All study participants underwent an incremental exercise bike test to measure maximum aerobic capacity as well as the muscle activation rate in the vastus lateralis by using an electromyography method (EMG).  Results: With age, the EMG signal dropped, as did the electromyography fatigue threshold (EMGFT) point, as seen through p = 0.0057, r = -0.49, CI95% = -0.73 to -0.16, and electromyography maximum reached point (EMGMRP) (p = 0.0001, r = -0.64, CI95% = -0.82 to -0.36), whereas power output increased (p = 0.0186, r = 0.427).  The higher the power output, the lower the signal seen by measuring active tissue EMGFT (p = 0.0324, r = -0.39) and EMGMRP (p = 0.0272, r = -0.40).  Conclusions: There has been reported a relationship between aerobic/anaerobic ventilatory thresholds (VT1 and VT2) and EMGFT, EMGMRP, respectively.  Each change in oxygen uptake increased the power output in EMGFT and EMGMRP, improving performances and therefore overlapping with both ventilatory thresholds.
EMG
All study participants underwent an incremental exercise bike test to measure maximum aerobic capacity as well as the muscle activation rate in the vastus lateralis by using an electromyography method (EMG).  Results: With age, the EMG signal dropped, as did the electromyography fatigue threshold (EMGFT) point, as seen through p = 0.0057, r = -0.49, CI95% = -0.73 to -0.16, and electromyography maximum reached point (EMGMRP) (p = 0.0001, r = -0.64, CI95% = -0.82 to -0.36), whereas power output increased (p = 0.0186, r = 0.427).  The higher the power output, the lower the signal seen by measuring active tissue EMGFT (p = 0.0324, r = -0.39) and EMGMRP (p = 0.0272, r = -0.40).  Conclusions: There has been reported a relationship between aerobic/anaerobic ventilatory thresholds (VT1 and VT2) and EMGFT, EMGMRP, respectively.  Each change in oxygen uptake increased the power output in EMGFT and EMGMRP, improving performances and therefore overlapping with both ventilatory thresholds.
EMG
All study participants underwent an incremental exercise bike test to measure maximum aerobic capacity as well as the muscle activation rate in the vastus lateralis by using an electromyography method (EMG).  Results: With age, the EMG signal dropped, as did the electromyography fatigue threshold (EMGFT) point, as seen through p = 0.0057, r = -0.49, CI95% = -0.73 to -0.16, and electromyography maximum reached point (EMGMRP) (p = 0.0001, r = -0.64, CI95% = -0.82 to -0.36), whereas power output increased (p = 0.0186, r = 0.427).  The higher the power output, the lower the signal seen by measuring active tissue EMGFT (p = 0.0324, r = -0.39) and EMGMRP (p = 0.0272, r = -0.40).  Conclusions: There has been reported a relationship between aerobic/anaerobic ventilatory thresholds (VT1 and VT2) and EMGFT, EMGMRP, respectively.  Each change in oxygen uptake increased the power output in EMGFT and EMGMRP, improving performances and therefore overlapping with both ventilatory thresholds.
EMG
All study participants underwent an incremental exercise bike test to measure maximum aerobic capacity as well as the muscle activation rate in the vastus lateralis by using an electromyography method (EMG).  Results: With age, the EMG signal dropped, as did the electromyography fatigue threshold (EMGFT) point, as seen through p = 0.0057, r = -0.49, CI95% = -0.73 to -0.16, and electromyography maximum reached point (EMGMRP) (p = 0.0001, r = -0.64, CI95% = -0.82 to -0.36), whereas power output increased (p = 0.0186, r = 0.427).  The higher the power output, the lower the signal seen by measuring active tissue EMGFT (p = 0.0324, r = -0.39) and EMGMRP (p = 0.0272, r = -0.40).  Conclusions: There has been reported a relationship between aerobic/anaerobic ventilatory thresholds (VT1 and VT2) and EMGFT, EMGMRP, respectively.  Each change in oxygen uptake increased the power output in EMGFT and EMGMRP, improving performances and therefore overlapping with both ventilatory thresholds.
EMG
All study participants underwent an incremental exercise bike test to measure maximum aerobic capacity as well as the muscle activation rate in the vastus lateralis by using an electromyography method (EMG).  Results: With age, the EMG signal dropped, as did the electromyography fatigue threshold (EMGFT) point, as seen through p = 0.0057, r = -0.49, CI95% = -0.73 to -0.16, and electromyography maximum reached point (EMGMRP) (p = 0.0001, r = -0.64, CI95% = -0.82 to -0.36), whereas power output increased (p = 0.0186, r = 0.427).  The higher the power output, the lower the signal seen by measuring active tissue EMGFT (p = 0.0324, r = -0.39) and EMGMRP (p = 0.0272, r = -0.40).  Conclusions: There has been reported a relationship between aerobic/anaerobic ventilatory thresholds (VT1 and VT2) and EMGFT, EMGMRP, respectively.  Each change in oxygen uptake increased the power output in EMGFT and EMGMRP, improving performances and therefore overlapping with both ventilatory thresholds.
EMG
All study participants underwent an incremental exercise bike test to measure maximum aerobic capacity as well as the muscle activation rate in the vastus lateralis by using an electromyography method (EMG).  Results: With age, the EMG signal dropped, as did the electromyography fatigue threshold (EMGFT) point, as seen through p = 0.0057, r = -0.49, CI95% = -0.73 to -0.16, and electromyography maximum reached point (EMGMRP) (p = 0.0001, r = -0.64, CI95% = -0.82 to -0.36), whereas power output increased (p = 0.0186, r = 0.427).  The higher the power output, the lower the signal seen by measuring active tissue EMGFT (p = 0.0324, r = -0.39) and EMGMRP (p = 0.0272, r = -0.40).  Conclusions: There has been reported a relationship between aerobic/anaerobic ventilatory thresholds (VT1 and VT2) and EMGFT, EMGMRP, respectively.  Each change in oxygen uptake increased the power output in EMGFT and EMGMRP, improving performances and therefore overlapping with both ventilatory thresholds.
EMG