- ICH GCP
- Registro degli studi clinici negli Stati Uniti
- Sperimentazione clinica NCT07641621
Squat Jump Performance and Chiropractic Ankle Manipulation
The Effects of Chiropractic Ankle Manipulation on Athletic Performance of College-Aged Recreational Athletes: Randomized Controlled Trial
The goal of this clinical trial is to learn if chiropractic ankle manipulation can improve squat jump performance. It will also learn about the relationship among chiropractic ankle manipulation, ankle range of motion, and squat jump performance. The main questions it aims to answer are:
- Does chiropractic ankle manipulation increase squat jump height?
- Is there a relationship among chiropractic ankle manipulation, ankle range of motion, and squat jump performance?
Researchers will compare squat jump performance between subjects who receive chiropractic ankle manipulations with control subjects to see if ankle chiropractic manipulation works to improve squat jump performance.
Participants will:
- Visit the research laboratory for one testing session to measure ankle range of motion and squat jump performance, before and after their randomly assigned intervention arm
- Receive either a chiropractic ankle manipulations or rest quietly as the control condition during the testing session.
Panoramica dello studio
Stato
Condizioni
Intervento / Trattamento
Tipo di studio
Iscrizione (Stimato)
Fase
- Non applicabile
Contatti e Sedi
Contatto studio
- Nome: Jeanmarie R Burke, PhD
- Numero di telefono: 315 568-3869
- Email: jburke@northeastcollege.edu
Luoghi di studio
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New York
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Seneca Falls, New York, Stati Uniti, 13148
- Reclutamento
- Biomechanics Laboratory at Northeast College of Health Sciences
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Contatto:
- Jeanmarie R Burke, PhD
- Email: jburke@northeastcollege.edu
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Criteri di partecipazione
Criteri di ammissibilità
Età idonea allo studio
- Adulto
Accetta volontari sani
Descrizione
Inclusion Criteria
- age range from 18 to 35 years old; and
- participating in recreational exercise, three times a week for at least 30 minutes. Recreational exercise includes ball sports (e.g. soccer, basketball, volleyball, etc.), racket sports (e.g. tennis, pickle ball, racket ball, etc.), strength/combat sports (e.g. weight lifting, boxing, martial arts, kickboxing, etc.), endurance sports (running, cycling, rock climbing, etc.), snow/ice sports (downhill or cross-county skiing, snow shoeing, hockey, etc.), interval training (e.g., high-intensity interval training), sprint interval training, repeated sprint training etc.) or moderate-intensity aerobic activities (step classes, dance classes, hiking, etc.)
Exclusion Criteria
- professional or amateur ranked athlete;
- participation in water sports (swimming, water aerobics, kayaking, water skiing, etc.) to meet the recreational exercise inclusion criteria
- acute or chronic musculoskeletal injury / condition of the feet, ankles, knees, and/or hips;
- acute or chronic musculoskeletal injury / condition of the spine;
- pregnancy or there is a possibility of pregnancy.
- any diagnosed medical condition; and
- any prescribed medications with the exceptions of birth control, anxiety, or attention-deficit/hyperactivity disorder (ADHD) medications.
Piano di studio
Come è strutturato lo studio?
Dettagli di progettazione
- Scopo principale: Trattamento
- Assegnazione: Randomizzato
- Modello interventistico: Assegnazione parallela
- Mascheramento: Doppio
Armi e interventi
Gruppo di partecipanti / Arm |
Intervento / Trattamento |
|---|---|
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Sperimentale: Chiropractic Ankle Manipulation
LEM - Lower Extremity Manipulation: Subjects assigned to the LEM Intervention Group will receive a short lever, high velocity, low-amplitude distractive (caudal) thrust directed at the talocrural joint. The treating chiropractor will deliver the LEM to the right ankle then the left ankle. LEM is an adjustment for long axis distraction of the tibiotalar joint with the goal to improve dorsiflexion of the ankle joint. |
The lower extremity manipulation (LEM) procedure is a short lever, high velocity, low-amplitude distractive (caudal) thrust directed at the talocrural joint.
The treating chiropractor will deliver the LEM to the right ankle then the left ankle.
LEM is an adjustment for long axis distraction of the tibiotalar joint with the goal to improve dorsiflexion of the ankle joint.
Altri nomi:
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Nessun intervento: Control
Subjects assigned to the Control Group will rest quietly, supine (face up), on the chiropractic treatment table for five (5) minutes.
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Cosa sta misurando lo studio?
Misure di risultato primarie
Misura del risultato |
Misura Descrizione |
Lasso di tempo |
|---|---|---|
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Squat Jump Height
Lasso di tempo: Baseline on Day 1 to Immediately after Intervention on Day 1
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Subjects will be instructed to jump upwards from the starting squat position as high as possible. Subjects will perform 3 to 6 jumps with 3 consecutive jump heights being within 5% of each other to ensure maximum jump height is achieved. There will be a one-minute rest between jumps.
The Optojump photoelectric cell system (OptoJump) will be used to record jump height. OptoJump demonstrates strong concurrent validity and excellent test-retest reliability for the estimation of vertical jump height |
Baseline on Day 1 to Immediately after Intervention on Day 1
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Range of Motion of Ankle Dorsiflexion
Lasso di tempo: Baseline on Day 1 to Immediately after Treatment on Day 1 and at End of Test Session on Day 1
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Knee-to-wall ankle dorsiflexion test:
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Baseline on Day 1 to Immediately after Treatment on Day 1 and at End of Test Session on Day 1
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Misure di risultato secondarie
Misura del risultato |
Misura Descrizione |
Lasso di tempo |
|---|---|---|
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Leg Muscle Power (W/Kg)
Lasso di tempo: Baseline on Day 1 to Immediately after Intervention on Day 1
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Squat Jump Muscle Parameter: The Optojump will calculate an estimate of leg muscle power (W/Kg).
The reliability and concurrent validity of OptoJump to measure jump height suggests that the evidence-base biomechanical formula to calculate the estimate of leg muscle power by OptoJump is reliable with face validity.
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Baseline on Day 1 to Immediately after Intervention on Day 1
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Contraction Velocity of Leg Muscles (mm/s), Force-Velocity Curve
Lasso di tempo: Baseline on Day 1 to Immediately after Intervention on Day 1
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Squat Jump Muscle Parameter: The Gyko inertial sensor system (Gyko) will measure the velocity of the jump to calculate an estimate of the contraction velocity of leg muscles, force-velocity curve. The reliability and concurrent validity of Gyko to measure jump height and in-turn estimate muscle function parameters is limited in the literature. The control group in the current study will allow us to address concurrent validity and reliability of Gyko to measure jump height. Jump height measured by Optojump is the gold-standard field base device. Comparison of Gyko to Optojump measurements of jump heights will determine concurrent validity of Gyko to estimate jump height. The use of evidence-base biomechanical formulas to calculate an estimate of contraction velocity of leg muscles during SQJ's depends on recording reliable and valid measurements of jump heights; and in turn, establish the reliability and face validity of Gyko to estimate muscle function parameters. |
Baseline on Day 1 to Immediately after Intervention on Day 1
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Rate of Force Development of Leg Muscles (N/s), Slope of the Force - Velocity Curve
Lasso di tempo: Baseline on Day 1 to Immediately after Intervention on Day 1
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Squat Jump Muscle Parameter: The Gyko inertial sensor system (Gyko) will measure the velocity of the jump to calculate an estimate of the rate of force development of leg muscles, slope of the force - velocity curve The reliability and concurrent validity of Gyko to measure jump height and in-turn estimate muscle function parameters is limited in the literature.
The control group in the current study will allow us to address concurrent validity and reliability of Gyko to measure jump height.
Jump height measured by Optojump is the gold-standard field base device.
Comparison of Gyko to Optojump measurements of jump heights will determine concurrent validity of Gyko to estimate jump height.
The use of evidence-base biomechanical formulas to calculate an estimate of the rate of force development of leg muscles during SQJ's depends on recording reliable and valid measurements of jump heights; and in turn, establish the reliability and face validity of Gyko to estimate muscle function.
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Baseline on Day 1 to Immediately after Intervention on Day 1
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Collaboratori e investigatori
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Studia le date principali
Inizio studio (Stimato)
Completamento primario (Stimato)
Completamento dello studio (Stimato)
Date di iscrizione allo studio
Primo inviato
Primo inviato che soddisfa i criteri di controllo qualità
Primo Inserito (Effettivo)
Aggiornamenti dei record di studio
Ultimo aggiornamento pubblicato (Effettivo)
Ultimo aggiornamento inviato che soddisfa i criteri QC
Ultimo verificato
Maggiori informazioni
Termini relativi a questo studio
Parole chiave
Altri numeri di identificazione dello studio
- 26-02
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