Muscle Electronic Stimulator Body Equipment

Muscle Electronic Stimulator Body Equipment

Overview Of Muscle Electronic Stimulator Body Equipment

Training kits, support multi-person training at the same time, support group training, and bring more possibilities for Muscle Electronic Stimulator Body Equipment training.

Whether it is one-on-one or one-on-two for private education, or group exercises, you can use it flexibly in the project.

The advantage of full wireless will be a new way of moving EMS+ in combination with various traditional sports.

The Muscle Electronic Stimulator Body Equipment has a superb manufacturing process with high resistance and comfort to accommodate the high-intensity training of any fitness professional.

Quick details Of Muscle Electronic Stimulator Body Equipment

Features: firm skin, reduce fat, remove wrinkles, lose weight, ems muscle stimulation bodybuilding, micro current weight loss machine

Place of Origin: China Guangdong (Mainland)

Brand Name: bodytech

Model: BB906

Uses: Suitable for commercial and home use

Size: XXXS-XXL

Operating System: Android Phone / Ipad

Technology: EMS electrical stimulation of muscles

Functional service of muscle electronic stimulator body equipment

1. Contains 20 high-tech electrodes covering 90% of the human body's muscles;

2, the Muscle Electronic Stimulator Body Equipment suit is made of special material neoprene, with high resistance and comfort to adapt to the high-intensity training of any fitness professional;

3, the vest suit is antibacterial, lightweight and durable, and its electrodes can move freely to the area of interest during training;

4, the functional service size has XS-XL optional;

5, machine washable;

Service Of Muscle Electronic Stimulator Body Equipment

1. We offer a 1-year warranty on our system and a 3-month warranty on our kit. Our factory provides technical support directly, with a skilled technical team and a team of engineers.

3. Our factory provides professional user manuals, free training for machine operation in our factory, and is provided by our professional training department.

4. Custom LOGO, packaging card, change materials, colors, shapes

5. Sample of the offer: Acceptable.

6.ODM: We have some inventory of about 200 pieces, and we can also produce more according to your order.

7. Quality control and inspection:

a) We have experience to control high quality and must be inspected twice per production.

b) Third party inspection: Acceptable.

More EMS Research

EMS evoked force measurements. The individual

level of isometric force developed during EMS was randomly measured using an isokinetic dynamometer once during the first 4 wk of training and once again during the last 4 wk of training with the testing position detailed below (see section on torque measurements). Subjects underwent the standardized warm-up EMS as described previously and then performed two MVC of the knee extensor muscles, separated by 2 min of rest. Subjects then completed the entire EMS training session and the evoked force was stored by means of commercially available software (Tida, Heka Elektronik, Lambrecht/Pfalz, Germany) for further analysis.

The evoked force between the sixth and the 10th contractions were averaged and subsequently divided by the highest MVC obtained before the EMS training session. The force produced by EMS ranged indeed from 47 to 93% of the MVC (mean 68 13%)

Measurements

Torque measurements. Instantaneous isometric

torque at the knee joint was recorded using a Biodex iso?kinetic dynamometer (Shirley, NY). The subjects were placed in a seated posture with the trunk–thigh angle at 90°

1292 Official Journal of the American College of Sports Medicine http://www.acsm-msse.org and the knee flexed at 60° (where 0° corresponds to the full extension of the knee), defined here as the training position.

Each subject was securely strapped to the test chair with two crossover-shoulder harnesses and a belt across the hip joint.

The axis of the dynamometer was aligned with the anatomical knee joint axis, and the lever arm was attached 2–3 cm above the lateral malleolus with straps. To allow biceps femoris EMG recordings, a board (thickness: 3 cm) was placed underneath the subject with a hole where the electrodes were placed so as to avoid any compression between the surface electrodes and wire on the seat. Subjects were asked to cross their arms during the testing procedure.

Gravity correction was performed to account for the weight of the limb.

Electrical stimulation. The femoral nerve was stimulated using a cathode ball electrode (0.5 cm diameter) pressed and maintained by the same experimenter in the femoral triangle, 3–5 cm below the inguinal ligament. The anode was a large electrode (10 5 cm; Medicompex SA,

Ecublens, Switzerland), located in the gluteal fold. Rectangular pulses of 1-ms duration were used, 400-V maximal voltage (Digitimer DS7, Hertfordshire, UK). The individual stimulation intensity was set by progressively increasing the stimulus intensity until there was no further increase in peak twitch torque (i.e., the highest value of the knee extensor twitch torque) nor in concomitant peak-to-peak M-wave amplitudes. This intensity was further increased by 20% (i.e., supramaximal intensity) and then maintained for single and paired stimulations (10-ms interspike interval). Individual supramaximal intensities were between 45 and 100 mA. Experimental procedure. Testing procedure and recordings started with four single pulses each separated by

8 s, and three paired stimuli, each separated by 6 s, during which subjects were asked to relax. Then, subjects were instructed to perform two MVC of the knee extensor muscles. Paired stimuli were also delivered 3 s over the isometric plateau (superimposed doublet) and 3 s after the contraction (potentiated doublet) to assess muscle activationaccording to the twitch interpolation technique . Finally,two MVC of the knee flexor muscles were performed. The total duration of these efforts was approximately 5 s. A third knee extension and/or flexion MVC was performed if more than 5% difference was observed with respect to the highest MVC. A 3-min rest period was allowed between series of stimulations and between MVC to eliminate the effects of fatigue.