papadopoulos, Andy Ruina, and A. L. Schwab. A bicycle can be self-stable without gyroscopic or caster effects. Science, 332(6027):339–342, 2011.

[KS08]

J. D. G. Kooijman and A. L. Schwab. Some observations on human control of a bicycle. In I. Zobory, editor, 11th mini Conference on Vehicle System Dynamics, Identification and Anomalies (VSDIA2008), Budapest, Hungary, 8. Budapest University of Technology and Economincs, November 2008.

[KS09]

J. D. G. Kooijman and A. L. Schwab. Experimental validation of the lateral dynamics of a bicycle on a treadmill. In Proceedings of the ASME 2009 International Design Engineering Technical Conferences & Computers and Information in Engineering Conference, IDETC/CIE 2009, number DETC2009-86965. 2009.

[KS11]

J. D. G. Kooijman and A. L. Schwab. A review on handling aspects in bicycle and motorcycle control. In Proceedings of the ASME 2011 International Design Engineering Technical Conferences & Computers and Information in Engineering Conference. IDETC/CIE, number DETC2011-47963. Washington, DC, USA, August 2011.

[KSM08]

J. D. G. Kooijman, A. L. Schwab, and J. P. Meijaard. Experimental validation of a model of an uncontrolled bicycle. Multibody System Dynamics, 19:115–132, May 2008.

[KSM09]

J. D. G. Kooijman, A. L. Schwab, and Jason K. Moore. Some observations on human control of a bicycle. In Proceedings of the ASME 2009 International Design and Engineering Technical Conferences & Computers and Information in Engineering Conference. 2009.

[KKBM05]

Takeyuki Kuriyama, Ichiro Kageyama, Masayuki Baba, and Shunichi Miyagishi. 2102 control system design and construction of rider robot for two-wheel vehicle. The Transportation and Logistics Conference, 14:207–210, 2005.

[LLLW03]

Hsien-Chung Lai, Jing-Sin Liu, D. T. Lee, and Li-Sheng Wang. Design parameters study on the stability and perception of riding comfort of the electrical motorcycles under rider leaning. Mechatronics, 13(1):49 – 76, 2003.

[Leb10]

Eric O. Lebigot. Uncertainties: a Python package for calculations with uncertainties. 2010. http://pypi.python.org/pypi/uncertainties/.

[LH02]

Sangduck Lee and Woonchul Ham. Self stabilizing strategy in tracking control of unmanned electric bicycle with mass balance, paper 1041594. In International Conference on Intelligent Robots and Systems, volume 3, 2200–2205. Lausanne, Switzerland, September–October 2002. IEEE/RSJ.

[LS06]

David J.N. Limebeer and Robert S. Sharp. Bicycles, motorcycles, and models. IEEE Control Systems Magazine, 26(5):34–61, October 2006.

[LW93]

T.S. Liu and J.C. Wu. A model for a rider-motorcycle system using fuzzy control. Systems, Man and Cybernetics, IEEE Transactions on, 23(1):267–276, January 1993.

[Lju98]

Lennart Ljung. System Identification: Theory for the User. Prentice Hall, 1998.

[MM71]

R. E. Magdaleno and D. T. McRuer. Experimental validation and analytical elaboration for models of the pilot’s neuromuscular subsystem in tracking tasks. Technical Report CR-1757, NASA, April 1971.

[Mag12]

Jürgen Mages. Python lowracer. World Wide Web, August 2012. [Online; accessed 10-Aug-2012] http://www.python-lowracer.de/.

[MEH05]

S. Mammar, S. Espie, and C. Honvo. Motorcycle modelling and roll motion stabilization by rider leaning and steering torque. In Proceedings of the 2005 IEEE Conference on Control Applications, Toronto Canada, August 28-31, 2005, 1421–1426. 2005.

[MK79]

Guy K. Man and Thomas R. Kane. Steady turning of two-wheeled vehicles, paper 790187. In Dynamics of Wheeled Recreational Vehicles, 55–75. Detroit, MI, February–March 1979. SAE.

[MN07]

Y. Marumo and M. Nagai. Steering control of motorcycles using steer-by-wire system. Vehicle System Dynamics: International Journal of Vehicle Mechanics and Mobility, 45(5):445–458, 2007.

[MK74]

D. T. McRuer and E. S. Krendel. Mathematical models of human pilot behavior. Technical Report STI-P-146, Systems Technology, Inc., Hawthorne, CA, USA, 1974. AGARD AG 188.

[MGK67a]

Duane T. McRuer, Dunstan Graham, and Ezra S. Krendel. Manual control of single-loop systems: part i. Journal of the Franklin Institute, 283(1):1 – 29, 1967.

[MGK67b]

Duane T. McRuer, Dunstan Graham, and Ezra S. Krendel. Manual control of single-loop systems: part ii. Journal of the Franklin Institute, 283(2):145 – 168, 1967.

[MPRS07]

J. P. Meijaard, Jim M. Papadopoulos, Andy Ruina, and A. L. Schwab. Linearized dynamics equations for the balance and steer of a bicycle: A benchmark and review. Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences, 463(2084):1955–1982, August 2007.

[Mer75]

J.L. Meriam. Dynamics. Wiley, 1975.

[MT06]

B. Michini and S. Torrez. Autonomous stability control of a moving bicycle. MIT Report, 2006.

[MK96]

Paul Mitiguy and Thomas R. Kane. Motion variables leading to efficient equations of motion. The International Journal of Robotics Research, 15(5):522–532, 1996.

[MBU+06]

Shun’ichi Miyagishi, Masayuki Baba, Hajime Uchiyama, Ichiro Kageyama, and Takeyuki Kuriyama. Construction of rider robot proto2 for motorcycles. In Proceedings. JSAE Annual Congress. 2006.

[MKT+01]

Shunichi Miyagishi, Ichiro Kageyama, Kouhei Takama, Masayuki Baba, and Hajime Uchiyama. 1411 a study on a rider robot for two wheeled vehicle. The Transportation and Logistics Conference, 10:125–128, 2001.

[MKT+03]

Shunichi Miyagishi, Ichiro Kageyama, Kouhei Takama, Masayuki Baba, and Hajime Uchiyama. Study on construction of a rider robot for two-wheeled vehicle. JSAE Review, 24(3):321 – 326, 2003.

[MKS09]

J. K. Moore, J. D. G. Kooijman, and A. L. Schwab. Rider motion identification during normal bicycling by means of principal component analysis. In K. Arczewski and M. Wojtyra J. Frączek, editors, Multibody Dynamics 2009, ECCOMAS Thematic Conference. Warsaw, Poland, June-July 2009.

[MH08]

Jason Moore and Mont Hubbard. Parametric study of bicycle stability. In Margaret Estivalet and Pierre Brisson, editors, The Engineering of Sport 7, volume 2. International Sports Engineering Association, Springer Paris, 2008.

[Moo06]

Jason K. Moore. Low speed bicycle stability: Effects of geometric parameters. For course MAE 223, UC Davis, Winter 2006, August 2006.

[Moo11]

Jason K. Moore. BicycleParameters: A Python library for bicycle parameter estimation and analysis. 2011. http://pypi.python.org/pypi/BicycleParameters.

[MHP+10]

Jason K. Moore, Mont Hubbard, Dale L. Peterson, A. L. Schwab, and J. D. G. Kooijman. An accurate method of measuring and comparing a bicycle’s physical parameters. In Bicycle and Motorcycle Dynamics: Symposium on the Dynamics and Control of Single Track Vehicles. Delft, Netherlands, October 2010.

[MHS+10]

Jason K. Moore, Mont Hubbard, A. L. Schwab, J. D. G. Kooijman, and Dale L. Peterson. Statistics of bicycle rider motion. Procedia Engineering, 2(2):2937–2942, 2010. The Engineering of Sport 8 - Engineering Emotion.

[MKHS09]

Jason K. Moore, J. D. G. Kooijman, Mont Hubbard, and A. L. Schwab. A method for estimating physical properties of a combined bicycle and rider. In Proceedings of the ASME 2009 International Design Engineering Technical Conferences & Computers and Information in Engineering Conference, IDETC/CIE 2009. San Diego, CA, USA, August–September 2009. ASME.

[MKSH11]

Jason K. Moore, J. D. G. Kooijman, A. L. Schwab, and Mont Hubbard. Rider motion identification during normal bicycling by means of principal component analysis. Multibody System Dynamics, 25:225–244, 2011.

[MPH07]

Jason K. Moore, Dale L. Peterson, and Mont Hubbard. Influence of rider dynamics on the whipple bicycle model. In 11th International Symposium on Computer Simulation in Biomechanics. Tainan, Taiwan, June 2007. ISB.

[MW04]

Christopher M. Muhich and Christopher D. Wagner. Design of a bicycle stabilizer. Technical Report, University of Notre Dame, 2004.

[Mur02]

D. Muraoka. Stable running control of autonomous bicycle robot. Master’s thesis, Keio University, 2002. in Japanese.

[Mur09]

Murata. Murata boy. Http://www.murataboy.com/, 2009.

[MY07]

Akihiro Murayama and Masaki Yamakita. Development of autonomous bike robot with balancer, paper 4601741. In Annual Conference, 1048–1052. Kagawa, Japan, September 2007. SICE.

[Mut10]

J. T. M. Mutsaerts. Lego NXTbike-GS bicycle with active stability. Youtube.com, May 2010. http://youtu.be/o7nSQ2ycGX4.

[Nag83]

M. Nagai. Analysis of rider and single-track-vehicle system; its application to computer-controlled bicycles. Automatica, 19(6):737–740, 1983.

[NII97]

Y. Nakano, H. Iwasaki, and S. Iwane. Stabilizing control of un-manned bicycle with piezoelectric micro-gyroscope. In Proceeding of SICE Conference, volume 40, 343–344. 1997. in Japanese.

[NM05a]

H. Niki and T. Murakami. An approach to self stabilization of bicycle motion by handle controller. IEEJ Transactions on Industry Applications, 125-D(8):779–785, 2005.

[NM05b]

Hiroshi Niki and Toshiyuki Murakami. An approach to stable standing motion of electric bicycle. In Proceedings of 2005 CACS Automatic Control Conference. Tainan, Taiwan, November 2005.

[OMUS02]

Yusuke Oda, Masayuki Miyamoto, Kei Uchiyama, and Gou Shimizu. Study on the autonomous run by integrated control of bicycle. In JSME 11th Conference of Transportation and Logistics Division No.02-50. December 2002.

[OV98]

S. J. Ovaska and S. Valiviita. Angular acceleration measurement: A review. In Proc. IEEE IMTC/98 Instrumentation and Measurement Technology Conf, volume 2, 875–880. 1998.

[Pac06]

H.B. Pacejka. Tire and vehicle dynamics. SAE-R. SAE International, 2006.

[Pap87]

Jim M. Papadopoulos. Bicycle steering dynamics and self-stability: A summary report on work in progress. Cornell Report, 1987.

[PHH01]

Ingyu Park, Sangchul Han, and Woonchul Ham. Control algorithm for stabilization of attitute of unmanned electric bicycle. In The Proceedings of 2001 INCOM. Wien, Austria, 2001.

[PKP99]

S. J Park, C.B. Kim, and S. C. Park. Anthropometric and biomechanical characteristics on body segments of Koreans. Applied Human Sciences, 18(3):91–9, May 1999.

[Pat04a]

Tim Paterek. The Paterek Manual For Bicycle Frame Builders. Henry James Bicycles, Inc., 2004.

[Pat04b]

W. B. Patterson. The Lords of the Chainring. W. B. Patterson, 2004.

[PH08a]

Dale L. Peterson and Mont Hubbard. Analysis of the holonomic constraint in the Whipple bicycle model, paper 267. In The Engineering of Sport 7, volume 2, 623–631. Biarritz, France, June 2008. ISEA, Springer.

[PH08b]

Dale L. Peterson and Mont Hubbard. Yaw rate and velocity tracking control of a hands-free bicycle. In International Mechanical Engineering Congress and Exposition. Boston, October 2008. ASME.

[PH09]

Dale L. Peterson and Mont Hubbard. General steady turning of a benchmark bicycle model. In Proceedings of IDETC/MSNDC 2009 the ASME 2009 International Design Engineering Technical Conferences & 7th International Conference on Multibody Systems, Nonlinear Dynamics, and Control, number DETC2009/MSNDC-86145. 2009.

[PMFH10]

Dale L. Peterson, Jason K. Moore, Danique Fintelman, and Mont Hubbard. Low-power, modular, wireless dynamic measurement of bicycle motion. Procedia Engineering, 2(2):2949–2954, 2010. The Engineering of Sport 8 - Engineering Emotion.

[Psi79]

Mark Psiaki. Bicycle stability: a mathematical and numerical analysis. Master’s thesis, Princeton University, Princeton, NJ, 1979.

[Rol73]

R. D. Roland. Simulation study of motorcycle stability at high speed. In Second International Congress on Automotive Safety. San Francisco, July 1973.

[RR73]

R. D. Roland and R. S. Rice. Bicycle dynamics, ride guidance modeling and disturbance response. Calspan Report ZS-5157-K-1, Calspan Corporation, April 1973. prepared for the Schwinn Bicycle Company.

[RL72]

R.D. Roland and J.P. Lynch. Bicycle dynamics tire characteristics and rider modeling. Calspan Report YA-3063-K-2, Cornell Aeronautical Labaratory, Inc., Buffalo, NY, USA, March 1972. prepared for the Schwinn Bicycle Company.

[RP85]

P. A. Ruijs and H. B. Pacejka. Research in lateral dynamics of motorcycles. Vehicle System Dynamics, 14(1–3):149–152, 1985.

[RP86]

P.A.J. Ruijs and H.B. Pacejka. Recent research in lateral dynamics of motorcycles. In Procedings of 9th IAVSD Symposium on The Dynamics Of Vehicles on roads and on tracks, Sweden June 24-28 1985, volume supplement to Vehicle System Dynamics, Volume 15, 467–480. 1986.

[Sac06]

Alessandro Saccon. Maneuver Regulation of Nonlinear Systems: The Challenge of Motorcycle Control. PhD thesis, Universitá Delgi Studi Di Padova, 2006.

[Say90]

Michael William Sayers. Symbolic Computer Methods to Automatically Formulate Vehicle Simulation Codes. PhD thesis, The University of Michigan, 1990.

[SK10a]

A. L. Schwab and J. D. G. Kooijman. Controllability of a bicycle. In 5th Asian Conference on Multibody Dynamics 2010. Kyoto, Japan, August 2010.

[SK10b]

A. L. Schwab and J. D. G. Kooijman. Lateral dynamics of a bicycle with passive rider model. In The 1st Joint International Conference on Multibody System Dynamics. Lappeenranta, Finland, May 2010.

[SKM08]

A. L. Schwab, J. D. G. Kooijman, and J. P. Meijaard. Some recent developments in bicycle dynamics and control. In A. K. Belyaev and D. A. Indeitsev, editors, Fourth European Conference on Structural Control (4ECSC), 695–702. Institute of Problems in Mechanical Engineering, Russian Academy of Sciences, 2008.

[SMK12]

A. L. Schwab, J. P. Meijaard, and J. D.G. Kooijman. Lateral dynamics of a bicycle with a passive rider model: stability and controllability. Vehicle System Dynamics, 2012.

[SMP04]

A. L. Schwab, J. P. Meijaard, and J. M. Papadopoulos. Benchmark results on the linearized equations of motion of an uncontrolled bicycle. In Proceedings of The Second Asian Conference on Multibody Dynamics. August 2004.

[SPC01]

K. A. Seffen, G. T. Parks, and P. J. Clarkson. Observations on the controllability of motion of two-wheelers. In Proceedings of the Institute of Mechincal Engineers, volume 215. 2001.

[SN06]

Himanshu Dutt Sharma and UmaShankar N. A fuzzy controller design for an autonomous bicycle system. In Engineering of Intelligent Systems, 2006 IEEE International Conference on, 1–6. Islamabad, April 2006.

[SEL04]

R. S. Sharp, Simos Evangelou, and David J. N. Limebeer. Advances in the modelling of motorcycle dynamics. Multibody Sytem Dynamics, 12(3):251–283, 2004.

[Sha97]

R.S. Sharp. The measurement of mass and inertial properties of vehicles and components. In Automotive Vehicle Technologies, Autotech 1997, Mech. Eng. Publ., 209–217. Bury St Edmunds, 1997.

[Sha71]

Robin S. Sharp. Stability and control of motorcycles. Journal of Mechanical Engineering Science, 13(5):316–329, 1971.

[Sha75]

Robin S. Sharp. The dynamics of single track vehicles. Vehicle System Dynamics: International Journal of Vehicle Mechanics and Mobility, 5(1):67–77, 1975.

[Sha94]

Robin S. Sharp. Vibrational modes of motorcycles and their design parameter sensitivities. In Proc. Int Conf. Vehicle NVH Refinement, 3–5. Birmingham, May 1994.

[Sha01]

Robin S. Sharp. Stability, control and steering responses of motorcycles. Vehicle System Dynamics, 35(4–5):291–318, March 2001.

[Sha07a]

Robin S. Sharp. Motorcycle steering control by road preview. Journal of Dynamic Systems, Measurement, and Control, 129(4):373–382, 2007.

[Sha07b]

Robin S. Sharp. Optimal stabilization and path-following controls for a bicycle. Proceedings of the Institution of Mechanical Engineers – Part C – Journal of Mechanical Engineering Science, 221(4):415–427, April 2007.

[Sha08]

Robin S. Sharp. On the stability and control of the bicycle. Applied Mechanics Reviews, 61(6):24, November 2008.

[SL01]

Robin S. Sharp and David J. N. Limebeer. A motorcycle model for stability and control analysis. Multibody Syst. Dyn., 6(2):123–142, 2001.

[SLG99]

Robin S. Sharp, David J. N. Limebeer, and M. Gani. A motorcycle model for stability and control analysis. In Proc. Euromech Colloquium 404, Advances Computational Multibody Dynamics, 287–312. 1999.

[SG71]

D. V. Singh and V. K. Goel. Stability of Rajdoot scooter. Technical Report, SAE, 1971. SAE Paper 710273.

[Sin64]

Digvijai Singh. Advanced Concepts of the Stability of Two-Wheeled Vehicles: Application of Mathematical Analysis to Actual Vehicles. PhD thesis, University of Wisconsin, June 1964.

[SS00]

Pitikhate Sooraksa and U. Sritheerawirojana. A bicycle robot: part 1 modeling and control. In Proceedings of the 17th ISARC, 1–5. Taipei, Taiwan, 2000.

[SUK+00]

Pitikhate Sooraksa, T. Uthairat, S. Kaopratum, U. Sritheerawirojana, and V. Monyakul. A bicycle robot: part 2 system implementation. In Proceedings of the 17th ISARC, Taipei, Taiwan. 2000.

[SVLB+73]

H. G. Stassen, A. van Lunteren, P.L. Brinkman, W.C.J. Moolenaar, J.S.M.J. van Dieten, A. J. de Ron, M. F. W. Dubois, H. A. Udo de Haes, J. J. Kok, and W. Veldhuyzen. Progress report January 1970 until January 1973 of the Man-Machine Systems Group. Technical Report, Delft University of Technology, 1973.

[Sta69]

H.G. Stassen. The polarity coincidence correlation technique - a useful tool in the analysis of human-operator dynamics. Man-Machine Systems, IEEE Transactions on, 10(1):34–39, March 1969.

[Ste09]

David Stevens. The stability and handling characteristics of bicycles. Master’s thesis, The University of New South Wales, 2009.

[Sto90]

Cal Kent Stone. Rider/bicycle interaction loads during seated and standing treadmill cycling. Master’s thesis, University of California, Davis, 1990.

[SH88]

Masamori Sugizaki and Akira Hasegawa. Experimental analysis of transient response in motorcycle-rider systems. Society of Automotive Engineers, November 1988. SAE Paper 881783.

[Sup06]

S. Suprapto. Development of a gyroscopic unmanned bicycle. Master’s thesis, AIT, Thailand, 2006.

[STW02]

Shashikanth Suryanarayanan, Masayoshi Tomizuka, and Matt Weaver. System dynamics and control of bicycles at high speeds. In Proceedings of the 2002 American Control Conference (IEEE Cat. No.CH37301), volume 2, 845–850. Danvers, MA, USA, May 2002. American Autom. Control Council; IFAC; SICE, American Automatic Control Council.

[SKK+07]

Yoshitada Suzuki, Ichiro Kageyama, Yukiyo Kuriyagawa, Masayuki Baba, and Shunichi Miyagishi. 4311 study on construction of rider robot for two-wheel vehicle. JSME Annual Meeting, 2007(7):357–358, 2007. in Japanese.

[SL07]

Audun Sølvberg. Cyberbike. Master’s thesis, Norwegian University of Science and Technology, 2007.

[Tag75]

M. Taguchi. A preliminary test report on the controllability and stability of experimental safety motorcycle. In Second International Motorcycle Safety Conference. Washington, D. C., USA, December 1975.

[TWB10]

Tae-Oh Tak, Jong-Sung Won, and Gwang-Yeol Baek. Design sensitivity analysis of bicycle stability and experimental validation. In Proceedings of Bicycle and Motorcycle Dynamics 2010: Symposium on the Dynamics and Control of Single Track Vehicles. 2010.

[TS83]

T. Takagi and M. Sugeno. Derivation of fuzzy control rules from human operator’s control actions. In IFAC Symposium on Fuzzy Information, Knowledge Representation and Decision Analysis, 55–60. Marseilles, France, July 1983.

[TM04]

Y. Tanaka and T. Murakami. Self sustaining bicycle robot with steering controller. In The 8th IEEE International Workshop on Advanced Motion Control, 2004. AMC ‘04, 193–197. March 2004.

[TM09]

Y. Tanaka and T. Murakami. A study on straight-line tracking and posture control in electric bicycle. Industrial Electronics, IEEE Transactions on, 56(1):159–168, January 2009.

[TSSF06]

Mara Tanelli, Francesco Schiavo, Sergio M. Savaresi, and Gianni Ferretti. Object-oriented multibody motorcycle modelling for control systems prototyping. In Proc. IEEE Computer Aided Control System Design IEEE International Conference on Control Applications IEEE International Symposium on Intelligent Control, 2695–2700. 2006.

[TMH00]

Sekine Taro, Okano Michiharu, and Nagae Hiroyasu. Analysis of motorcycle’s behavior in the pylon course slalom. Experimental study on the pylon course slalom of motorcycles. In JSAE Annual Congress, volume 58-00. 2000.

[Tau07]

A. Taura. Realization of acrobatic motions by bike robot with balancer. Master’s thesis, Tokyo Institute of Techinology, 2007.

[TJ10]

A. P. Teerhuis and S. T. H. Jansen. Motorcycle state estimation for lateral dynamics. In Bicycle and Motorcycle Dynamics 2010, Symposium on the Dynamics and Control of Single Track Vehicles. 2010.

[TP08]

Bui Trung Thanh and Manukid Parnichkun. Balancing control of bicyrobo by particle swarm optimization-based structure-specified mixed $h_2/h_\infty $. International Journal of Advanced Robotic Systems, 5(4):187–195, 2008.

[TY48]

S. Timoshenko and D. H Young. Advanced dynamics. McGraw-Hill, New York, 1948.

[Tro02]

N. F. Troje. Decomposing biological motion: A framework for analysis and synthesis of human gait patterns. Journal of Vision, 2(5):371–387, September 2002.

[Tus47]

A. Tustin. The nature of the operator’s response in manual control and its implications for controller design. Journal of the Institution of Electrical Engineers - Part IIA: Automatic Regulators and Servo Mechanisms, 94:190–206, 1947.

[VDO11]

J. H. van den Ouden. Inventory of bicycle motion for the design of a bicycle simulator. Master’s thesis, Delft University of Technology, 2011.

[VLS67]

A. van Lunteren and H. G. Stassen. Investigations on the characteristics of a human operator stabilizing a bicycle model. In International Symposium on Ergonomics in Machine Design. Prague, 1967.

[VLS69]

A. van Lunteren and H. G. Stassen. On-line parameter estimation of the human transfer in a man-bicycle system. In Technical sessions, 4th congress of IFAC, number 70.3, 41–55. Warsaw, Poland, June 1969.

[VLS70a]

A. van Lunteren and H. G. Stassen. Investigations on the bicycle simulator. Chapter III of Annual Report 1969 of the Man-Machine Systems Group WTHD21, Delft University of Technology, Laboratory for Measurement and Control, 1970.

[VLS70b]

A. van Lunteren and H. G. Stassen. On the influence of drugs on the behavior of a bicycle rider. In Sixth Annual Conference on Manual Control. Wright-Patterson AFB, Ohio, 1970.

[VLS70c]

A. van Lunteren and H. G. Stassen. On the variance of the bicycle rider’s behavior. In Procedings of the 6th Annual Conference on Manual Control. Wright-Patterson AFB, Ohio, April 1970.

[VLS73]

A. van Lunteren and H. G. Stassen. Parameter estimation in linear models of the human operator in a closed loop with application of deterministic test signals. In Proceedings of the 9th Annual Conference on Manual Control. May 1973.

[VZ75]

P. van Zytveld. A Method for the Automatic Stabilization of an Unmanned Bicycle. PhD thesis, Stanford University, 1975.

[War06]

L. Ward. Gyrobike: Preventing scraped knees. Popular Mechanics, November 2006.

[WZ79]

D.H. Weir and J. W. Zellner. Experimental investigation of the transient behavior of motorcycles. In SAE Technical Paper Series. 1979. SAE Paper 790266.

[Wei72]

David H. Weir. Motorcycle Handling Dynamics and Rider Control and the Effect of Design Configuration on Response and Performance. PhD thesis, University of California Los Angeles, Los Angeles, CA, 1972.

[WZ78]

David H. Weir and John W. Zellner. Lateral-directional motorcycle dynamics and rider control. Technical Report 780304, SAE, 1978.

[WZT79]

David H. Weir, John W. Zellner, and Gar Teper. Motorcycle handling. Technical Report Volume II, U.S. Department of Transportation National Highway Traffic Safety Administration and Systems Technology, Inc., Washington, D.C., May 1979.

[Whi99]

Francis J. W. Whipple. The stability of the motion of a bicycle. Quarterly Journal of Pure and Applied Mathematics, 30:312–348, 1899.

[WW82]

Frank Rowland Whitt and David Gordon Wilson. Bicycling Science. MIT Press, 1982.

[Wik12a]

Wikipedia. Gyro monrail — Wikipedia, the free encyclopedia. 2012. [Online; accessed 25-May-2012].

[Wik12b]

Wikipedia. Gyrocar — Wikipedia, the free encyclopedia. 2012. [Online; accessed 25-May-2012].

[Wik12c]

Wikipedia. PID controller — Wikipedia, the free encyclopedia. 2012. [Online; accessed 7-June-2012].

[WP04]

D. G. Wilson and Jim Papadopoulos. Bicycling Science. MIT Press, 3rd edition, 2004.

[Wil51]

R. A. Wilson-Jones. Steering and stability of single-track vehicles. In Proceedings of the Institute of Mechanical Engineers (Auto Div), 191–199. 1951. Part 4.

[Win71]

R.C. Wingrove. Comparison of methods for identifying pilot describing functions from closed-loop operating records. NASA technical note. National Aeronautics and Space Administration, 1971.

[WE68]

R.C. Wingrove and F.G. Edwards. Measurement of pilot describing functions from flight test data with an example from gemini x. Man-Machine Systems, IEEE Transactions on, 9(3):49 –55, sept. 1968.

[WEC69]

R.C. Wingrove, F.G. Edwards, and Ames Research Center. A technique for identifying pilot describing functions from routine flight-test records. NASA technical note. National Aeronautics and Space Administration, 1969.

[WL94]

J. C. Wu and T. S. Liu. Fuzzy model of rider control for a motorcycle undergoing lane change. International Journal of Vehicle Design, 15(1–2):27–44, 1994.

[WL95]

J. C. Wu and T. S. Liu. Fuzzy control of rider-motorcycle system using genetic algorithm and auto-tuning. Mechatronics, 5(4):441–455, June 1995.

[WL96a]

J. C. Wu and T. S. Liu. A sliding-mode approach to fuzzy control design. IEEE Transactions on Control Systems Technology, 4(2):141–151, 1996.

[WL96b]

J. C. Wu and T. S. Liu. Stabilization control for rider-motorcycle model in Hamiltonian form. Vehicle System Dynamics, 26(6):431–448, December 1996.

[WL96c]

J. C. Wu and T. S. Liu. Stabilization control of non-holonomic systems with application to rider-motorcycle systems. International Journal of Systems Science, 27(11):1165–1175, 1996.

[WL96d]

J.C. Wu and T.S. Liu. Fuzzy control stabilization with applications to motorcycle control. IEEE Trans. Syst., Man, Cybern., 26(6):836–847, 1996.

[Yam11]

Yamaguchi. Biped robot riding a bicycle. World Wide Web, November 2011. http://ai2001.ifdef.jp/.

[YUS06]

M. Yamakita, A. Utano, and K. Sekiguchi. Experimental study of automatic control of bicycle with balancer. In Intelligent Robots and Systems, 2006 IEEE/RSJ International Conference on, 5606–5611. October 2006.

[YU05]

Masaki Yamakita and Atsuo Utano. Automatic control of bicycles with a balancer, paper 1511181. In International Conference on Advanced Intelligent Mechatronics, 1245–1250. Monterey, CA, July 2005. IEEE/ASME.

[Yav97]

Y. Yavin. Navigation and control of the motion of a riderless bicycle by using a simplified dynamic model. Mathematical and Computer Modeling, 25:67–74, 1997.

[Yav98]

Y. Yavin. Navigation and control of the motion of a riderless bicycle. Computer Methods in Applied Mechanics and Engineering, 160:193–202, 1998.

[Yea90a]

M. R. Yeadon. The simulation of aerial movement-ii. A mathematical inertia model of the human body. Journal of Biomechanics, 23:67–74, 1990.

[Yea90b]

M. R. Yeadon. The simulation of aerial movement–i. the determination of orientation angles from film data. Journal of Biomechanics, 23(1):59 – 66, 1990.

[ZS83]

V. Zatsiorsky and V. Seluyanov. The mass and inertia characteristics of the main segments of the human body. In H. Matsui and K. Kobayashi, editors, Biomechanics VIII-B, 1152–l 159. Illinois, 1983. Human Kinetic.

[ZSC90]

V. Zatsiorsky, V. Seluyanov, and L. Chugunova. In vivo body segment inertial parameters determination using a gamma-scanner method. In N. Berme and A. Cappozzo, editors, Biomechanics of Human Movement: Applications in Rehabilitation, Sports and Ergonomics, 186–202. Ohio, 1990. Bertec.

[RM71]

R. Douglas Roland Jr. and Daniel E. Massing. A digital computer simulation of bicycle dynamics. Calspan Report YA-3063-K-1, Cornell Aeronautical Laboratory, Inc., Buffalo, NY, 14221, June 1971. Prepared for Schwinn Bicycle Company, Chicago, IL 60639.

[ASKL05]

Karl J. Åström, Richard E. Klein, and Anders Lennartsson. Bicycle dynamics and control. IEEE Control Systems Magazine, 25(4):26–47, August 2005.