🚨Energy drinks and youth athletes🚨 Children, teens, and young athletes avoid energy drinks, citing potential health risks and the lack of performance benefits. Caffeine Overload -Many energy drinks contain high levels of caffeine (often 200-300 mg per can) -Increase heart rate and blood pressure -Cause jitteriness, anxiety, or poor sleep -Hurt focus and recovery **Using an energy drink for fuel is like rearranging furniture on a sinking ship No Substitution for Nutrition No energy drink can replace proper fueling, hydration, or sleep. Athletes need real food, hydration, and balanced meals to perform and recover optimally. Hidden Ingredients Energy drinks often contain herbal stimulants (like guarana, yohimbine, or ginseng), sugar alcohols, and other ingredients that cause GI distress. Better Alternatives -Water electrolytes -Coconut H20 or cherry juice for fuel -Chocolate milk post-workout -Coffee in moderation (for older athletes) -Carbohydrate-rich snacks for energy Fuel with food first. Energy drinks are a shortcut with a cost—especially for developing athletes. nutritionwithwendi.com/blog/…

The @Titans are going to need to do a whole lot more than reduce seed oils to get their players feeling and performing better! The biggest wins usually come from tightening the system around fueling and recovery rather than focusing on one ingredient.🤷‍♀️ Reducing seed oils might feel like a “big” step, but the current data doesn’t support it being a major driver of inflammation or performance issues in athletes. Multiple meta-analyses and RCTs show higher linoleic acid (the main fat in seed oils) is either neutral or even linked to lower inflammation markers…not higher. The real game-changers for NFL players are still the basics that many pros overlook: 🥔 Carbohydrate timing & periodization: More carbs around high-load practices and games, less on lighter days, with strategic pre/intra/post fueling for glycogen replenishment. 🥩 Protein distribution: Hitting 40g high-quality protein every 3–4 hours, plus pre-sleep protein to support overnight muscle repair. 💦 Hydration electrolytes: Individualized sweat testing and sodium replacement protocols (a major performance separator in football). 🐛 Gut health & travel nutrition: More fiber and fermented foods when appropriate, but simplified, consistent meals on travel days to avoid GI stress. 🐠 Omega-3 anti-inflammatory foods Fatty fish, berries, leafy greens, and tart cherry to support recovery and reduce soreness. 💤 Sleep-support nutrition: Evening carbs protein, magnesium-rich foods, and smart caffeine cutoff strategies. 🍒 Post-practice recovery window: Quick carbs protein within 30–60 minutes after high-intensity sessions. ✅ Standardized “performance convenience foods” at the facility and on the road for consistent high-quality options. Many of these guys still drink alcohol and eat fast food regularly. Inconsistent fueling & under-eating on high-volume days, poor hydration/electrolyte strategies, and inadequate recovery nutrition create much larger gaps in energy, soreness, and performance than the type of cooking oil used. Less about eliminating one thing and more about building a consistent fueling recovery system that matches the brutal demands of an NFL season. That’s where the biggest, evidence-based wins come from. 💪

QB Development starts with telling them what they need to know, explaining the WHY behind every detail & making sure they have the knowledge to do both of those things on their own!!! Too many QBs want to wait for someone else to tell them whether or not they did something wrong & what it was… the greats ones know before anyone has to tell them!! This is a HUGE difference!!

I am glad this type of work is finally coming out. For too long, hex bar jump squats have been treated as a simple replacement for Olympic lift derivatives. I do not think that is accurate. I am not saying hex bar jumps are bad. I am saying we should understand what they are. Remmert et al. showed that, even when the exercise volume is held consistent, changing the load changes the output. Total body peak power was highest around 10 percent of estimated hex bar deadlift 1RM and was not significantly different from unloaded, 20 percent, or 30 percent. Once load increased beyond that range, total body power began to drop. The paper also showed that as load increased, hip and knee power decreased, ankle power increased up to a point, and joint moments increased. In other words, adding load changed the task itself. That matters because hex bar jumps appear to carry more of a squat jump or loaded jump profile than a true weightlifting derivative profile. Olympic lift derivatives have different mechanics, different technical demands, and often allow high power expression at relatively higher percentages of 1RM. A hex bar jump is not automatically the same stimulus just because it is explosive and loaded. The takeaway is simple: hex bar jumps are useful, but they are not interchangeable with weightlifting derivatives. They belong in the toolbox, but they need to be programmed for what they actually provide, not what we assume they replace.

Injury risk is rarely the result of one isolated factor. Bittencourt et al. challenged the traditional approach of reducing injury prediction down to individual risk factors and argued that sports injuries are better understood as complex, emergent phenomena. In their words, the multifactorial nature of sports injuries comes not from “the linear interaction between isolated and predictive factors,” but from the interaction among a “web of determinants.” That web may include biomechanical, physiological, psychological, behavioral, training, technical, and contextual factors. This is helpful because it changes how we interpret risk. A strength deficit, range of motion limitation, fatigue state, poor tissue capacity, technical fault, psychological hesitation, prior injury history, or spike in workload may not fully explain injury risk by itself. But each can influence the system’s ability to tolerate, dissipate, adapt to, or recover from load. Said another way, these factors often have one thing in common: they can reduce tolerance to load when they interact with the right context, exposure, and timing. That is why the authors argue we need to move from simply identifying risk factors to recognizing risk patterns. For return to performance, this matters. We are not just clearing a tissue, a test, or a number. We are trying to understand whether the athlete, operator, or crew member can repeatedly express readiness under the actual demands of the environment they are returning to.

Life isn’t fair. And teaching children otherwise sets them up to fail. Some people will always have more. Some will always have less. The question is: Do you teach children to chase their potential or their excuses?