Join the 2026 NSCA Training Prescriptions for Overhead Athletes Summit in San Diego on March 28. Learn advanced biomechanics, train hands-on, and earn 0.8 CEUs.

RED-S and low energy availability often stay silent — until something happens. Your athletes and clients may be unintentionally underfueling at any training level or body size. Carolyn Stocker, MS, RD, LD, CSCS, brings practical myth-busting to common fears around fueling. Spot signs sooner, understand what’s driving them, and help athletes fuel with confidence.

Take advantage of the NSCA's library of career insights and tips from leaders in the field.

For many athletes, being agile is the end goal of physical performance training. It represents their capacity to change velocity and direction in response to the actions of their opponent and the opportunities and constraints of their environment. The aim of this article was to describe the pitch-based development of agility, focusing on 60–1808 turns. This ensures all turns have the demand of deceleration, turning, and reacceleration, requiring both outside leg turns (608) and inside leg turns (1808). To enable the effective coaching of these, coaches must understand movement mechanics and thus the fundamental principles that underpin good technique. Within agility training, a detailed appreciation of how the center of mass and base of support interact to affect the direction of force is fundamental to this. This understanding and the ensuing technical models ensure athletes have the best chance of executing the task optimally and ensure coaches can effectively instruct athletes and adapt drills accordingly.

Dr. Whitney Moore and Val Smith from Wayne State University use this session, from the 2019 NSCA National Conference, to provide evidence-based motivational strategies and leadership behaviors, strength coach tested relationship-building strategies, and explain different levels of informal leadership training opportunities

This continuing education opportunity explores a variety of topics as they pertain to common racquet sports - badminton, racquetball, squash, and tennis. To earn your CEUs, it will be necessary to review 5 articles from the NSCA Strength & Conditioning Journal and pass a 50-question quiz. Please note: this quiz awards 1.0 CEU (10 contact hours). Articles include: 1) Agility Training for Experienced Athletes, A Dynamical Systems Approach 2) Review of the Badminton Lunge and Specific Training Considerations 3) Strength and Conditioning Considerations for Racquetball Athletes 4) Physical Preparation for Elite Level Squash Players, Monitoring, Assessment, and Training Practices for the Strength and Conditioning Coach 5) New Approaches for On-court Endurance Testing and Conditioning in Competitive Tennis Players

An anterior cruciate ligament (ACL) tear is one of the most frequent injuries experienced by athletes of all levels. Because so many variables are at play, there is a great deal of controversy about how and why this occurs. In addition, there are various suggested appropriate steps to take to return to sport in the fastest and safest possible way. However, a major issue in injury recovery and return to sport practices is the lack of a gold-standard method or a consistent course of action that an athlete should undertake after suffering an ACL injury. Therefore, the purpose of this paper is to review the literature to determine evidence-based methods for return to sport after ACL reconstruction and provide practical recommendations to guide the process.

Typically, a coach may follow a process in which they first identify the key performance indicators of their sport, determine the physical attributes that map back to them, and then distribute the development of those capacities over the allocated timeframe. Furthermore, effective training plans are based on a theoretical or biological basis for how we move and adapt to exercise stimuli, coupled with an understanding of how these are best sequenced, such that one stimulus and subsequent adaptation can potentiate the next. Thus, reverse or backward engineering, when appropriately converged with the plans of those devised around nutrition, conditioning, technical, and tactical training, for example, likely gives athletes the best chance of attaining their performance goals. The aim of this article is to describe the application of reverse engineering, exampling it within the context of developing an athlete who can demonstrate a high level of agility.