Magnesium is an essential mineral for muscle function, sleep, recovery, energy, and heart health. But not all magnesium supplements are created equal—knowing the differences can make a real impact on your fitness results and overall wellness.

Comparing Popular Types of Magnesium
​Below is a comprehensive table summarising the most common forms, their quality, bioavailability, typical dosage, and the benefits of each:

How Much Magnesium Do You Need?
​The recommended safe upper limits for magnesium intake from supplements are:

Boosting Magnesium Naturally
​Don’t forget, magnesium can be found in whole foods like leafy greens, nuts, seeds, avocados, and whole grains. A balanced diet plus the right supplement for your needs is the best recipe for optimal energy, muscle function, and recovery.

​Conclusion
​Choosing the right magnesium supplement is all about quality and targeted benefits. Avoid the cheap, poorly absorbed types and opt for high-bioavailability forms like glycinate or citrate to support your fitness, sleep, and cognition.

References:

1. Nature Made. "7 Types of Magnesium: Benefits & Dosage." (2022-10-13).
   https://www.naturemade.com/blogs/health-articles/7-types-of-magnesium-their-benefits
   
2. Dr. Berg. "Best Types of Magnesium – Uses, Benefits, and Risks." (2025-08-20).
   https://www.drberg.com/blog/the-best-and-worse-types-of-magnesium
   
3. Healthline. "Magnesium Dosage: How Much Should You Take per Day?" (2019-10-27).
   https://www.healthline.com/nutrition/magnesium-dosage
   
4. Vitable. "10 Different Types of Magnesium and Where to Source It." (2025-04-29).
   https://vitable.com.au/blogs/articles/10-types-of-magnesium-supplements
   
5. Swisse. "Different Types Of Magnesium." (2025-07-13).
   https://swisse.com.au/wellness-hub/different-types-of-magnesium
   
6. Dr. Stanfield. "What Are the Best and Worst Forms of Magnesium to Take?" (2024-11-30).
   https://drstanfield.com/en-au/blogs/articles/best-worst-forms-magnesium
   
7. Medical News Today. "Benefits and Uses of Different Types of Magnesium." (2025-08-05).
   https://www.medicalnewstoday.com/articles/types-of-magnesium
   
8. Mayo Clinic Press. "Types of Magnesium Supplements: Best Use and Benefits for Your Health." (2025-07-31).
   https://mcpress.mayoclinic.org/nutrition-fitness/types-of-magnesium-supplements-best-use-and-benefits-for-your-health/
   

Have you ever finished an intense training session and wondered why sometimes you bounce back the next day, while other times your muscles still feel flat? The answer lies in how — and when — you refuel with carbohydrates after exercise. Understanding the science behind muscle and liver glycogen restoration not only optimises your recovery but can also improve your athletic performance in future sessions.

The Science: What Happens to Glycogen During Exercise?
Muscle and liver glycogen act as your body’s primary fuel during strenuous or prolonged physical activity. When you work out hard, especially at a high intensity or volume, your muscles tap into these glycogen stores to keep you going. The greater the effort, the more rapidly these reserves are depleted.

Muscle glycogen is particularly important for high-performance and repeated sessions, while liver glycogen helps maintain blood glucose — essential for the brain and overall energy.
How Fast Do Glycogen Stores Recover?Restoring glycogen after a workout is not as immediate as most people think — and the rates differ between liver and muscle:

• Liver glycogen can be restored within about 6 hours, provided you eat enough carbohydrates soon after exercise.
• Muscle glycogen takes much longer, generally up to 24 hours for full recovery, assuming you consume an optimal, carb-rich diet during that period.

If you train multiple times a day or have less than 24 hours between sessions, these recovery timelines become crucial.

Why Does Glycogen Restoration Matter?
Inadequate glycogen replenishment can lead to reduced power, sluggish performance, and even impaired recovery — meaning you don’t get the full benefit from your next workout. Glycogen depletion is also closely linked to fatigue and can impair muscle function if not addressed promptly.

How Much Carbohydrate Should You Eat Post-Training?
The research is clear: consuming 1.0–1.2g of carbohydrate per kilogram body weight per hour for the first few hours post-exercise can significantly enhance glycogen resynthesis. For most people, this means prioritising high-carb meals and snacks immediately and up to four hours after finishing their session, then continuing regular carbohydrate-rich eating across the next 24 hours for full muscle replenishment.

Key Practical Steps

• Start refuelling with carbs as soon as possible after your session.
• Split your intake over several feedings rather than relying on a single large meal.
• Those training again within 8 hours need to be even more disciplined with carb timing and overall intake.
• Adding a moderate amount of protein (around 0.3–0.4g/kg) can further aid overall recovery, particularly if your carb intake is sub-optimal.

Does the Type or Timing of Carbohydrate Matter Most? During the immediate post-exercise window (first 0–4 hours), higher-GI (glycaemic index) carbohydrates or rapidly digestible sources (like maltodextrin, white rice, or bananas) help spike blood glucose and insulin to drive faster muscle glycogen restoration.

However, over a full 24-hour recovery period, the total amount of carbohydrate consumed outweighs whether it comes from simple or complex sources. Consistency is king: what matters most is getting enough carbs overall, rather than obsessing over the precise form.

The Big Picture: Real-World ApplicationMany athletes and regular gym-goers fall short by underestimating their carbohydrate needs or delaying their first post-workout meal. If training intensity or frequency is high, this becomes a serious bottleneck in recovery and adaptation.
Pro tip: Even if your goal is body composition or weight management, adequate refuelling is essential for muscle maintenance and progress.

Wrapping Up:
Carbohydrate timing and total intake are powerful but often overlooked levers for recovery and performance. By prioritising rapid and sufficient carbohydrate intake after strenuous exercise, you set your body up for faster muscle repair, better energy, and stronger sessions ahead.
For the science-minded, here’s a selection of references:

• Fundamentals of glycogen metabolism for coaches and athletes (PMC)
• Post-exercise muscle glycogen resynthesis in humans (ACU Research Bank)​

Recent research in exercise science has uncovered a surprisingly powerful factor in strength development and muscle growth: the order in which you perform your exercises. Whilst most training routines have been built on habit or tradition, multiple studies now show that prioritising certain exercises can make a dramatic difference to the results you achieve—sometimes nearly doubling your progress in targeted muscles.
Why Exercise Order MattersAcross several published studies, researchers compared the effects of training small versus large muscle groups first in a workout. The results were clear: the muscle groups you train at the very start of your session experience the greatest strength gains and adaptation. For example, switching the order of exercises led to almost twice the strength improvement in muscles trained first, compared to those left until last.
Fatigue is the key reason behind this. As your workout progresses and you accumulate physical exhaustion, your ability to lift heavy and generate maximal force declines. This limits not only your ability to overload your muscles, but also the neural adaptations and mechanical tension that drive meaningful strength development.
Practical Example: Prioritise Triceps for Maximum GrowthFor anyone aiming to build bigger, stronger triceps, this research has practical implications. Instead of finishing your session with triceps work, start your push day or arm day with overhead triceps extensions. Multiple studies—including recent findings comparing exercise variations—have shown that overhead extensions activate the long head of the triceps more effectively than pushdowns and produce superior growth when performed first.
Week-by-week suggestion:

• Begin your training session with 3–4 sets of overhead cable or dumbbell triceps extensions.
• Follow up with compound pushing exercises (bench press, shoulder press), then accessory movements.
• Track your strength and size gains over 8–12 weeks.

Research Highlights

• Journal of Sports Science and Medicine: "Influence of Exercise Order on Maximum Strength and Muscle Thickness in Untrained Men" (PMID: 24149379)
• Journal of Strength and Conditioning Research: "Influence of Exercise Order on Maximum Strength and Muscle Volume in Nonlinear Periodized Resistance Training" (DOI: 10.1519/JSC.0b013e3181e2e19b)
• BarBend: "New Study Suggests Overhead Triceps Extensions Build More Muscle Than Pushdowns"

Actionable Takeaway: If your main goal is to improve a particular muscle group or lift, always put it at the beginning of your workout when your body—and focus—are freshest. This principle applies whether you’re looking to boost arm size, increase bench press strength, or target stubborn body parts.
Exercise order isn’t just a programme detail—it’s a science-backed strategy for faster, bigger gains.

​For further reading, check the cited studies above and stay tuned for more evidence-based fitness advice.

For decades, so-called “health experts” have warned us: “Don’t eat too much protein—it’s going to wreck your kidneys and overload your liver.” But is this really true? Let’s look at what the latest research actually says.
​
Where Did the Protein Warnings Come From? Most of the fear around protein and organ damage comes from early studies on patients already living with severe kidney disease—not healthy, active people. These results were picked up and repeated until they became “common sense.” But when we review controlled clinical trials and population studies, a totally different story emerges.

What Science Really Says About Protein, the Liver & KidneysHigh-Protein Diets and Liver Health

• Liver Fat Reduction: Multiple clinical studies have shown that high-protein diets (with or without calorie restriction) can dramatically reduce liver fat in people at risk for non-alcoholic fatty liver disease (NAFLD)—sometimes by over 40% in just weeks. These effects come from protein’s ability to suppress genes that create and store fat in the liver.
• Muscle Preservation: For those with existing liver problems, extra protein is not only safe—it’s recommended to help maintain muscle and prevent malnutrition.

High-protein diets reduce liver fat—Summary, German Diabetes Center (DZD)
Randomized Study: High-protein diets melt liver fat (Liver International, 2020)
Comprehensive NAFLD Review (Frontiers in Nutrition, 2022)
Plant vs Animal Protein for Liver (ScienceDirect, 2016)

High-Protein Diets and Kidney Health

• Healthy Kidneys: Large reviews have found NO harm from higher protein intake in people with normal kidney function—no increase in kidney damage markers, no chronic kidney disease (CKD), and possibly even a lower risk of CKD with more protein (especially plant-based).
• If You Already Have CKD or Major Risk Factors: If you’re living with kidney disease, high protein might accelerate loss of kidney function, so caution and medical guidance are smart.

Systematic Review: Protein & Healthy Kidneys (ScienceDirect, 2018)
High Protein Linked to Lower CKD Risk (Frontiers in Nutrition, 2024)
Mayo Clinic FAQ: High Protein Diets and Kidneys

​Animal vs. Plant Protein: Animal proteins (red and processed meats) may increase kidney workload in people already at risk, while plant protein is neutral or beneficial. Varied sources—like fish, eggs, dairy, beans, and lentils—are ideal. 

The Real Bottom Line:

• For healthy, active adults: High-protein diets support muscle growth, fat loss, and metabolic health—they aren’t harmful to your liver or kidneys.
• Worried about kidney damage? There’s simply no convincing evidence for harm—unless you already have significant kidney dysfunction.
• If you have kidney disease: Work with your doctor or dietitian for a tailored plan.

Recovering from intense workouts is crucial for athletes and fitness enthusiasts, as it promotes muscle repair, prevents injuries, and optimizes performance. In recent years, the use of infrared saunas has gained popularity as a powerful tool for enhancing recovery and overall wellness. In this blog post, we will explore the benefits of infrared saunas, focusing on their ability to remove lactic acid from muscles, promote effective recovery, and provide a holistic approach to well-being.

1. Understanding Lactic Acid Buildup:
During intense exercise, lactic acid accumulates in the muscles, resulting in fatigue, muscle soreness, and decreased performance. Efficiently removing lactic acid is essential for supporting the recovery process and maximizing muscle recovery.

2. Deep Heat and Muscle Relaxation:
Infrared saunas generate deep heat that penetrates the muscles, inducing a state of relaxation. This deep heat promotes increased blood circulation, aiding in the removal of lactic acid buildup. By promoting muscle relaxation and improving blood flow, infrared saunas contribute to a faster recovery process.

3. Increased Blood Flow and Nutrient Delivery:
The heat generated by infrared saunas causes blood vessels to dilate, leading to increased blood flow throughout the body. This enhanced circulation enables the delivery of essential nutrients, oxygen, and immune cells to the muscles, promoting tissue repair and regeneration. The improved nutrient supply also helps eliminate metabolic waste, including lactic acid, more effectively.

4. Accelerated Healing and Reduced Muscle Soreness:
By promoting efficient blood flow and nutrient delivery, infrared saunas accelerate the healing process. The removal of lactic acid from the muscles reduces muscle soreness, allowing individuals to recover faster and resume their training routine with less downtime. This benefit is particularly advantageous for athletes who need to consistently perform at their best.

5. Detoxification and Overall Wellness:
In addition to enhancing muscle recovery, infrared saunas offer a range of wellness benefits. Sweating in an infrared sauna promotes detoxification by eliminating toxins, heavy metals, and environmental pollutants from the body. This detoxification process can result in clearer skin, improved organ function, and a strengthened immune system.

6. Improved Sleep and Weight Loss:
The heat and relaxation experienced during an infrared sauna session can help alleviate stress and promote deep relaxation, leading to improved sleep patterns and enhanced sleep quality. Furthermore, infrared saunas can be a valuable tool for weight loss efforts. The heat generated by the sauna increases heart rate and metabolic rate, promoting calorie burn and aiding in weight loss. Additionally, the detoxification benefits of infrared saunas can help eliminate toxins stored in fat cells.

Infrared saunas offer a holistic approach to maximising muscle recovery and enhancing overall wellness. Their ability to remove lactic acid from muscles, promote relaxation, increase blood flow, accelerate healing, and support detoxification makes them a valuable tool for athletes and individuals seeking a well-rounded approach to well-being. Incorporating regular infrared sauna sessions into a comprehensive recovery and wellness routine can lead to faster recovery, reduced muscle soreness, improved sleep, weight loss support, and a greater sense of overall well-being. Embrace the power of infrared saunas and unlock the benefits they offer for a healthier, happier you.

References:
1. Beever R. (2009). Far-infrared saunas for treatment of cardiovascular risk factors: summary of published evidence. Canadian family physician, 55(7), 691-696.
2. Crinnion WJ. (2011). Sauna as a valuable clinical tool for cardiovascular, autoimmune, toxicant-induced, and other chronic health problems. Alternative medicine review, 16(3), 215-225.
3. Hannuksela ML, & Ellahham S. (2001). Benefits and risks of sauna bathing. The American journal of medicine, 110(2), 118-126.
4. Pilch W, et al. (2018). Effect of sauna on the body's adaptive response to training in competitive swimmers. Journal of science and medicine in sport, 21(2), 192-198.
5. Sears ME, & Kerr KJ. (2012). Arsenic, cadmium, lead, and mercury in sweat: a systematic review. Journal of environmental and public health, 2012.

Stress is an inherent part of the human experience, dating back to our primal ancestors who faced life-threatening situations, such as encounters with predators. In those moments of stress, the body would release hormones, preparing the individual to fight or flee. This physical response, accompanied by intense physical activity, allowed for the discharge of stress hormones and the restoration of equilibrium. However, in our modern world, stressors have evolved, and the physical activity that once accompanied them has diminished. This blog explores the relationship between stress and inactivity, highlighting the health problems that can arise from this modern paradox.

The Primal Response to Stress:
In the face of a threat, our primal ancestors would experience a surge of stress hormones, including adrenaline and cortisol. This physiological response would trigger an increase in heart rate, blood pressure, and glucose levels, preparing the body for action. In this scenario, stress was met with physical activity, such as running away from a predator. This combination of stress and movement allowed for the release of tension and a return to a balanced state.

The Modern Stressor Landscape:
Fast forward to the present day, and our stressors have drastically changed. Rather than facing immediate physical threats, we are more likely to encounter psychological stressors such as work pressure, financial worries, or relationship difficulties. These stressors often do not require physical activity for resolution, leaving our bodies in a state of heightened stress response without the accompanying physical discharge.

The Impact of Inactivity on Stress:
When stress is not followed by physical activity, the body remains in a prolonged state of stress arousal. This chronic stress response, without the opportunity for physical release, can have detrimental effects on our physical and mental well-being. Here are some health problems associated with stress without activity:

1. Cardiovascular Issues: Prolonged stress without physical activity can lead to an increased risk of cardiovascular problems. Elevated stress hormones, combined with sedentary behavior, can contribute to high blood pressure, heart disease, and an increased likelihood of developing atherosclerosis.

2. Weight Gain and Obesity: The body's stress response triggers an increase in appetite and a preference for calorie-dense foods. In the absence of physical activity, these excess calories are not burned, leading to weight gain and an increased risk of obesity.

3. Mental Health Concerns: Chronic stress without physical activity can have a profound impact on mental health. It can contribute to heightened anxiety, depression, and mood disorders. Physical activity is known to release endorphins, improve mood, and alleviate symptoms of stress-related mental health conditions.

4. Muscle Tension and Pain: Inactivity prolongs muscle tension, which can lead to chronic pain and musculoskeletal issues. Physical activity helps release muscle tension, promoting relaxation and reducing the negative impact of stress on the body.

Breaking the Modern Paradox:
To mitigate the health problems associated with stress without activity, it is crucial to incorporate regular physical activity into our daily lives. Here are some strategies to consider:

1. Exercise: Engage in aerobic activities, such as walking, jogging, cycling, or dancing, to promote cardiovascular health and release stress. Strength training exercises can also help alleviate muscle tension and promote overall well-being.

2. Mind-Body Practices: Explore stress-reducing activities that combine physical movement with mindfulness, such as yoga, tai chi, or qigong. These practices not only enhance physical flexibility but also promote mental relaxation and emotional well-being.

3. Breaks and Movement: Incorporate short movement breaks into your daily routine, especially during periods of intense stress. Take a walk, stretch, or engage in light exercises to release tension and promote blood circulation.

4. Find Joy in Activity: Cultivate a love for physical activity by exploring activities that bring you joy. Whether it's dancing, hiking, swimming, or playing a sport, finding activities you enjoy will increase the likelihood of incorporating regular movement into your life.

Conclusion:
In our modern world, stress has evolved to encompass psychological stressors, often devoid of the physical activity that accompanied stress in our primal ancestors. This disconnect between stress and activity has significant implications for our health. By recognizing the impact of stress without activity and prioritizing regular physical movement, we can mitigate the health problems associated with chronic stress and promote a balanced, healthier lifestyle. Let us embrace the primal wisdom of our ancestors and restore the harmony between stress and activity in our lives.
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References:
American Heart Association. (n.d.). Stress and Heart Health. Retrieved from [https://www.heart.org/en/healthy-living/healthy-lifestyle/stress-management/stress-and-heart-health]
American Psychological Association. (2017). Physical activity reduces stress. Retrieved from [https://www.apa.org/helpcenter/exercise-stress]
Centers for Disease Control and Prevention. (2021). Physical Activity. Retrieved from [https://www.cdc.gov/physicalactivity/index.html]
Harvard Health Publishing. (2018). Exercise is an all-natural treatment to fight depression. Retrieved from [https://www.health.harvard.edu/mind-and-mood/exercise-is-an-all-natural-treatment-to-fight-depression]
Mayo Clinic. (2021). Exercise and stress: Get moving to manage stress. Retrieved from [https://www.mayoclinic.org/healthy-lifestyle/stress-management/in-depth/exercise-and-stress/art-20044469]
Mayo Clinic. (2021). Stress management: Prevent setbacks. Retrieved from [https://www.mayoclinic.org/healthy-lifestyle/stress-management/in-depth/stress-management/art-20044279]
National Center for Complementary and Integrative Health. (2021). Yoga: In depth. Retrieved from [https://www.nccih.nih.gov/health/yoga-in-depth]
National Institute of Neurological Disorders and Stroke. (2021). Chronic Pain Information Page. Retrieved from [https://www.ninds.nih.gov/Disorders/All-Disorders/Chronic-Pain-Information-Page]