Suchergebnisse - Chest

Pirlot, T., Mihailovic, T., Gimenez, P., Millet, G. P., Brocherie, F., Fruchart, E., Ravier, G., Baron, B., Bouzigon, R., Guirronnet, S., Brunet, E., Groslamber, A. “… Questionnaires of psychological stress and sleep disturbance, sleep architecture (determined through an electroencephalography sleep headband), and HRV (measured at rest with a chest strap) were recorded during the 3 periods.  …”

Barría-Miranda, F., Azócar-Gallardo, J., Ñancupil-Andrade, L., Ñancupil-Andrade, A., Garcia-Carrillo, E., Campos-Uribe, V., Cresp-Barria, M. “… HRV was recorded daily using a Polar H10 chest strap over three months, both with and without the MC.  …”

Shu, Y., Cheng, Y. “… Additionally, significant changes in morphology were observed, particularly in chest circumference (101cm to 107cm) and weight (84kg to 93kg). (2) Increases in strength, core stability, agility, and power output led to significant improvements in Vertical Jump and Y-Balance Tests. (3) Specific-swimming performance showed significant enhancements, including a 7.1% increase in stroke rate in the 100m event and a 3.8% increase in stroke length in the 200m event during the Fukuoka Championships.  …”

Jacko, T., Bartsch, J., von Diecken, C., Ueberschär, O. “… The optical heart rate measurement function of each smartwatch was compared to that of a chest strap. Thirty participants (15 females, 15 males) ran five 3 min intervals on a motorised treadmill to evaluate the accuracy of the heart rate measurements.  …”

Greco, G., Innocenti, L., Massaroni, C., Nicolò, A. “… Among these, strain sensors measuring respiratory-induced chest movements are particularly suitable for exercise monitoring as they can be embedded into straps or clothes commonly worn by athletes during training and competitions.  …”

Blocken, B., Malizia, F., van Druenen, T. “… In the past but especially more recently, some cyclists in triathlon and road cycling competitions have been riding with an object stuck between their chest and their shirt, attempting to reduce aerodynamic drag.  …”

Elrakhawy, M. I. I. “… A 6-week power training program was applied 3 times a week, results show significant differences between pre and post-measurements in stroke length (t=3.64) and stroke rate (t=7.00) in group A, 1RM squat (t=3.60), vertical jump (t=4.96), stroke length (t=6.76) and 50-meter freestyle (t=32.91) in group B, and non-significant differences in 1RM bench press (t=2.33), 1RM squat (t=2.22), chest MD ball throw (t=2.35), vertical jump (t=2.18), and 50-meter freestyle (t=1.93) in group (A),1RM bench press (t=2.61), chest MD ball throw (t=2.08) and stroke rate (t=1.40) in group (B) for post-measurements.  …”

Törpel, A., Schneider, C., Göbe, L. M., Caldwell, A. R., Ferrauti, A. “… This sensor may overcome the practical limitations of chest straps due to the measurement on the head (temple).  …”

Redi, E. V. “… The following methods were used in the work: analysis of pedagogical and scientific-methodical literature, methods for assessing anthropometric indicators (measurement of body length, measurement of body weight, measurement of chest circumference, measurement of hand strength, calculation of weight-height index, calculation of life index), methods for assessing morphofunctional indicators (heart rate, systolic blood pressure).  …”

Ishiguro, A., Amano, T. “… No difference in core body temperature was recorded between the exercise types (P = 0.227), but skin temperature was lower in table tennis than in cycling in both intensities (both P = 0.034). Chest sweat rate was slightly greater in table tennis than in cycling at moderate intensity (P = 0.060).  …”

Goebe, L. M., Schneider, C., Toerpel, A., Ferrauti, A. “… In swimming, the standard method of ECG-based HR recording is error-prone, as chest straps may slip during swimming and wall push-offs, especially when no swim suit is worn.  …”

Engel, A. “… The chest-leg stroke: designs and requirements …”

Cupido Santos, A., Afonso, J., Gaspar, A. R., Da Silva, M. G. “… Urine temperature and density, body mass, heart rate variability before and after effort were controlled (Polar V800+H10 chest band). In addition, heart rate and lactate concentration (spectrophotometer Dr.  …”

Soma, M., Kashiwagi, Y., Funato, K. “… The points (P) are calculated from the swim time (T) and the base time (B) in seconds using the following formula: P = 1000 * (B / T) 3 The results obtained were as follows: (1) The data on 3-D human body shape obtained using the BLS and BODPOD revealed that in comparison nonathletes, the swimmers had a significantly higher body weight, BMI, lean body mass and chest (p<0.001), and a significantly smaller abdominal circumference/chest circumference ratio. (2) When normalized to body height, swimmers had larger chest, abdominal and latissimus dorsi muscles. (3) The FINA points score was associated with body shape.  …”

Cosoli, G., Antognoli, L., Veroli, V., Scalise, L. “… This paper aims to evaluate the performances in heart rate assessment, in terms of accuracy and precision, of both wrist-worn and chest-strap commercial devices used during swimming activity, considering a test population of 10 expert swimmers.  …”

Apte, S., Laroche, N., Gremeaux, V., Aminian, K. “… Our objective was to investigate the effects of acute fatigue on stability and smoothness of trunk motion during a half marathon. 13 recreational runners were fitted with a GNSS-IMU sensor on their chest. Every 10 minutes of the race, the participant pronounced their perceived fatigue, recorded by a smartphone attached to the arm.  …”

Budig, M., Keiner, M., Stoohs, R., Hoffmeister, M., Höltke, V. “… Heart rate was recorded via a Polar H10 chest strap and distance was controlled via a map, 400 m stadium or 50 m pool.  …”

Fontanari, P., Tartaruga, P., Caron, O. “… METHODS: This study investigated the validity of differentiated ratings of perceived exertion (dRPE) recorded from the chest (RPE-chest) and legs (RPE-legs) during aquatic cycling and aimed to determine a simple and accurate estimate of dRPE to regulate aquabiking.  …”

Papic, C., Andersen, J., Naemi, R., Hodierne, R., Sanders, R. H. “… Maximum rate of change in cross-sectional area and form gradient progressing caudally, were calculated for torso segments: shoulder-chest, chest-waist, waist-hip. Mean velocity, glide factor and glide coefficient values significantly (p<0.001) improved due to the intervention, with large effect size (d) changes 0.880 (p=0.015), 2.297 and 1.605, respectively.  …”

Tanaka, T., Sato, T., Hashizume, S., Shiozawa, N., Isaka, T. “… The horizontal velocity was significantly correlate with the angular velocity of lower waist and of chest, but not with the corresponding value of upper waist.  …”