Search Results - Human Genetics
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Brief cycling intervals incrementally increase the number of hematopoietic stem and progenitor cells in human peripheral blood
Pradana, F., Nijjar, T., Cox, P. A., Morgan, P. T., Podlogar, T., Lucas, S. J. E., Drayson, M. T., Kinsella, F. A. M., Wadley, A. J.Published in Frontiers in Physiology (2024) -
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Generating weekly training plans in the style of a professional swimming coach using genetic algorithms and random trees
Eriksson, R., Nicander, J., Johansson, M., Mattsson, C. M.Published in Proceedings of the 9th International Performance Analysis Workshop and Conference & 5th IACSS Conference. PACSS 2021. Advances in Intelligent Systems and Computing, vol 1426 (2022)“…Results show that the proposed system is able to generate highly accurate training plans in terms of training load, types of sessions, and structure, compared to the human coach.…”
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Evolution of the body posture in elite para swimmers as the effect of body`s extrinsic adaptation to sport-specific training
Gawel, E., Zwierzchowska, A., Zebrowska, A.Published in 27th Annual Congress of the European College of Sport Science (ECSS), Sevilla, 30. Aug - 2. Sep 2022 (2022)“…The human body always strives to maintain the state of equilibrium and, for this purpose, it activates compensatory yet not always beneficial compensatory mechanisms. …”
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Elite running performances: the result of genetics, epigenetics and nurture
Venkata, R. K.Published in MOJ Sports Medicine (2017)“…This is a widely contested area of sports science and needs extensive research and intellectual reasoning. Though the genetic code of the human being was identified, the field of genetics is still has a long way to go in establishing the precision biodynamic of genetic interactions. …”
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The power of experimental models for understanding the genetic basis for superior endurance running
Delgado Caceres, M., Docheva, D.Published in MOJ Sports Medicine (2017)“…The genetic basis for superior endurance running still remains elusive. …”
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Sports performance
K. Kanosue, T. Nagami, J. TsuchiyaPublished 2015“…The central theme of Part I is the brain. Basic research on human locomotion, motor imagery, and cognitive function are included in this part. …”
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Nutrition and enhanced sports performance. Muscle building, endurance, and strength
D. Bagchi, S. Nair, C. SenPublished 2014“…Blood Rheology, Blood Flow and Human Health 29. Genetic Aspects of Sprint, Strength and Power Performance 30. …”
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Association analysis of ACE and ACTN3 in elite Caucasian and east Asian swimmers
Wang, G., Mikami, E., Chiu, L. L., de Perini, A., Deason, M., Fuku, N., Miyachi, M., Kaneoka, K., Murakami, H., Tanaka, M., Hsieh, L L., Hsieh, S. S., Caporossi, D., Pigozzi, F., Hilley, A., Lee, R., Galloway, S. D., Gulbin, J., Rogozkin, V. A., Ahmetov, I. I., Yang, N., North, K. N., Ploutarhos, S., Montgomery, H. E., Bailey, M. E., Pitsiladis, Y. P.Published in Medicine & Science in Sports & Exercise (2013)“…Purpose: Polymorphic variation in the angiotensin-converting enzyme (ACE) and a-actinin-3 (ACTN3) genes has been reported to be associated with endurance and/or power-related human performance. Our aim was to investigate whether polymorphisms in ACE and ACTN3 are associated with elite swimmer status in Caucasian and East Asian populations. …”
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The combined impact of metabolic gene polymorphisms on elite endurance athlete status and related phenotypes
Ahmetov, I. I., Williams, A. G., Popov, D. V., Lyubaeva, E. V., Hakimullina, A. M.Published in Human Genetics (2009)“…Human Genetics…”
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Bio-mechanisms of swimming and flying. Fluid dynamics, biomimetic robots, and sports science
N. Kato, S. KamimuraPublished 2008“…Table of contents: Preface Acknowledgments Part 1 Biological Aspects of Locomotive Mechanisms and Behaviors of Animals While Swimming and Flying Chapter1: Asymmetric Swimming Motion of Singly Flagellated Bacteria near a Rigid Surface Chapter2: Properties of a Semi-dilute Suspension of Swimming Microorganisms Chapter3: Dynamics, Modeling and Real-time Observation of Galvanotaxis in Paramecium caudatum Chapter4: Object Manipulation by a Formation-Controlled Euglena Group Chapter5: Passive Mechanisms Controlling Posture and Trajectory in Swimming Fishes Chapter6: Mechanical Properties of the Caudal Fin Resulting from the Caudal Skeletal Structure of the Bluefin Tuna Chapter7: Design of Artificial Tail Flukes for a Bottlenose Dolphin Chapter8: Changes in Drag Acting on an Angled Wavy Silicon-rubber Plate as a Model of the Skin Folds of a Swimming Dolphin Chapter9: Central Nervous System Underlying Swimming Fish Chapter10: Underwater Acoustical Sensing Behavior of Porpoises Chapter11: Microstructural Approach to Developing the Resonance Model of the Indirect Flight Mechanism Part 2 Hydrodynamics of Swimming and Flying Chapter12: Studies of Hydrodynamics in Fishlike Swimming Propulsion Chapter13: Optimization of Fish Shape and Swim Mode in Fully Resolved 2-D Flow-field by Genetic Algorithm with the Least-square Prediction Method Chapter14: Modeling, Simulation and Optimization of Anguilliform Swimmers Chapter15: A Numerical Study of Hovering Aerodynamics in Flapping Insect Flight Chapter16: Stabilization of Flapping-of-Wings Flight of a Butterfly, Considering Wakes Chapter 17: 3-D Unsteady Computations of Flapping Flight in Insects, Fish, and Unmanned Vehicles Part 3 Biomimetic Swimming or Flying Robots Chapter 18: Design and Simulations of a Virtual Fishlike Robot Actuated by a Muscle Model Chapter 19: Development of Fish Robots Powered by Fuel Cells: Improvement of Swimming Ability by a Genetic Algorithm and Flow Analysis by Computational Fluid Dynamics Chapter 20: Design and Control of Biomimetic Robot Fish FAC-I Chapter 21: Thrust Force Characteristics of the Propulsion Mechanism in Fluid Using a Fin with a Dynamic Variable-Effective-Length Spring Chapter 22: Elastic Pectoral Fin Actuators for Biomimetic Underwater Vehicles Chapter 23: Design, Development, and Testing of Flapping Fins with Actively Controlled Curvature for an Unmanned Underwater Vehicle Chapter 24: Controlling Biomimetic Underwater Robots with Electronic Nervous Systems Chapter 25: Micro-energy Converter Using Insect Wings Chapter26: Clapping-wing Micro Air Vehicle of Insect Size Part 4 Sports Science Chapter 27: Study on the Application of Lagrangian Numerical Simulation to Fluid Dynamics in Sports Science Chapter 28: Rowing Velocity Prediction Program Estimating Hydrodynamic Load Acting on an Oar Blade Chapter 29: Analysis of Breast, Back and Butterfly Strokes by the Swimming Human Simulation Model SWUM Chapter 30: Research in Fluid Dynamical Specification of Hand Palms in Freestyle Swimming Chapter 31: Flexural Vibration of a Jump Ski in Flight…”
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