Tag Archives: chiropractic

exercise, Uncategorized

The Link Between Sitting, Activity, and Health for People with Diabetes

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Tips While Working at a Desk part 2

If you have diabetes, how much time you spend sitting—and how active you are—can significantly impact your health. A new study highlights this important connection.

The Key Finding

Sitting for long periods is linked to a higher risk of death in people with diabetes, but only if physical activity levels are low. For those who stay active, sitting time doesn’t seem to have the same harmful effect.

What Did the Study Look At?

  • Participants: 6,335 adults with diabetes (average age 60) were tracked for about six years.
  • Focus: Researchers analyzed how sitting time and physical activity influenced all-cause mortality (risk of death from any cause).
  • Activity Levels: Participants were grouped into three categories:
    • Inactive: Less than 10 minutes of moderate-to-vigorous physical activity (MVPA) per week.
    • Insufficiently active: 10–149 minutes per week.
    • Active: At least 150 minutes per week.

The Results

  • Active individuals: Sitting time didn’t increase the risk of death.
  • Inactive individuals: Sitting 8+ hours a day increased the risk of death by 73%.
  • Insufficiently active individuals: Sitting for long hours was associated with an even higher risk of death—up to 180%.

Why Physical Activity Matters

Exercise plays a crucial role in managing diabetes and reducing health risks:

  • Short-term benefits: Just one workout can improve insulin sensitivity for up to 72 hours.
  • Long-term benefits: Regular exercise boosts muscle health, improves blood sugar control, and lowers the risk of complications.
walking

Best Practices for Managing Diabetes

  1. Move more: Break up long periods of sitting with standing or short walks.
  2. Stay active: Aim for at least 150 minutes of moderate-to-vigorous exercise weekly, spread across three or more days.
  3. Mix it up: Combine aerobic exercises (like walking or swimming) with resistance training (like weightlifting) for maximum benefits.

Takeaway

Sitting for too long can be harmful, but regular physical activity can protect your health—even if you have diabetes. Simple changes, like walking more or using a standing desk, can make a big difference in your lifespan and quality of life.

If pain is preventing, you from exercising, call the office and make an appointment with Dr. Sikorsky and see if he can help you get back to exercising.

Sitting Time and Its Interaction With Physical Activity in Relation to All-Cause and Heart Disease Mortality in U.S. Adults With Diabetes – PubMed

Uncategorized

Key Supplements for Tendon Health

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The following supplements can help with tendon health and tendon repair.

Understanding how each supplement works at a physiological level can provide insight into why these are effective for tendon health:

1. Collagen Peptides

  • Physiology: Collagen peptides are broken down into amino acids, including glycine, proline, and hydroxyproline, which are then reassembled in the body to form collagen fibrils.
  • Mechanism: Collagen fibrils form the structural framework of tendons, providing tensile strength and elasticity. Supplementation increases fibroblast activity, promoting collagen synthesis and repair of micro-tears.

2. Hydrolyzed Gelatin

  • Physiology: Similar to collagen peptides, hydrolyzed gelatin delivers glycine and proline, amino acids crucial for forming triple-helix collagen structures.
  • Mechanism: Pre-exercise intake boosts collagen synthesis in response to mechanical stress, aiding in tendon remodeling and repair.

3. Vitamin C

  • Physiology: Vitamin C acts as a co-factor for prolyl and lysyl hydroxylase enzymes, which stabilize and cross-link collagen molecules.
  • Mechanism: Stabilized collagen improves the tensile strength of tendons. It also has antioxidant properties, neutralizing reactive oxygen species (ROS) generated during tendon injury or stress.

4. Omega-3 Fatty Acids (EPA and DHA)

  • Physiology: Omega-3s are incorporated into cell membranes of tendon fibroblasts, modulating inflammatory pathways.
  • Mechanism: They reduce the production of pro-inflammatory cytokines (e.g., TNF-alpha, IL-6) and increase anti-inflammatory mediators, promoting a balanced healing response in tendons.

5. Curcumin (Turmeric Extract)

  • Physiology: Curcumin inhibits the NF-kB signaling pathway, a major driver of inflammation.
  • Mechanism: Reduces inflammation at the cellular level by downregulating cyclooxygenase-2 (COX-2) and inducible nitric oxide synthase (iNOS), limiting tendon degradation and pain.

6. Boswellia Serrata

  • Physiology: Boswellia inhibits 5-lipoxygenase (5-LOX), an enzyme involved in leukotriene production, which contributes to chronic inflammation.
  • Mechanism: By reducing leukotrienes, Boswellia decreases inflammatory infiltration in tendons and supports tissue repair.

7. Glucosamine and Chondroitin

  • Physiology: Glucosamine is a precursor for glycosaminoglycans (GAGs), while chondroitin is a major component of the extracellular matrix (ECM).
  • Mechanism: They support ECM integrity in tendons by enhancing water retention, elasticity, and resilience against compressive forces.

8. MSM (Methylsulfonylmethane)

  • Physiology: MSM delivers bioavailable sulfur, a critical element in the formation of disulfide bonds that stabilize collagen.
  • Mechanism: Sulfur-rich disulfide bonds reinforce tendon structure, improving resilience and repair. MSM also has mild anti-inflammatory effects.

9. Hyaluronic Acid

  • Physiology: Hyaluronic acid is a glycosaminoglycan that maintains hydration and elasticity in connective tissues.
  • Mechanism: Enhances lubrication within tendons and their sheaths, reducing friction and promoting smoother movement.

10. Resveratrol

  • Physiology: Resveratrol activates sirtuins, particularly SIRT1, which regulate cellular stress and inflammation.
  • Mechanism: Protects tendon cells (tenocytes) from oxidative stress, reducing matrix degradation and promoting cellular longevity.

11. Magnesium Glycinate or Citrate

  • Physiology: Magnesium acts as a co-factor for over 300 enzymatic reactions, including those involved in ATP production and collagen cross-linking.
  • Mechanism: Helps relax muscles, reduces strain on tendons, and supports collagen matrix stabilization.

12. Bromelain

  • Physiology: Bromelain is a proteolytic enzyme that breaks down proteins and modulates inflammatory pathways.
  • Mechanism: Reduces inflammatory mediators like bradykinin and prostaglandins, alleviating tendon swelling and promoting recovery.

13. Silica

  • Physiology: Silica is essential for collagen formation, particularly for initiating the polymerization of collagen fibers.
  • Mechanism: Strengthens connective tissue by increasing collagen cross-linking and structural density.

14. L-Arginine

  • Physiology: L-Arginine is converted to nitric oxide (NO) by endothelial nitric oxide synthase (eNOS).
  • Mechanism: NO enhances blood flow to tendons, delivering oxygen and nutrients necessary for repair and reducing ischemic injury.

15. Zinc

  • Physiology: Zinc is a co-factor for metalloproteinases and enzymes involved in collagen synthesis.
  • Mechanism: Supports fibroblast function and accelerates wound healing by promoting cellular repair processes.

exercise, Uncategorized

Simple Resistance Exercises Improve Overall Health and Reduce Death Risks

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Why We Need More Than Just Steps: The Importance of Muscle-Strengthening Activities

While getting your steps in is important, it’s equally crucial to incorporate strength training into your routine.

The federal Physical Activity Guidelines for Americans and the World Health Organization recommend at least two sessions per week of muscle-strengthening activities. These should involve weight-bearing exercises of moderate or greater intensity, targeting all major muscle groups. This is in addition to 150 to 300 minutes of moderate to vigorous aerobic activity. However, three-quarters of Americans fail to meet both aerobic and strength targets, with strength training being especially neglected.

Dose-response Relationship Between Physical Exercise and Risk of Physician-Diagnosed Dementia

Exercise, in any form, is a physical stressor that prompts the body to adapt and become stronger. Resistance training, like aerobic exercise, raises heart rate and boosts lung function, but its primary benefit lies in challenging the muscles. When you push or pull against resistance, microscopic tears form in the muscle tissue. These tiny tears aren’t harmful—they actually trigger the muscle to repair itself and grow stronger. As Jessica Gorzelitz, an epidemiologist and exercise scientist at the University of Iowa, puts it, “You’re trying to hurt yourself for an adaptive benefit.”

The benefits of muscle-strengthening exercises extend far beyond building muscle. A 2022 analysis found that strength training is associated with a 10 to 17 percent lower risk of all-cause mortality. Gorzelitz’s research also showed that older adults who combined aerobic and resistance training had the lowest mortality risk. Even weightlifting alone significantly reduced the risk of death from all causes, including cardiovascular disease.

Two Small Dumbbells

Strength training isn’t just about living longer—it’s about living better. We lose 3 to 8 percent of our muscle mass every decade after age 30, with the rate increasing after 60. Strength training helps counteract this loss, promoting metabolic health and maintaining the ability to perform daily tasks like lifting suitcases and carrying groceries. It also strengthens bones by increasing bone mineral density, which is especially crucial for aging women.

For cancer survivors, strength training has been shown to reduce cancer-related fatigue and improve quality of life. It also helps prevent and manage diabetes by improving blood glucose storage and circulation. Additionally, strength training has been linked to reductions in anxiety and depression.

Despite its benefits, many people shy away from resistance training because it’s more complex than aerobic exercise. Unlike walking or running, which are straightforward and easy to track, strength training involves multiple variables. You need to decide which muscles to work, in what order, what equipment to use, and how intense the workout should be. It’s also important to allow for adequate rest between sessions to give your muscles time to repair and grow stronger.

Incorporating strength training into your routine may take some planning, but the health benefits are well worth the effort. It’s not just about getting your steps in—it’s about getting stronger, healthier, and more resilient for the long haul.

Call or Schedule an Appointment if pain is limiting you from working out. Also visit our website for more information.

exercise

How to Perform a Sweat Test: Step-by-Step Guide to Measuring Sweat Loss and Hydration

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Sweat Test

Preparation:

Set up the scale in a convenient location accessible during the workout.

Ensure the participant has access to water for hydration during the workout.

Record the participant’s baseline body weight before the workout begins.

Workout Session:

  • Weight yourself before the workout, Then perform an hour workout.  Keep in mind that at different temp. your will sweat different amount.  So doing the test at different temp. (75, 85, 95 degrees) is a good way to prepare for the heat of summer. 

Post-Workout Measurement:

  • After the workout session is completed, have the participant towel off any excess sweat to minimize interference with measurements.
  •  post-workout body weight immediately after exercising.

Calculation of Sweat lose

  • Calculate the difference between the participant’s baseline body weight and their post-workout body weight. This difference represents the amount of weight lost during the workout, which primarily consists of water loss through sweat. If you did drink water during the workout add that to the total water lose. 
  • Convert the weight difference into a volume measurement (usually in milliliters) by using the assumption that 1 kg (2.2lbs) of body weight is roughly equivalent to 1 liter (33oz) of water.

Compare the measured sweat loss to established guidelines for sweat rates during exercise (e.g., typical sweat rates range from 0.5 to 2.0 liters per hour, depending on factors like intensity, duration, and environmental conditions).

The goal is not replace all the water loss during the workout or game.  It’s to minimizes the effect of dehydration during the game and to be strong during the second half. Returning to Full hydration status should be done after the workout.

exercise

Does Timing Matter? The Impact of High-Protein Diets on Muscle Growth and Performance

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In the world of fitness and nutrition, timing is often emphasized, especially when it comes to protein intake around workouts. Many believe that the timing of protein consumption—whether before or after exercise—can significantly impact muscle growth and performance. However, a new study led by Mohammadyasin Lak and colleagues has shed light on whether timing truly plays a role in maximizing the benefits of a high-protein diet when combined with resistance training

Study Overview

The study, published in Frontiers in Nutrition, aimed to compare the effects of two different timing strategies for protein intake on muscle hypertrophy (growth), strength, and overall performance in resistance-trained males. Over an 8-week period, 40 males with resistance training experience, averaging 24 years of age, were divided into two groups. Both groups consumed 2 grams of protein per kilogram of body weight daily—a high-protein diet known to support muscle growth.

The key difference between the groups was when they consumed their protein:

  • Immediate Group: This group consumed protein immediately before and after their workouts.
  • 3-Hour Group: This group consumed protein three hours before and after their exercise sessions.

The researchers assessed body composition, muscular performance, and biochemical markers (such as urea levels) before and after the 8-week intervention.

Results

While nine participants withdrew from the study, the remaining 31 completed the full intervention, providing valuable insights into the effects of protein timing.

Across both groups, the study found significant improvements in muscle strength, skeletal muscle mass, and performance in exercises like the Australian pull-up. Interestingly, there were no significant differences between the two groups in terms of muscle growth or performance enhancements, indicating that whether protein was consumed immediately around the workout or a few hours before and after did not make a difference.

Additionally, biochemical markers, particularly urea levels, increased significantly in both groups. This is a normal response to high protein intake, as the body metabolizes and breaks down the amino acids.

Conclusion: Total Protein Intake Matters Most

The results of this study suggest that the timing of protein intake, whether immediately around the workout or a few hours apart, does not significantly impact muscle hypertrophy or performance in resistance-trained males. Instead, the total daily protein intake seems to be the most crucial factor in promoting muscle growth and enhancing strength during resistance training.

For athletes and individuals focused on muscle gain, the key takeaway is clear: prioritizing overall protein consumption throughout the day is more important than worrying about precisely when to consume it in relation to your workouts.

Practical Implications

For those aiming to build muscle or improve performance, this study offers practical and straightforward advice:

  • Focus on consuming adequate protein throughout the day to support muscle recovery and growth.
  • While timing might have some marginal effects, it is not as crucial as previously thought for trained individuals. Ensuring you meet your daily protein target (2 grams per kilogram of body weight in this study) is the most effective strategy for muscle hypertrophy.

This research adds to the growing body of evidence that debunks the myth of strict “anabolic windows” for protein consumption, offering more flexibility for those trying to maximize their training outcomes.

Timing matters? The effects of two different timing of high protein diets on body composition, muscular performance, and biochemical markers in resistance-trained males – PubMed (nih.gov)

exercise, Fall Prevention

Exercise may be the best defense against falls in older adults

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Falls are a leading cause of injury-related morbidity and mortality among older adults, making fall prevention a critical public health concern.

A recent systematic review published in JAMA (2024) sheds light on the effectiveness of different interventions designed to prevent falls in community-dwelling seniors. Conducted by Dr. Janelle M. Guirguis-Blake and her team, the review systematically analyzed 83 randomized clinical trials (RCTs) involving a total of 48,839 older adults. The study focused on two primary interventions: multifactorial and exercise-based approaches, both of which have been widely studied for their role in reducing fall risk.

Importance of Fall Prevention

Falls are a significant problem among the elderly. According to the Centers for Disease Control and Prevention (CDC), nearly 27.5% of older adults in the United States reported at least one fall in 2018, with 10.2% suffering a fall-related injury. Over the past decade, the rate of fall-related deaths among older adults has increased by 41%. These statistics highlight the growing need to address fall risks, especially given the aging population.

The recent JAMA study reviewed interventions targeting modifiable fall risk factors, such as poor balance, muscle weakness, and environmental hazards. Two types of interventions—multifactorial and exercise-based—stood out for their potential to significantly reduce fall incidence.

Multifactorial Interventions

Multifactorial interventions involve a comprehensive assessment of an individual’s fall risks, followed by a tailored set of interventions designed to address those risks. These could include referrals to specialists, exercise programs, medication management, home modifications, or vision and auditory care. The study reviewed 28 multifactorial trials, which included nearly 28,000 participants.

Results from the analysis showed that multifactorial interventions were associated with a statistically significant reduction in the overall number of falls, with an incidence rate ratio (IRR) of 0.84. However, the intervention did not significantly reduce the risk of an individual experiencing one or more falls, injurious falls, or fall-related fractures. This suggests that while multifactorial interventions can reduce the total number of falls, they may not always prevent severe fall-related outcomes.

Exercise Interventions

Exercise interventions, on the other hand, demonstrated more consistent and broader benefits across multiple fall-related outcomes. The study analyzed 37 exercise-based trials with over 16,000 participants. Exercise interventions were associated with a significant reduction in both fall incidence (IRR, 0.85) and the risk of experiencing one or more falls (RR, 0.92). Additionally, exercise interventions reduced the number of injurious falls, although they did not significantly lower the risk of individual injurious falls or fall-related fractures.

Exercise programs included balance training, strength training, flexibility exercises, and sometimes cognitive tasks. Many of the trials utilized group-based exercise programs, which may also offer social support benefits, further improving adherence and overall health outcomes.

Conclusion

This systematic review provides strong evidence supporting the use of both multifactorial and exercise interventions to prevent falls in older adults, with exercise interventions showing the most consistent benefits. Healthcare providers should consider incorporating exercise programs into routine care for older adults, particularly those at increased risk of falls. By doing so, they can help reduce fall-related injuries and improve quality of life for seniors, making fall prevention a priority in geriatric care.

For more videos on exercises that can help you prevent fall go to our YouTube channel.

Interventions to Prevent Falls in Older Adults: Updated Evidence Report and Systematic Review for the US Preventive Services Task Force | Geriatrics | JAMA | JAMA Network

disc herniations, Lower back pain, Uncategorized

The Prevalence of Disc Herniation

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Why Imaging Doesn’t Always Tell the Whole Story

In their paper published in the American Journal of Neuroradiology, Brinjikji et al. provide insight into the commonality of lumbar intervertebral disc herniation in asymptomatic individuals stratified by age. In their systematic literature review, the authors assessed 33 articles that reported imaging findings for 3110 asymptomatic individuals. [1]

Brinjiji reported that 29% of 20-year-old and 36% of 50-year-old asymptomatic patients have disc herniations on MRI. As we get older, the numbers increase. [1]

Nakashima et al. evaluated cervical spine MR images of 1211 healthy volunteers. They reported most subjects from ages 20-70 years of age presented with disc bulging (87.6%), which significantly increased with age in terms of frequency, severity, and number of levels. [2]

What does this all mean? Essentially, it highlights the importance of correlating a patient’s symptoms and clinical findings with imaging results like MRIs or X-rays. Doctors treat the patient, not the scan. While an MRI might show a disc herniation or bulge, that doesn’t automatically mean it’s the source of pain. The spine has many potential pain generators, including discs, facet joints, muscles, fascia, tendons, and ligaments. In some cases, your pain could be stemming from a different location entirely, even if the MRI shows an issue with a disc.

As always, if your symptoms are worsening or not improving, it’s important to follow up with your doctor. Red flags like loss of muscle strength, sensation, or function should never be ignored, as they require medical attention. In particular, loss of bowel or bladder control is a medical emergency and demands immediate care. Stay proactive about your health and seek help when necessary.

Suffering from back pain make an appointment with our clinic and see if chiropractic care can help you live a more pain free life.

Disc talk with Dr. Steve! (youtube.com)

  1. Brinjikji et al. AJNR Am J Neuroradiol. 2005; 36:811–16.
  2. Nakashima et al. SPINE. 2015; 40(6):392-398.
exercise

Understanding Muscle Types: The Differences Between Slow-Twitch and Fast-Twitch Fibers

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What to learn a little more about Muscle? Read on.

In the human body, muscles can be broadly categorized into two types: Type 1 (slow-twitch) and Type 2 (fast-twitch).

Type 1 Fibers (Slow-Twitch)

  • Fatigue Resistant: Type 1 fibers are highly resistant to fatigue, allowing them to contract continuously for extended periods.
  • Low Glucose Usage: They utilize minimal glucose for energy.
  • Efficient Fat Utilization: These fibers are more efficient at using fat as a fuel source.
  • Abundant Mitochondria: Type 1 fibers contain more and larger mitochondria, the energy-producing organelles of the cell.
  • Slower Contraction Speed: They contract more slowly compared to Type 2 fibers.
  • Anti-Gravity Muscles: These fibers are often found in muscles responsible for maintaining posture and resisting gravity.

Type 2 Fibers (Fast-Twitch)

  • Quick to Fatigue: Type 2 fibers fatigue more quickly but can produce rapid and powerful contractions.
  • Faster Contraction Speed: They contract at a much higher speed than Type 1 fibers.
  • Higher Glucose Content: These fibers have a higher glucose content and lower levels of intramuscular triglycerides.
  • Larger Fiber Size: Fast-twitch fibers are generally larger in size.
  • Primary Energy Source: They rely primarily on glucose for energy production. This is why consuming glucose (sugar) during sports events or training can enhance performance.
  • Increased Phosphocreatine Levels: Type 2 fibers generally contain more phosphocreatine, which is used in anaerobic glycolysis to produce ATP (energy) without oxygen. This is why creatine supplements can improve sports performance.

Muscle Distribution

The distribution of muscle fiber types varies depending on their location in the body. The lower body has a higher concentration of Type 1 fibers, making it more resistant to fatigue. In contrast, the upper body contains a greater proportion of Type 2 fibers, which explains why your arms may tire quickly when performing tasks like changing a hard-to-reach light bulb.

Muscles can adapt to different types of training. If you engage in a lot of endurance activities, such as running, you can increase the proportion and efficiency of Type 1 muscle fibers. On the other hand, strength training, sprinting, or explosive exercises can lead to an increase in Type 2 muscle fibers. This adaptability allows muscles to optimize their performance based on the demands of your training regimen.

Check our YouTube channel or website for more information.

exercise

Nutrition for Concussion Recovery

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Nutrition for Concussion Recovery

A traumatic brain injury (TBI), more commonly known as a concussion, occurs as a result of a bump, blow, or jolt to the head, or from a penetrating head injury. This trauma disrupts the normal function of the brain and triggers an inflammatory response that can last for days, weeks, or even years. This inflammation further interferes with normal brain function and can complicate recovery.

Symptoms of TBI can manifest physically, cognitively, and emotionally, impacting overall well-being. Proper nutrition plays a critical role in supporting brain health and reducing inflammation during the recovery process.

Physical Symptoms

  • Headache or pressure in the head
  • Dizziness or loss of balance
  • Nausea or vomiting
  • Fatigue or drowsiness
  • Sensitivity to light or sound
  • Blurred vision or ringing in the ears (tinnitus)
  • Loss of consciousness (from a few seconds to minutes or longer)
  • Seizures or convulsions
  • Dilated pupils (one or both eyes)
  • Clear fluids draining from the nose or ears
  • Weakness or numbness in fingers and toes
  • Slurred speech or difficulty speaking

Cognitive Symptoms:

  • Confusion or disorientation
  • Memory problems or difficulty concentrating
  • Feeling mentally “foggy” or slowed down
  • Difficulty with problem-solving or reasoning
  • Trouble understanding or expressing speech (aphasia)

Emotional/Behavioral Symptoms:

  • Mood swings or irritability
  • Anxiety or depression
  • Agitation or combativeness
  • Changes in sleep patterns (sleeping more or less than usual)
  • Difficulty controlling emotions or impulsivity

Boosting Brain Health and Recovery with Key Nutrients

When it comes to brain health and recovery, especially after experiencing a concussion or traumatic brain injury (TBI), proper nutrition plays a vital role. Certain nutrients can help support brain function, reduce inflammation, and promote healing. Here’s a look at five key nutrients that may assist in the recovery process and improve cognitive function for both healthy individuals and those recovering from head trauma.

1. Creatine Monohydrate: Energy for Brain and Muscle

Creatine is a naturally occurring compound found primarily in muscles but also in the brain and other organs. While most people think of creatine as a supplement for athletes, it does much more than help build muscle. Creatine supports the production of ATP, the body’s primary energy source, in tissues with high energy demands, like muscles and the brain.

Supplementing with creatine has been shown to help maintain cognitive function, improve performance, and mitigate issues that often follow a TBI, such as sleep disorders, memory problems, and mood disturbances. By increasing the levels of phosphocreatine in the brain, creatine helps maintain brain energy levels and aids in recovery.

Key Benefits of Creatine:

  • Supports cognitive performance
  • Helps regulate energy in the brain
  • May reduce sleep and mood disturbances after head trauma

2. Omega-3 Fatty Acids: DHA and EPA for Brain Repair

Omega-3 fatty acids, particularly DHA (docosahexaenoic acid) and EPA (eicosapentaenoic acid), are essential for brain health. DHA is highly concentrated in the brain and plays a critical role in maintaining neurological function and protecting against injury. EPA, on the other hand, helps with vascular function, reducing inflammation, and improving blood flow to the brain.

These omega-3s are powerful anti-inflammatory agents that aid in the brain’s recovery after an injury, promoting healing and preventing further damage. They also help improve cognitive health and support long-term brain function, making them an essential part of a recovery-focused diet.

Key Benefits of Omega-3s:

  • Protects against neurodegeneration
  • Reduces inflammation in the brain
  • Supports blood flow and nutrient delivery to the brain

3. BCAAs: Building Blocks for Brain Metabolism

Branched-chain amino acids (BCAAs) — leucine, isoleucine, and valine — are well-known for their role in muscle recovery, but they also play a significant role in brain metabolism. These amino acids help produce key neurotransmitters like glutamate and GABA, which are crucial for normal brain function.

After a brain injury, the balance of these neurotransmitters can be disrupted. BCAA supplementation can help restore this balance, improving cognitive function and reducing the mental fatigue often associated with TBI. Additionally, BCAAs compete with other amino acids that produce neurotransmitters like serotonin and dopamine, which influence mood and cognition.

Key Benefits of BCAAs:

  • Supports neurotransmitter production
  • Helps restore cognitive balance after TBI
  • May improve mood and mental clarity

4. Choline: Essential for Brain Cell Function

Choline, a nutrient often found in eggs and meat, is essential for brain health because it helps produce acetylcholine, a neurotransmitter important for memory and muscle control. Choline also supports the synthesis of cell membranes in the brain, helping maintain structural integrity and supporting overall brain function.

Citicoline, a form of choline, has been shown to boost recovery after a brain injury by enhancing memory and cognitive performance. It’s an important nutrient to consider for anyone focused on maintaining long-term brain health and aiding recovery after trauma.

Key Benefits of Choline:

  • Supports memory and cognitive performance
  • Aids in brain cell membrane repair
  • Helps produce the neurotransmitter acetylcholine

5. Magnesium: Protecting Brain Function

Magnesium is a vital mineral that helps with numerous metabolic processes in the body, including ATP production, protein synthesis, and maintaining healthy brain function. It’s particularly important after a brain injury due to its role in reducing brain excitotoxicity — a condition where nerve cells are damaged or killed by excessive stimulation.

Magnesium also helps support learning, memory, and mood regulation. Additionally, a magnesium deficiency can lead to a host of health issues, including increased inflammation, which can further harm brain function.

Key Benefits of Magnesium:

  • Reduces excitotoxicity after brain injury
  • Supports memory and learning
  • Aids in mood stabilization and brain plasticity

Conclusion:

Recovery after a concussion or TBI requires a combination of proper medical care and lifestyle changes, including nutrition. Supplements like creatine, omega-3 fatty acids, BCAAs, choline, and magnesium offer potential benefits for improving brain health, reducing inflammation, and supporting recovery. If you’re dealing with a brain injury or simply want to improve your brain function, these nutrients are excellent additions to your diet. Always consult with a healthcare professional before beginning any supplementation regimen to ensure it’s right for your individual needs.

Nutrients | Free Full-Text | Mitigating Traumatic Brain Injury: A Narrative Review of Supplementation and Dietary Protocols (mdpi.com)

Biomedicines | Free Full-Text | Optimization of Nutrition after Brain Injury: Mechanistic and Therapeutic Considerations (mdpi.com)

exercise, muscles

Hydration

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What to know more about Hydration? Read on to learn more about how important hydration is to your health and athletic performance.

  • The color of urine can provide valuable insights into an individual’s hydration status. Generally, pale yellow or straw-colored urine suggests adequate hydration levels, indicating that the body is well-hydrated and functioning optimally. On the other hand, darker yellow or amber-colored urine often indicates dehydration, signaling that the body may be lacking sufficient fluids. In cases of severe dehydration, urine may appear deep yellow or even orange, indicating a significant deficit in fluid intake. Monitoring the color of urine can serve as a simple yet effective tool for gauging hydration status and prompting adjustments to fluid intake to maintain optimal health and well-being.
  • Dehydration can significantly impair sports performance by diminishing endurance, reducing strength, and impairing cognitive function, highlighting the critical importance of proper hydration for athletes to maintain peak performance.
  • Dehydration can affect sports performance at various levels of severity:
  • Mild Dehydration: Mild dehydration, typically characterized by a fluid loss of 1-2% of body weight, can lead to decreased endurance, impaired thermoregulation, and increased perceived exertion during exercise.
  • Moderate Dehydration: Moderate dehydration, with a fluid loss of 3-5% of body weight, can further exacerbate endurance decrements, decrease aerobic capacity, impair muscle strength and power, and reduce mental focus and coordination, all of which can significantly impact athletic performance.
  • Severe Dehydration: Severe dehydration, marked by fluid losses of more than 5% of body weight, poses serious risks to health and sports performance. At this level, athletes may experience extreme fatigue, muscle cramps, dizziness, heat illness, and even collapse, severely compromising their ability to compete effectively and increasing the risk of serious medical complications. Proper hydration strategies are crucial for athletes to mitigate the negative effects of dehydration and maintain optimal performance and safety during training and competition.
  • So how much water should water on average should you be drinking?  Half your body weight in ounces per day.  This is or base line, if you do any activity are going to drink more and replace what is lost during that exercise. 

So how much water should water on average should you be drinking?  Half your body weight in ounces per day.  This is or base line, if you do any activity are going to drink more and replace what is lost during that exercise.  How much sweat do you lose during exercise? You will have to do a sweat test.

Sweat Test

Preparation:

Set up the scale in a convenient location accessible during the workout.

Ensure the participant has access to water for hydration during the workout.

Record the participant’s baseline body weight before the workout begins.

Workout Session:

  • Weight yourself before the workout, Then perform an hour workout.  Keep in mind that at different temp. your will sweat different amount.  So doing the test at different temp. (75, 85, 95 degrees) is a good way to prepare for the heat of summer. 

Post-Workout Measurement:

  • After the workout session is completed, have the participant towel off any excess sweat to minimize interference with measurements.
  •  post-workout body weight immediately after exercising.

Calculation of Sweat lose

  • Calculate the difference between the participant’s baseline body weight and their post-workout body weight. This difference represents the amount of weight lost during the workout, which primarily consists of water loss through sweat. If you did drink water during the workout add that to the total water lose. 
  • Convert the weight difference into a volume measurement (usually in milliliters) by using the assumption that 1 kg (2.2lbs) of body weight is roughly equivalent to 1 liter (33oz) of water.

Compare the measured sweat loss to established guidelines for sweat rates during exercise (e.g., typical sweat rates range from 0.5 to 2.0 liters per hour, depending on factors like intensity, duration, and environmental conditions).

The goal is not replace all the water loss during the workout or game.  It’s to minimizes the effect of dehydration during the game and to be strong during the second half. Returning to Full hydration status should be done after the workout.

When we sweat, we are not only losing water but also losing electrolytes. These include Sodium (Na+), Potassium (K+), Magnesium (Mg+), Chloride (Cl-), and Calcium (Ca+).  4:1 NA to K ratio.

In one liter of sweat, we could lose:

  • 500-1000 mg of Na+ (Sodium)
  • 100-500 mg of K+ (Potassium)
  • 500-3000 mg of Cl- (Chloride)
  • 0-100 mg of Mg+ (Magnesium) and Ca+ (Calcium)

These electrolytes need to be replaced when we sweat. Electrolytes are important for several critical bodily functions:

  • Sodium (Na+): Helps regulate fluid balance, blood pressure, and muscle function.
  • Potassium (K+): Essential for proper muscle contraction, nerve function, and maintaining fluid balance.
  • Chloride (Cl-): Works with sodium to maintain fluid balance and is a key component of digestive stomach acids.
  • Magnesium (Mg+): Important for muscle relaxation, nerve function, and energy production.
  • Calcium (Ca+): Vital for muscle contraction, nerve signaling, and bone health.

Electrolytes are crucial for muscle contraction, nerve firing/depolarization, and maintaining the body’s pH balance. Ensuring adequate electrolyte levels helps optimize physical performance and prevent issues like muscle cramps, fatigue, and dehydration Test kits can help you figure out what you need to replace every hour. Some options include:

There are so many different products that it’s difficult to recommend just one. You can also make your own home brew electrolytes

home brew electrolytes – YouTube

Feel free to call or email our office if you have any questions. Go to our website for more information.