Objectives: During congested fixture periods in team sports, limited recovery time and increased travel hinder the implementation of many recovery strategies; thus alternative methods are required. We examined the impact of a neuromuscular electrical stimulation device on 24-h recovery from an intensive training session in professional players. Design: Twenty-eight professional rugby and football academy players completed this randomised and counter-balanced study, on 2 occasions, separated by 7 days. Methods: After baseline perceived soreness, blood (lactate and creatine kinase) and saliva (testosterone and cortisol) samples were collected, players completed a standardised warm-up and baseline countermovement jumps (jump height). Players then completed 60. m. ×. 50. m maximal sprints, with 5. min recovery between efforts. After completing the sprint session, players wore a neuromuscular electrical stimulation device or remained in normal attire (CON) for 8. h. All measures were repeated immediately, 2 and 24-h post-sprint. Results: Player jump height was reduced from baseline at all time points under both conditions; however, at 24-h neuromuscular electrical stimulation was significantly more recovered (mean. ±. SD; neuromuscular electrical stimulation -3.2. ±. 3.2 vs. CON -7.2. ±. 3.7%; P<. 0.001). Creatine kinase concentrations increased at all time points under both conditions, but at 24-h was lower under neuromuscular electrical stimulation (. P<. 0.001). At 24-h, perceived soreness was significantly lower under neuromuscular electrical stimulation, when compared to CON (. P=. 0.02). There was no effect of condition on blood lactate, or saliva testosterone and cortisol responses (. P>. 0.05). Conclusions: Neuromuscular electrical stimulation improves recovery from intensive training in professional team sports players. This strategy offers an easily applied recovery strategy which may have particular application during sleep and travel.