Change of Canter Lead Through Trot on the Diagonal
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Pyramid of Training – Rhythm
Chapter 9 PYRAMID OF TRaining – RHYTHM Energy and Tempo Rhythm is the term used for the characteristic sequence of footfalls and timing of a pure walk, pure trot, and pure canter. The rhythm should be expressed with energy and in a suitable and consistent tempo, with the horse remaining in the bal- ance and self-carriage appropriate to its individual conformation and level of training. “The object of correct dressage is not to teach the horse to perform the exercises of the High School in the collected gaits at the expense of the elementary gaits. The classical school, on the contrary, demands that as well as teaching the difficult exercises, the natural gaits of the horse should not only be preserved but should also be improved by the fact that the horse has been strengthened by gymnastics. Therefore, if during the course of training the natural paces are not improved, it would be proof that the training was incorrect.” [The Complete Training of Horse and Rider, p 161] One important function of basic training is to preserve and refine the purity and regularity of the natural gaits. It is there- fore essential that the trainer knows exactly how the horse moves in each of the three basic gaits, because only then will he be in a position to take the appropriate action to correct or improve them. When establishing rhythm, “the horse should be ridden in the basic pace best suited to it.” [Principles of Riding, p. 160] The rhythm must be maintained in each of the basic gaits, and in each form of the gait, i.e. -
Energetics of Locomotion by the Australian Water Rat (Hydromys Chrysogaster): a Comparison of Swimming and Running in a Semi-Aquatic Mammal
The Journal of Experimental Biology 202, 353–363 (1999) 353 Printed in Great Britain © The Company of Biologists Limited 1999 JEB1742 ENERGETICS OF LOCOMOTION BY THE AUSTRALIAN WATER RAT (HYDROMYS CHRYSOGASTER): A COMPARISON OF SWIMMING AND RUNNING IN A SEMI-AQUATIC MAMMAL F. E. FISH1,* AND R. V. BAUDINETTE2 1Department of Biology, West Chester University, West Chester, PA 19383, USA and 2Department of Zoology, University of Adelaide, Adelaide 5005, Australia *e-mail: [email protected] Accepted 24 November 1998; published on WWW 21 January 1999 Summary Semi-aquatic mammals occupy a precarious ‘hollows’ for wave drag experienced by bodies moving at evolutionary position, having to function in both aquatic the water surface. Metabolic rate increased linearly during and terrestrial environments without specializing in running. Over equivalent velocities, the metabolic rate for locomotor performance in either environment. To examine running was 13–40 % greater than for swimming. The possible energetic constraints on semi-aquatic mammals, minimum cost of transport for swimming (2.61 J N−1 m−1) we compared rates of oxygen consumption for the was equivalent to values for other semi-aquatic mammals. Australian water rat (Hydromys chrysogaster) using The lowest cost for running (2.08 J N−1 m−1) was 20 % lower different locomotor behaviors: swimming and running. than for swimming. When compared with specialists at the Aquatic locomotion was investigated as animals swam in a extremes of the terrestrial–aquatic continuum, the water flume at several speeds, whereas water rats were run energetic costs of locomoting either in water or on land on a treadmill to measure metabolic effort during were high for the semi-aquatic Hydromys chrysogaster. -
Hunter Seat Equitation Manual
Hunter Seat Equitation Manual Copyright March 2002 Do not reproduce without permission of : USA Equestrian 4047 Iron Works Parkway Lexington, KY 40511 www.equestrian.org Hunter Seat Equitation Manual – 2002 1 PREFACE The purpose of this manual is to create a comprehensive set of standards for everyone who judges Hunter Seat Equitation. There is a clear need for a tool such as this. Due to the continuing and rapid growth of our sport we need to have clear guidelines for judges in order to maintain uniformity and a high level of quality in the show ring. Our system of equitation, “Hunter Seat Equitation” is the envy of the world. This manual is being presented by the Continuing Education committee of USA Equestrian, our national governing body. It will be reviewed and updated annually by the USA Equestrian Hunter Seat Equitation Committee and will be part of the curriculum that all judges must address before they are granted our national judges card through the Federation’s Licensed Officials Committee. It is hoped that by adding this uniformity and stability in the show ring that we will not only raise the standard of riding, training, and judging, but we will also be able to better preserve this high level for future generations. This Manual is a joint contribution from the following organizations: WCE, West Coast Equestrians, a non-profit organization dedicated to promoting our sport on the west coast, PCHA, Pacific Coast Horse Shows Association, from members of the PCHA Hunter Seat Equitation Committee, USA Equestrian Hunter Seat Equitation Committee. USA Equestrian Continuing Education Committee USA Equestrian Licensed Officials Committee This is not intended as a definitive text on the subject – this material is intended to be a starting point of thought and discussion during clinics and between peers. -
Dressage School Dressage Reference
Schöffmann THE ULTIMATE SCHOOL DRESSAGE DRESSAGE REFERENCE Explanations and definitions in seconds that will last a lifetime of rides. Photographs demonstrating how dressage movements should look. M R B P F Descriptions of correct aids for each movement or exercise and how to apply them. DRESSAGE SCHOOL C A Sourcebook of Movements and Tips A Summaries of the most Britta Schöffmann common mistakes made by A Sourcebook of Movements and Tips Movements of A Sourcebook riders and horses and how to H S E V K fix them. Lists of fast facts, training goals, and benefits of school figures. Thoughts on how it all fits together in the continued growth of the dressage horse and rider. $24.95 USD ISBN: 9781570769238 5 2 4 9 5 www.horseandriderbooks.com 9 7 8 1 5 7 0 7 6 9 2 3 8 “Clear dressage advice, sans fluff.” —HORSEMAN’S YANKEE PEDLAR “A great reference book for all levels.” —USDF CONNECTION TSB Dressage School NE PLC FULL COVER.indd 1 9/19/18 10:04 AM DUPLICATION PROHIBITED by copyright holder V Contents vii Alphabetical Index ix Endorsements x Preface 1 Turning 3 Figure Eight 4 Canter Depart 7 Walking Off 9 Trotting Off 12 Working Pirouette 14 Working Gaits 16 Working Trot 19 Working Canter 20 Changing Rein Out of the Circle 22 Half-Volte in the Corner with Return to the Track 24 Counter-Canter 27 Sitting Trot Note for the Reader 29 Changing Rein through the Circle Please see the Important Note 30 Changing Rein Across the Long Diagonal from the Publisher on p. -
Journal of Equine Veterinary Science Xx (2017) 1–9
Journal of Equine Veterinary Science xx (2017) 1–9 Contents lists available at ScienceDirect Journal of Equine Veterinary Science journal homepage: www.j-evs.com Original Research The Interplay of Performing Level and ConformationdA Characterization Study of the Lipizzan Riding Stallions From the Spanish Riding School in Vienna Thomas Druml*, Maximilian Dobretsberger, Gottfried Brem Department for Biomedical Sciences, Institute of Animal Breeding and Genetics, University of Veterinary Medicine Vienna, Vienna, Austria article info abstract Article history: Classical dressage and the schools above the ground as performed in the Spanish Riding Received 6 February 2017 School (SRS) in Vienna, require special psychological and physical properties from riding Received in revised form 16 June 2017 horses. To document the training and performing level of the Lipizzan riding stallions Accepted 20 June 2017 from the SRS in Vienna, we analyzed the horses’ performance traits retrieved from chief Available online xxxx riders’ evaluations in relation to training levels and age classes and we studied the interplay of performing status with the horses’ body shape. In total, the mean age of all Keywords: 80 riding stallions was 11.9 years (min 4 years, max 26 years). Completely trained Dressage Performance level stallions (competition level S and higher) were on average 15.6 years old (min. 10 years fi fi Rater reliability and max. 26 years). From 10 recorded performance traits ( ve physical traits and ve Shape regression psychological traits), walk, trot, and collection ratings showed significant differences Geometric morphometrics for levadeurs, caprioleurs, and courbetteurs; the psychological traits reactability, diligence, and sensibility showed significant differences between age class (3–4years, 5–8years,9–16 years, >16 years) and number of flying gallop changes. -
LIGHTNESS TOURNAMENT Exercises of Test No. 5A Level 5-A
LIGHTNESS TOURNAMENT Exercises of Test No. 5A Level 5-A Max Time 7min. Participant # Rider: Horse Judge: Movement Requirements Remarks Coef Appr Total 1 Presentation rider- Attire, tack, horse cleanliness 2 Enter at the Terre-à- Salute - All 3 Terre or Haunches-in reins in the left at very collected hand. right lead canter → Halt – Salute 3 Circle Haunches-in in Passage 4 Extensions at the 2 Trot 5 Pirouette in Piaffe Both hands 3 6 20m square at the (alternate in a 2 Canter 20m square Shoulder-in (Shoulder-in (first side) → ..Haunches-in) Flying change Haunches-in (second side) → Flying change Shoulder-in (Third side) → Flying change Haunches- in (fourth side) 7 Pirouette in Canter 2 8 Counter-changes at Minimum 4 Canter with Flying At the canter changes Half-Pass – Flying change – Half-Pass – Flying change – Half Pass – Flying change – Half Pass – Flying change 9 Flying changes 2 decreasing tempi (5-4-3-2) 10 Present one air above 3 the ground 11 Free exercise Show an impressive free exercise 12 Spanish Walk → In a straight line 2 Half Pirouette in 3 legs → Spanish Walk → Half Pirouette in 3 13 Halt – Free Salute Bow or Kneel 14 Exit the arena at the All reins in the Passage left hand - - - 250 - Total Technical Composition Coef Appr Total Trot (Collection, regularity, cadence, balance, elasticity) Piaffe (Collection, impulsion, regularity, cadence, balance, lightness) 2 Passage (Collection, impulsion, regularity, cadence, balance, lightness) 2 Canter (Collection, impulsion, regularity, cadence, balance, lightness) 2 Impulsion and regularity of the horse 2 Submission and enjoyment of the horse 3 Balance and lightness of the horse 3 Self carriage 3 Lightness and discretion of the rider´s aids 3 Descent of aids 3 240 - Total Artistic Presentation Coef Appr Total Rhythm, selection of the music 3 Interpretation of the music 3 Choreography and use of the arena. -
Convert That Trot by Lee Ziegler
trot Page 1 of 5 Convert That Trot by Lee Ziegler It doesn’t happen very often, but sometimes a gaited horse isn’t as ‘gaited’ as he should be. Some of them just seem to prefer to hard trot most or even all of the time. These horses are not as difficult to deal with as their pacing cousins, but they can be frustrating, especially for riders who have bought gaited horses in the hopes of never having to deal with a hard trot again. Horses trot for the same reasons they do any other gait – their conformation, body position, muscle use and neurological “wiring” incline them to do the gait. For a gaited bred horse that trots, in addition to these factors, there may also be a lack of rhythm that causes the horse to miss out on the special harmony that should produce his easy gait. Conformation that inclines to a trot: Horses with functional backs that are shorter than the average for their breed will often trot. Horses with relatively short lumbar spans (the vertebrae between the last rib and the lumbo-sacral junction) will also be more inclined to trot. Low headed horses that stretch easily forward will also be more inclined to trot than higher headed types. Horses with hind and front legs that are about the same length, elbow to ground and stifle to ground, may be inclined to trot. Body/muscle use that inclines to a trot: Horses with slightly rounded backs, and stretched toplines will be inclined to trot. Horses that easily tip their pelvises downward and flex downward from the lumbo-sacral junction will be inclined to trot. -
The Horse That Wouldn't Trot: a Life with Tennessee Walking Horses, Lessons Learned, and Memories Shared
Poignant horse/human relationship stories shared by a noted horsewoman. The Horse That Wouldn't Trot: A Life with Tennessee Walking Horses, Lessons Learned, and Memories Shared Buy The Complete Version of This Book at Booklocker.com: http://www.booklocker.com/p/books/4715.html?s=pdf Table of Contents Chapter One: The Dream Begins..........................................1 Chapter Two: Oh, My Aching Back .....................................7 Chapter Three: The Tennessee Walking Horse......................13 Chapter Four: The Glide Ride Begins.................................17 Chapter Five: The Problem.................................................24 Chapter Six: A New Start..................................................26 Chapter Seven: Miss Indiana.................................................33 Chapter Eight: Horse Deals ..................................................35 Chapter Nine: The Little Black Stallion ..............................39 Chapter Ten: A Champion .................................................44 Chapter Eleven: That’s Show Biz............................................48 Chapter Twelve: Up and Over .................................................52 Chapter Thirteen: Xanadu the Lover .........................................60 Chapter Fourteen: The Ending of an Era ..................................62 Chapter Fifteen: Mr. Macho ...................................................68 Chapter Sixteen: A Horse in Training .....................................73 Chapter Seventeen: Praise Hallelujah .........................................78 -
THE FEI TRAINING SCALE 1. Rhythm
THE FEI TRAINING SCALE 1. Rhythm - The Regularity and Tempo The first step of the training scale that should be established is the rhythm. The regularity is the correct sequence of the footfall, and, the tempo is the speed of the rhythm. The rhythm is the regularity of the beat in all paces. Steps and strides in each variation of the pace should cover equal distances and also be of equal duration remaining in a consistent tempo. The rhythm should also be maintained through the transitions within a pace and in all turns, also in the corners, as well on straight lines. No exercise can be good if the horse is losing rhythm. A loss of rhythm is often a sign of incorrect training. In order to judge the correctness of the rhythm, the judge must know how the horse moves in the basic paces. 2. Suppleness – Elasticity and Freedom from Anxiety Suppleness, together with rhythm, is an essential aim of the preliminary training phase. Even if the rhythm is maintained, the movement cannot be considered correct unless the horse is working through its back and the muscles are free from tension. Suppleness is a central theme throughout the schooling. It should never be neglected and should be constantly checked and reinforced. Only if the horse is physically and mentally free from tension (anxiety) or constraint can it work with suppleness and use itself fully. The horse’s joints should bend and straighten equally on both sides of its body and with each step or stride. The horse should convey the impression that it is putting its whole mind and body into its work. -
Linking Gait Dynamics to Mechanical Cost of Legged Locomotion
REVIEW published: 17 October 2018 doi: 10.3389/frobt.2018.00111 Linking Gait Dynamics to Mechanical Cost of Legged Locomotion David V. Lee 1* and Sarah L. Harris 2 1 School of Life Sciences, University of Nevada Las Vegas, Las Vegas, NV, United States, 2 Department of Electrical and Computer Engineering, University of Nevada Las Vegas, Las Vegas, NV, United States For millenia, legged locomotion has been of central importance to humans for hunting, agriculture, transportation, sport, and warfare. Today, the same principal considerations of locomotor performance and economy apply to legged systems designed to serve, assist, or be worn by humans in urban and natural environments. Energy comes at a premium not only for animals, wherein suitably fast and economical gaits are selected through organic evolution, but also for legged robots that must carry sufficient energy in their batteries. Although a robot’s energy is spent at many levels, from control systems to actuators, we suggest that the mechanical cost of transport is an integral energy expenditure for any legged system—and measuring this cost permits the most direct comparison between gaits of legged animals and robots. Although legged robots have matched or even improved upon total cost of transport of animals, this is typically achieved by choosing extremely slow speeds or by using regenerative mechanisms. Legged robots have not yet reached the low mechanical cost of transport achieved at speeds used by bipedal and quadrupedal animals. Here we consider approaches Edited by: used to analyze gaits and discuss a framework, termed mechanical cost analysis, that Monica A. Daley, can be used to evaluate the economy of legged systems. -
Biomechanics of Terrestrial Locomotion: Asymmetric Octopedal and Quadrupedal Gaits
SCUOLA DI DOTTORATO IN SCIENZE MORFOLOGICHE, FISIOLOGICHE E DELLO SPORT DIPARTIMENTO DI FISIOLOGIA UMANA DOTTORATO DI RICERCA IN FISIOLOGIA CICLO XXIV Biomechanics of terrestrial locomotion: asymmetric octopedal and quadrupedal gaits SETTORE SCIENTIFICO DISCIPLINARE BIO-09 PhD Student: Dott. Carlo M. Biancardi Matricola: R08161 Tutor: Prof. Alberto E. Minetti Coordinatore: Prof. Paolo Cavallari Anno Accademico 2010-2011 Table of Contents Abstract...................................................................................................... 5 Introduction ...............................................................................................8 Foreword.................................................................................................................. 8 Objectives .................................................................................................................8 Thesis structure........................................................................................................ 8 Terrestrial legged locomotion ..................................................................9 Introduction .............................................................................................................9 Energetics and mechanics of terrestrial legged locomotion ................................10 Limbs mechanics ..........................................................................................................10 Size differences .............................................................................................................14 -
Forelimb Joints Contribute to Locomotor Performance in Reindeer (Rangifer Tarandus) by Maintaining Stability and Storing Energy
Forelimb joints contribute to locomotor performance in reindeer (Rangifer tarandus) by maintaining stability and storing energy Guoyu Li, Rui Zhang, Dianlei Han, Hao Pang, Guolong Yu, Qingqiu Cao, Chen Wang, Lingxi Kong, Wang Chengjin, Wenchao Dong, Tao Li and Jianqiao Li Key Laboratory of Bionic Engineering, Ministry of Education, Jilin University, Changchun, People's Republic of China ABSTRACT Reindeer (Rangifer tarandus) have lengthy seasonal migrations on land and their feet possess excellent locomotor characteristics that can adapt to complex terrains. In this study, the kinematics and vertical ground reaction force (GRF) of reindeer forelimb joints (interphalangeal joint b, metacarpophalangeal joint c, and wrist joint d) under walk, trot 1, and trot 2 were measured using a motion tracking system and Footscan pressure plates. Significant differences among different locomotor activities were observed in the joint angles, but not in changes of the joint angles (αb, αc , αd ) during the stance phase. Peak vertical GRF increased as locomotor speed increased. Net joint moment, power, and work at the forelimb joints were calculated via inverse dynamics. The peak joint moment and net joint power related to the vertical GRF increased as locomotor speed increased. The feet absorbed and generated more energy at the joints. During different locomotor activities, the contribution of work of the forelimbs changed with both gait and speed. In the stance phase, the metacarpophalangeal joint absorbed more energy than the other two joints while trotting and thus performed better in elastic energy storage. The joint angles changed very little (∼5◦) from 0 to 75% of the stance phase, which reflected the stability of reindeer wrist joints.