Sentences with phrase «muscle electromyography»

Our hypothesis was based on results from previous massage (by a therapist) research that demonstrated increased ROM after massage (2,20,38), and decreased muscle electromyography (3) and spinal motoneuron excitability (17,23,34) during massage.
Similarly, massage can create increases in range of motion, but subsequent detriments in muscle electromyography, strength, and motor neuron excitability have been reported (6,13).
Calatayud et al. (2015) explored trunk muscle electromyography (EMG) amplitude during the clean and jerk in amateur subjects with a 20 kg barbell and with the same load using sandbags or water bags.

Not exact matches

What makes it different is electromyography: electrodes that measure the electrical signals from your forearm muscles to tell, for instance, whether you're making a fist, pointing a finger or giving a thumbs - up.
In addition to the video, InVivo has been collecting motion - analysis data and using electromyography, or EMG, implants to directly monitor activity in the animals» muscles.
The lab designed a prosthesis that uses a technique called electromyography to pick up on electrical signals in the upper arm muscles.
In the case of diagnostic methods such as electrocardiogram (ECG) and electromyography (EMG), gel electrodes are the preferred method of transmitting electric impulses from the heart or muscle.
The study compared results from electromyography assessments of leg and arm muscles to basic physical performance tests such as gait speed, balance and hand - grip strength.
The team is exploring controlling their exoskeleton via patients» electromyography (EMG) signal — which records electrical activity produced by skeletal muscles — so that they'll be more actively involved in their training.
We combine model predictions with empirical measurements of limb kinematics and patterns of muscle activation measured using electromyography.
One study from York University tested this claim with the help of electromyography and found that all three basic variants of dumbbell presses (flat, decline and incline) have the potential to activate more pectoral muscle fibers than their barbell counterparts.
Through electromyography, medicine has discovered that the delts are comprised of a minimum of seven muscle fibers, each controlled separately by your nervous system.
The maximum voluntary isometric contraction (MVIC) has been measured and recorded by placing electromyography electrolytes on each of the muscles — quads, hamstrings, and glutes.
Each exercise was monitored using electromyography equipment to test muscle activation not only in the rectus abdominus and obliques but also in the rectus femoris.
The authors of this study used electromyography to quantify and compare signal amplitude as the gluteus maximus and gluteus medius muscles fired, in order to determine which therapeutic exercises most effectively recruit the glutes.
Owing to their attachment sites and location the calf muscles function primarily to perform plantar - flexion, which can be investigated by both electromyography (EMG) and magnetic resonance imaging (MRI) scans.
This section sets out a summary of the research that has explored the muscle activity of each of the main trunk and lower body muscles during the squat exercise, using electromyography (EMG).
Brandon et al. (2013) assessed the reliability of a novel analysis system for Olympic weightlifting, comprising surface electromyography (EMG) equipment (to measure EMG amplitude within a muscle), synchronised with electrogoniometry (to measure joint angles), and a barbell position transducer (to measure the height of the barbell and thereby its displacement and linear velocity).
EMG (electromyography) tests show that the abdominal muscles fire before the arm muscles or leg muscles during movement.
The purpose of this section is to provide a summary of electromyography (EMG) studies into the biceps muscles.
This section sets out a summary of the research that has explored the muscle activity of each of the main trunk and lower body muscles during the split squat exercise, using electromyography (EMG).
Even so, actual measurement of this signal and the creation of the term «electromyography» was not achieved until 1890, over 200 years after the connection between muscles and electricity was originally identified (Reaz et al. 2006).
This is why biomechanics researchers are often very particular about referring specifically to the «EMG amplitude» rather than the «muscle activity» or «muscle activation» in the context of electromyography.
This section provides a summary of the electromyography (EMG) activity studies into the abdominal muscles.
This section sets out a summary of the research that has explored the muscle activity of each of the main trunk and lower body muscles during the bench press exercise, using electromyography (EMG).
Conventionally, the presence of MAPs in muscles is measured by electromyography (EMG).
This section provides a summary of the studies that have explored the muscle activity of the gluteus medius by electromyography (EMG) during resistance training exercise.
This section details the background to the study of electricity in muscles and explains how electric potential difference within muscles can be measured with electromyography (EMG).
Some data involving surface electromyography (EMG) techniques shows how the three heads of the triceps muscle interact and function together as a unit.
Several studies have compared the muscle activity of the deltoid muscles across a range of resistance exercises using electromyography (EMG).
Muscle activity studies were included where they used surface or fine wire electrodes to record electromyography (EMG).
Needle electromyography was normal, and evaluation of muscle biopsy cryosections using a standard panel of histochemical stains and reactions did not reveal a reason for collapse in 10 dogs with BCC in which these tests were performed.
Users will be fitted with electromyography (EMG) equipment to measure muscle forces, and cyber-gloves to measure kinematic features produced while users interact with multitouch systems.
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