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Medical

Nutritional Therapy

Understanding Phase Angle in Nutritional Therapy

By BIA, Blog, Medical

*This webpage content is intended for Healthcare Professionals only, not for general public.

When it comes to nutritional therapy, particularly in the context of parenteral and enteral nutrition, understanding the body’s composition and health status is crucial. One important measure that has gained attention in recent years is Phase Angle, a parameter derived from bioelectrical impedance analysis (BIA) that offers insights into cellular health and nutritional status.

In this blog post, we’ll explore what phase angle is, how it relates to nutritional therapy, and the role of InBody in evaluating this critical measure.

Nutritional Therapy

What is Phase Angle?

Phase Angle is a valuable metric derived from bioelectrical impedance analysis (BIA) that provides insights into cellular health and nutritional status. It is calculated based on the resistance and reactance of body tissues to an electrical current, reflecting the integrity of cell membranes. This metric can be crucial for assessing the nutritional status of patients receiving parenteral or enteral nutrition.

In fact, the European Society for Parenteral and Enteral Nutrition (ESPEN) acknowledges the prognostic value of phase angle in patients requiring nutrition therapy. A higher Phase Angle is associated not only with better cellular health and nutritional status but also with improved survival rates and shorter hospital stays. In contrast, a lower Phase Angle suggests poorer cellular health and potential malnutrition, which can lead to extended hospitalizations and worsened patient outcomes.

Phase Angle

*Phase Angle greater than 4° generally reflects better health across various populations (based on scientific journals)

Importance of Phase Angle in Nutritional Therapy

Nutritional therapy, whether delivered parenterally (intravenous) or enterally (via the digestive tract), aims to optimize the nutritional status of patients, especially those who are critically ill or unable to eat. Thus, evaluating and monitoring Phase Angle is crucial for several reasons:

Assessing Nutritional Status

A decline in Phase Angle may indicate malnutrition or the need for adjustments in nutritional therapy.

In a recent study, it has been shown that Phase Angle is a useful tool for assessing the nutritional status of tube-fed patients. The study focused on the improvements in Phase Angle among these patients who received a ready-to-use blenderized diet made with chicken and pumpkin in a retort pouch for 14 days. Following this intervention, patients’ Phase Angle increased significantly, indicating improved nutritional status. This highlights the importance of monitoring Phase Angle to evaluate and optimize nutritional therapy effectively.

Predicting Health Outcomes

Phase Angle is a valuable tool in clinical settings, offering insights not only into nutritional status but also predicting the prognosis of chronic diseases and cancers.

In fact, research has shown that lower Phase Angle is associated with longer duration of hospitalization and higher all-cause in-hospital mortality. For instance, a recent study found that patients with a Phase Angle above 3.5 at the time of ICU admission had significantly lower in-hospital mortality rates and shorter ICU stays when compared to those with lower Phase Angle values. These findings highlight the importance of assessing Phase Angle as a predictive metric for patient outcomes in clinical settings.

Guiding Nutritional Therapy

By evaluating Phase Angle, dietitians and nutritionists can tailor nutrition therapies to improve patients’ nutritional status. For patients with low Phase Angle values, targeted nutritional strategies such as increasing protein intake or enhancing micronutrient status, can be prescribed to enhance their nutritional status and overall health. Additionally, monitoring Phase Angle over time allows dietitians and nutritionists to assess the effectiveness of these nutrition interventions and make necessary adjustments. This personalized approach not only supports individual recovery but also helps prevent potential complications related to malnutrition.

Phase Angle in Nutritional Therapy

The Role of InBody Technology in Nutritional Therapy

The criticality of precise Phase Angle measurements in nutritional therapy cannot be stressed enough. This is where cutting-edge technologies like those from InBody come to the fore:

  1. Precision: InBody’s Bioelectrical Impedance Analysis (BIA) technology ensures that Phase Angle measurements are not only accurate but also consistent over time. This reliability is essential for monitoring changes in a patient’s nutritional status.
  2. User-Friendly Interface: With a simple setup and intuitive interface, InBody makes it easy for healthcare professionals to obtain their Phase Angle measurements. This accessibility empowers users to track nutritional progress without requiring extensive technical expertise.
  3. Integration with Medical Systems: InBody devices are designed for seamless integration into broader healthcare systems, making them invaluable in clinical settings. This capability ensures that Phase Angle data is efficiently incorporated into patients’ medical records, allowing dietitians and nutritionists to make informed decisions regarding nutritional therapy.
  4. Comprehensive Evaluation Result Sheet: The Evaluation Result Sheet from the InBody970 offers a comprehensive analysis by comparing an individual’s body composition data with a reference population. It provides average and standard deviation graphs based on age and gender. Notably, it includes a Phase Angle evaluation graph, allowing healthcare providers to visualize how a patient’s Phase Angle compares to others of the same age and younger. With clear visual graphs and comparative data, dietitians and nutritionists can develop personalized nutritional therapies. For example, if a patient’s Phase Angle is notably lower than the average for their age, targeted strategies, such as increasing protein intake or specific nutrient supplementation, can be implemented to improve overall health.

By leveraging the advanced features of InBody technology, healthcare professionals can enhance their approach to nutritional therapy, enabling more personalized and effective interventions that ultimately improve patient outcomes.

Conclusion

In conclusion, the integration of Phase Angle measurements through InBody technology is revolutionizing nutritional therapy. By providing accurate and consistent data, healthcare professionals can gain critical insights into an individual’s cellular health and nutritional status. This empowers healthcare providers to implement effective strategies that improve patient outcomes and promote overall well-being.

If you’d like to discover how InBody technology can enhance your approach to nutritional therapy or have any questions about our services, we encourage you to reach out to us.

Contact Us & Transform Your Nutritional Therapy with InBody!

Sarcopenia and Osteoporosis

Sarcopenia & Osteoporosis: Silent Threats to Our Muscles & Bones

By BIA, Blog, Body Composition, Medical, Muscle

As we age, our bodies undergo a variety of changes that can significantly impact our overall health and quality of life. Among these changes, the loss of muscle mass and bone density are particularly concerning, leading to conditions known as sarcopenia and osteoporosis. These two conditions, often called the “silent threats” to aging, can increase frailty and the risk of falls and fractures, which negatively impact mobility, independence, and overall quality of life.

Thus, understanding these conditions is crucial for both prevention and management. In this blog post, we’ll explore what sarcopenia and osteoporosis are, their connection, and how to screen for them using Bioelectrical Impedance Analysis (BIA) technology.

What is Sarcopenia?

Sarcopenia is the age-related loss of muscle mass, strength, and function. This condition can begin as early as our 30s and progresses with age, often leading to decreased physical activity, mobility issues, and an increased risk of falls.

Symptoms may include:

  • Reduced muscle strength
  • Increased fatigue during daily activities
  • Difficulty with balance and coordination

Sarcopenia Symptoms

What is Osteoporosis?

According to the World Health Organization (WHO), osteoporosis is a systemic skeletal disorder marked by low bone mass and deterioration of bone tissue microarchitecture, leading to increased bone fragility and a higher risk of fractures.

Osteoporosis is often referred to as a “silent disease” as it can progress without noticeable symptoms until a fracture occurs.

Common indicators include:

  • Fractures from minor falls
  • Loss of height over time
  • Changes in posture, such as a stooped back

Osteoporosis Symptoms

The Connection Between Sarcopenia and Osteoporosis

Sarcopenia can contribute to osteoporosis through a mechanism called mechanical loading.

Mechanical loading refers to the physical forces applied to bones and muscles when subjected to weight, movement, or resistance. For example, when you lift a dumbbell or carry groceries, your muscles pull on your bones, creating this mechanical load. This pulling action signals the bones to adapt and strengthen. In response, bones undergo a process called bone remodeling, during which new bone tissue is formed while old or damaged tissue is removed.

Mechanical Loading

However, when muscle function declines, as seen in sarcopenia, there is less force applied to the bones. This reduced mechanical loading means that bones receive less stimulation to maintain or build their strength. Over time, without this crucial stimulation, bone loss increases, contributing to the development of osteoporosis.

Connection of Sarcopenia and Osteoporosis

How to Screen for Both Sarcopenia and Osteoporosis with InBody

Monitoring muscle and bone health is crucial for early detection and management of sarcopenia and osteoporosis. To support this effort, the InBody Body Composition Analyzer and the newly launched InGrip Hand Grip Strength Dynamometer offer valuable metrics that facilitate comprehensive screening for these conditions.

 

1. Skeletal Muscle Mass (SMM): SMM represents the total weight of skeletal muscles in the body. Regular monitoring of SMM is crucial for detecting changes in muscle mass over time, enabling early intervention when declines are observed. In particular, a reduction in SMM can signal the onset of sarcopenia.

2. Skeletal Muscle Mass Index (SMI): SMI measures the amount of skeletal muscle relative to height, providing a standardized assessment that helps identify sarcopenia risk. By comparing an individual’s muscle mass to expected values based on their height, healthcare providers can detect early signs of muscle loss. A low SMI indicates a potential risk for sarcopenia, prompting further evaluation and intervention.

3. Segmental Lean Analysis (SLA): Segmental Lean Analysis provides a detailed view of lean mass distribution across different segments of the body (arms, legs, and trunk). This analysis helps identify asymmetries in muscle distribution, which can indicate potential issues such as muscle weakness or imbalance. A decline in muscle mass or imbalances identified through SLA can signal the risk for both sarcopenia and osteoporosis, as weaker muscles may lead to decreased bone density and higher susceptibility to fractures.

4. Body Cell Mass (BCM): BCM is an important predictor for both sarcopenia and osteoporosis. It represents the total mass of all cellular elements in the body, including muscle tissue, organ tissue, and intracellular water. A decrease in BCM typically indicates a loss of functional muscle mass, which can signal the onset of sarcopenia. Additionally, reduction in BCM also disrupts the bone remodeling process, leading to decreased bone density and contributing to the development of osteoporosis.

5. Bone Mineral Content (BMC): BMC measures the total amount of mineral in the bones, providing insight into bone density and overall bone health. A higher BCM indicates stronger bones, while a lower value may suggest an increased risk of osteoporosis and fractures.

Using these metrics, healthcare professionals can assess individual risks and tailor intervention strategies to promote muscle and bone health.

6. Handgrip Strength (HGS): HGS measured using the InGrip Hand Grip Strength Dynamometer is a simple yet effective measure of overall muscle strength. By evaluating the maximum force exerted by the hand during a grip, this metric reflects functional muscle performance. Lower handgrip strength is associated with decreased physical capability and an increased risk of sarcopenia.

Conclusion

As we navigate the aging process, understanding the impacts of sarcopenia and osteoporosis is essential for maintaining our health and quality of life. Both conditions pose significant risks, but by recognizing their signs through regular screenings, we can take proactive steps to mitigate their effects. By prioritizing our awareness and taking action, we empower ourselves to age gracefully and maintain our independence, mobility, and overall well-being for years to come!

Discover more about our latest InBody970!

InBody in Aesthetic Clinics: Step-by-Step Application Guide

By Aesthetics, Blog, Fat mass, Medical

Outline

 

In today’s aesthetic and wellness clinics, understanding and managing body composition has become increasingly important. The InBody body composition analyzer, a cutting-edge tool, is revolutionizing how you can offer personalized care to your clients. In this guide, we’ll explore the step-by-step application of InBody in aesthetic clinics, emphasizing its benefits, usage, and interpretation of results.

Fat Reduction in Aesthetic Clinic

What is an InBody test?

InBody is a medical device that measures body composition through a method called bioelectrical impedance analysis (BIA). This advanced method sends a small alternating current through the body, enabling precise measurements of body composition, including fat mass, water content, lean mass, and cell’s integrity.

By stepping on the InBody device for less than 1 minute, you can obtain a detailed body composition analysis with a comprehensive breakdown of muscle, fat, and water distribution in the body, which is crucial for tailoring client treatments in aesthetic care.

Integrating the InBody device into your services gives you a more nuanced understanding of each client’s physical makeup, allowing for more customized and effective treatment plans. This not only enhances the accuracy of weight and body fat measurements but also informs decisions regarding water retention, muscle mass, and fat distribution, empowering you to guide clients more effectively towards their body physique goals.

Step-by-Step Application of InBody in Aesthetic Clinics

Step 1: Pre-Test Preparation

Before conducting an InBody test, certain preparatory steps are necessary to ensure accurate results. These include maintaining normal fluid intake, avoiding heavy meals or exercise for a few hours prior to the test, and removing any accessories that might interfere with the test.

Learn the tips for getting the accurate InBody results

Additionally, it is recommended to conduct the InBody test before starting any treatment or service. This ensures that you obtain the most accurate result, as it reflects the client’s body condition in its normal state.

Step 2: Conducting the Test

The test process is straightforward. Clients stand on the InBody machine and hold onto its handles. The device sends a low-level electrical current through the body to measure impedance in different body components.

Step 3: Data Collection and Analysis

Once the test is completed, InBody machines provide a detailed printout or digital report. This report breaks down the client’s body composition into muscle, fat, and water content, alongside other valuable metrics.

Step 4: Interpreting the Results

Clinicians interpret the results to provide clients with insights into their body composition and how it relates to their overall health and aesthetic goals. The InBody report breakdown is easy to understand and can be clearly explained to clients. This helps them grasp the importance of your treatment in your clinics.

Step 5: Integrating InBody Data into Treatment Plans

The final step involves using the InBody data to create or adjust treatment plans. This might involve targeting specific areas for fat reduction treatments, muscle stimulation, adjusting dietary recommendations, or modifying fitness regimens.

Treatment in Aesthetic Clinic

Incorporating InBody into Your Clinic’s Services

  • Enhanced Client Satisfaction: InBody provides tangible, objective data that can be used to track the progress of treatment over time. With detailed information on body composition, clients will be able to understand and be more convinced of the reasons behind the treatment plans that you have suggested to them.
  • Improving Treatment Deals: Ensure that all staff members are trained to operate the InBody machine and interpret the results accurately. This will enable you to teach the staff how to suggest treatment plans in a more reasonable way based on clients’ body composition data, leading to more effectively targeted and improved deals.
  • Marketing and Promotion: As InBody is a well-known product in the beauty and fitness industry, it can be used as a marketing tool to attract clients who are interested in personalized health and aesthetic services.

Advanced Interpretation of InBody Data in Aesthetic Clinic Practice

In aesthetic clinics, the detailed data from InBody assessments can be leveraged to design highly personalized treatments. Here’s an expanded look at key metrics provided by InBody and their application in aesthetic practices:

  1. Skeletal Muscle Mass (SMM): This metric indicates the amount of muscle attached to bones. In aesthetic clinics, understanding a client’s SMM is crucial for body contouring and sculpting treatments. A higher SMM often correlates with a more toned appearance, guiding the focus of muscle-enhancing or fat-reduction treatments.
  1. Percent Body Fat (PBF): PBF shows the proportion of a person’s weight that comes from fat. It’s a critical measure for weight loss and body-sculpting procedures. Clinicians can use PBF to identify areas of excessive fat accumulation and tailor nonsurgical fat removal treatments like cryolipolysis.
  1. Segmental Lean Analysis: This provides a breakdown of muscle distribution across the body, including each limb and the trunk. In aesthetic clinics, this data is invaluable for identifying muscle imbalances or areas needing enhancement. For example, if one arm or leg shows less muscle mass, targeted treatments or exercises can be recommended to achieve symmetry.
  1. Basal Metabolic Rate (BMR): BMR is the number of calories the body needs to perform basic functions at rest. It’s a valuable metric for designing weight management programs. Clients with a lower BMR might require different dietary or exercise recommendations compared to those with a higher BMR.
  1. Body Water Analysis: Understanding a client’s hydration levels and water distribution is crucial for skin health, recovery post-treatment, and overall well-being. The ECW Ratio provided by InBody can help detect edema and post-procedural fluid retention. It can also be used to check for any risks of whole-body and localized inflammation.
  1. Body Composition History: Tracking changes over time allows clinicians to monitor the effectiveness of treatment plans and make adjustments as needed. This historical data provides a comprehensive view of a client’s journey, enhancing the personalization of care.

Conclusion

InBody represents a significant advancement in the field of aesthetic wellness. By providing detailed, accurate, and personalized body composition data, it empowers clinics to offer better, more targeted treatments.

Navigating higher sales in the aesthetic industry can be quite challenging, but with the help of InBody, you could achieve remarkable success with your client’s physique goals. Our team of dedicated InBody specialists are here to guide you every step of the way.

Take the first step towards boosting your sales by contacting our InBody specialist today. They will provide you with valuable insights and personalized solutions tailored to your specific needs. Don’t miss out on this opportunity to take your business to new heights!

Redeem your one-week free InBody970 trial at your clinic!

Uncovering Water Retention: Elevating Aesthetic Services with InBody Analysis

By Aesthetics, Blog, Body Composition, Body Composition Analysis, Medical
Water retention is a frequently encountered issue in the field of aesthetics, which can have an impact on treatment results and client contentment. InBody’s bioelectrical impedance analysis (BIA) presents an innovative method for comprehending and addressing water retention, thanks to technological advancements.

This blog post explores the transformative potential of utilizing the Extracellular Water (ECW) Ratio and Segmental ECW Ratio, as measured by InBody devices, in enhancing aesthetic clinic services and treatments.

Understanding Water Retention in the Human Body

Water retention, or fluid accumulation in the body, can significantly impact the appearance and be a hindrance to achieving desired aesthetic outcomes. It can manifest as swelling or puffiness, particularly around the limbs, abdomen, and face. Several factors contribute to water retention, including hormonal changes, dietary habits, and certain medical conditions.

In aesthetic clinic practice, addressing clients’ concerns about their body shape is crucial. While body fat is often a primary focus, it is important to identify other potential causes of body swelling, such as edema, before applying treatments like body contouring. This comprehensive approach ensures that the underlying issue is properly addressed, leading to better treatment outcomes and client satisfaction.

Edema on Swollen Leg

The Role of InBody Analysis in Detecting Water Retention

InBody devices, equipped with cutting-edge BIA technology, offer a detailed analysis of body composition. This includes valuable information on the Extracellular Water (ECW) Ratio, which measures the proportion of extracellular water (the fluid outside cells) to total body water (the combined amount of water inside and outside cells).

A healthy ECW Ratio typically falls within the range of 0.360 to 0.390.

ECW Ratio in InBody

High ECW Ratio (above 0.390):

  • Could indicate excess fluid accumulation outside your cells, potentially due to:
    • Inflammation
    • Heart or kidney disease
    • Post-surgery
    • Could indicate the reduction of fluid inside your cells, potentially due to:
      • Malnutrition
      • Sarcopenia (muscle loss)
      • Ageing

    Low ECW Ratio (below 0.360):

    • Might be seen in athletes with exceptionally high muscle mass

    Beyond the Big Picture: The Power of Segmental ECW Ratio Analysis

    InBody test provides a comprehensive overview of your body composition. However, the true magic happens when we go further with segmental ECW ratio analysis. This advanced feature enables us to measure the ECW Ratio in various body segments, such as the arms, legs, and trunk.

    Segmental ECW Ratio in InBody Results

    Think of it like having a magnifying glass for your water balance. This granular approach exposes localized fluid imbalances or inflammation, offering invaluable insights for targeted interventions.

    For example, if the ECW Ratio is elevated primarily in the lower limbs, it might suggest lymphatic drainage issues or circulatory concerns.

    If the symptoms of the elevated ECW Ratio persist, it is always recommended to inquire about the medical background of your clients. Persistent edema can occur post-surgery for breast cancer, as well as after injury or due to kidney or heart-related issues. Patients with chronic diseases who require monitoring of their inflammation status and edema symptoms are strongly advised to seek a proper diagnosis and consultation with a medical specialist.

    How to Integrate ECW Analysis into Aesthetic Treatments?

    The practical application of ECW and Segmental ECW analysis in aesthetic treatments is vast. Here are a few scenarios where InBody’s detailed water analysis proves invaluable:

    • Pre-treatment Assessment: Prior to initiating any treatment, conducting a comprehensive assessment of the body’s water balance can assist clinicians in selecting the most appropriate methods. For example, if high extracellular water (ECW) is identified in specific body segments, it indicates that thicker limbs may be attributed to water retention rather than fat accumulation.
    • Additional Insights for Treatments: Cryolipolysis is a treatment that targets fat cells by using cold temperatures. However, considering the ECW Ratio can provide even more precision. By targeting areas with higher body fat using cryolipolysis and targeting areas with a high ECW Ratio using lymphedema drainage massage, the body slimming efficacy may be improved compared to targeting areas only based on visual assessment.
    • Post-procedure Monitoring: After procedures like liposuction or non-invasive body sculpting, it is normal to experience some swelling as a normal body response. InBody analysis can be used to detect these swellings as fluid shifts and provide guidance for post-procedure care, such as suggesting the use of compression garments or lymphatic massage in specific areas.

    InBody’s ECW Ratio and Segmental ECW Ratio provide a deeper level of understanding that can enrich client consultations. Educating clients about their body composition and water balance helps set realistic expectations and fosters a more collaborative approach to treatment planning. For example, explaining how water retention might temporarily mask the effects of a fat-reduction procedure can help manage expectations and encourage patience in seeing results.

    Consultation of physician in aesthetic clinic

    Advancing Client Consultations with InBody Insights

    As aesthetic clinics continue to adopt advanced technologies like InBody, the client experience and treatment outcomes are set to improve significantly:

    • Enhanced Client Satisfaction: With more data at their fingertips, clients can become more informed about their body composition data in their treatment journey, leading to increased engagement and satisfaction.
    • Personalized Treatment Plans: Knowing the extent and distribution of water retention can help in fine-tuning treatment parameters, thereby enhancing efficacy and reducing the risk of adverse effects. By understanding a client’s water balance, practitioners can customize treatments, such as lymphatic drainage or targeted body sculpting, for more effective results.
    • Objective Monitoring and Progress Tracking: Regular InBody assessments provide objective data to track the effectiveness of treatments in reducing water retention and improving overall body composition.
    • Holistic Approach to Clients’ Physique Goals: InBody analysis encourages a comprehensive approach that takes into account not only the aesthetic aspect but also the overall health and wellness of clients. This includes providing insights into muscle and body fat composition, as well as calorie recommendations. Tailored recommendations based on these areas can help clients achieve their desired physique goals through your treatment plans.

    The integration of InBody’s ECW and Segmental ECW analysis into aesthetic clinic services represents a significant advancement in personalized care. It provides a nuanced understanding of water retention, which in turn enables more effective treatment planning, execution, and monitoring.

    Treatment in Aesthetic Services

    Conclusion

    InBody technology is revolutionizing aesthetic clinics by providing detailed insights into water retention and body composition. This enables them to offer more effective and personalized treatments, leading to improved client outcomes and satisfaction. As this technology continues to evolve, it will undoubtedly shape the future of aesthetic services, emphasizing a holistic approach to beauty and health.

    Start by contacting our InBody Specialist now to explore the full potential of your aesthetic clinic business with InBody.

    Redeem your one-week free InBody970 trial at your clinic!

    The Importance of Phase Angle for Athletes’ Performance

    By BIA, Body Composition, Body Composition Analysis, Fitness, Medical, Muscle, Nutrition

    Outline

    In the realm of elite sports, achieving and maintaining peak performance is a multifaceted endeavor. Athletes and coaches constantly seek innovative methods to enhance performance, optimize recovery, and prevent injuries.

    Among the various metrics and tools at their disposal, one that stands out for its unique insights is the measurement of Phase Angle (PA). This blog post delves into the significance of Phase Angle for athletes, offering essential tips for leveraging this metric for improved performance and recovery.

    Image of a male athlete in mid-stride running on an outdoor track field with his max performance

    What is Phase Angle?

    Phase Angle is a key metric derived from Bioelectrical Impedance Analysis (BIA), a method used by high-tech devices like InBody. It measures the integrity of body cells and quantity of an athlete’s lean body mass, reflecting the health of their cells and tissues. In simple terms, Phase Angle provides a snapshot of an athlete’s cellular health, which is a cornerstone of their overall physical condition.

     Whole Body Phase Angle which related to athletes' performance

    Research Insights on Phase Angle and Muscular Performance

    Recent research further underscores the significance of Bioelectrical Impedance Analysis (BIA)-derived Phase Angle (PhA) in assessing muscular performance among athletes.

    A comprehensive study involving 117 adult athletes from diverse sports backgrounds examined the correlation between whole-body PhA and muscular performance. Key performance metrics, including handgrip strength and countermovement jump power, were evaluated in relation to both WB and regional PhA, alongside lean soft tissue measurements obtained via BIA and dual-energy x-ray absorptiometry.

    The findings were revealing: whole-body PhA showed a positive association with both relative power and relative absolute strength, independent of lean soft tissue.

    💡
    This implies that PhA, whether measured for the entire body or a specific region, can be a useful indicator of muscle health, which is important for assessing an athlete’s performance.
    A graph illustrating 'Segmental Body Phase Angle' measurements at frequencies of 5kHz, 50kHz, and 250kHz for different body parts labeled RA (Right Arm), LA (Left Arm), TR (Torso), RL (Right Leg), and LL (Left Leg). The body parts are color-coded with pink for clarity.

    Why is Phase Angle Crucial for Athletes?

    1. Muscle Quality Assessment: The Phase Angle is an indicator of muscle health and function. For athletes, a higher Phase Angle is typically associated with better muscle quality, which is crucial for strength, endurance, and performance.
    1. Training and Recovery Insights: Monitoring changes in Phase Angle can help in assessing the impact of training regimes and recovery strategies. A decreasing Phase Angle might suggest inadequate recovery, or emerging health issues.
    1. Nutritional Evaluation: When Phase Angle and muscle mass remain stagnant, it could suggest that the dietary plan was not adhered to as strictly as the training regimen required. Nutritional evaluation, including the optimization of dietary plans based on Phase Angle, becomes crucial to ensure the body receives the appropriate balance of nutrients for effective muscle development and recovery.

    Maximizing Performance with Phase Angle

    Athletes with a higher Phase Angle generally have better cellular health, which correlates with greater and stronger muscle mass. Athletes looking to maximize their performance can benefit significantly from monitoring their Phase Angle. Here are some ways to use Phase Angle data effectively:

    1. Personalized Training Programs: Understanding individual variations in cellular health can lead to customized training programs that cater to specific needs and goals.
    2. Optimized Recovery Strategies: Phase Angle can indicate the body’s state of stress and recovery. Athletes can use this data to tailor their recovery protocols, ensuring adequate rest and recuperation.
    3. Nutritional Adjustments: Regular monitoring of Phase Angle can signal the need for nutritional adjustments. Athletes can work with nutritionists to modify their diet, focusing on nutrients that enhance cellular health and performance.

      Phase Angle could help coach to understand the recovery of the athlete

      Injury Recovery Tracking and Enhanced Rehabilitation

      Phase Angle is not only related to sports performance, but it is also a crucial tool for tracking the progress and effectiveness of injury recovery and rehabilitation. Here is how Phase Angle can be utilized in these areas:

      1. Phase Angle as an Indicator of Injury Recovery: An increasing Phase Angle can be an early indicator of improvement for injury, allowing the health practitioner to know that the athletes are complying with the rehab instructions.
      1. Tailored Rehabilitation Programs: If the phase angle is declining or not improving, it could indicate that the current rehab routine is not suitable for the athletes. Monitoring the phase angle during the recovery process can help design rehabilitation programs that promote faster and more effective healing.
      1. Return-to-Play Decisions: Accurate assessment of an athlete’s readiness to return to play post-injury is crucial. Phase Angle measurements can provide objective data to support these decisions.

      Photo of a person sitting on a yoga mat and receiving help to perform a leg exercise using a green foam roller, focusing on the calf muscle. The individual helping is wearing a white shirt and gray pants, while the person exercising is in a gray sweatshirt and blue leggings.

      Actionable Tips for Improving Phase Angle

      Improving Phase Angle is synonymous with enhancing cellular health, muscle quality, and overall physical well-being. Athletes can take several actionable steps to positively influence their Phase Angle readings:

      1. Balanced and Nutrient-Dense Diet: Focus on a diet rich in nutrients that support cellular health, including antioxidants, healthy fats, and adequate proteins. Hydration is equally crucial.
      1. Regular Strength and Conditioning Training: Incorporate a balanced mix of strength, endurance, and flexibility training to enhance muscle quality and overall physical health.
      1. Adequate Rest and Recovery: Prioritize rest and recovery, including quality sleep, rest days, and active recovery sessions, to allow the body to repair and strengthen.
      1. Stress Management: Chronic stress can negatively impact cellular health. Engage in stress-reduction techniques like meditation, yoga, or other relaxation practices.
      1. Regular Health Check-ups: Besides tracking Phase Angle, regular health check-ups can provide a comprehensive view of an athlete’s health status and inform adjustments in training and lifestyle.
      A coach in a white T-shirt and two male athletes, one in a blue tank top and the other in a black T-shirt, are discussing strategy over a clipboard on a bench beside a basketball court. The coach appears to be explaining tactics with the players attentive.

      Concluding Thoughts: The Transformative Impact of Phase Angle

      Understanding and utilizing Phase Angle can be a game-changer for athletes at all levels. This metric offers a deeper insight into the body’s inner workings, going beyond traditional measures of fitness and performance. By focusing on improving their Phase Angle, athletes can enhance their performance, speed up recovery, prevent injuries, and potentially extend their sports careers.

      Regular monitoring of Phase Angle, combined with tailored training and recovery strategies, can help athletes stay at the top of their game. The integration of this metric into sports regimes signifies a move towards more personalized and effective athletic training and health management.

      In conclusion, Phase Angle is more than just a number; it’s a reflection of an athlete’s overall health and a predictor of their athletic potential. By embracing this powerful tool, athletes and coaches can unlock new levels of performance and longevity in sports.

      Why Does Muscle Mass Matter for Patients in Hospitalization?

      By BIA, Blog, Body Composition, Body Composition Analysis, Medical

      Outline

      The Vital Importance of Muscle Mass in Hospitalized Patients

      Muscle mass plays an essential role far beyond just strength and mobility; it is a crucial determinant of health outcomes for patients in hospitals. This challenge is further magnified in a hospital setting, where patients often experience prolonged bed rest and limited physical activity, leading to accelerated muscle loss.

      Particularly alarming is the fact that critically ill patients can lose almost 2% of their skeletal muscle daily during the first week of ICU admission. Understanding and addressing this rapid deterioration of muscle mass is vital, especially in the context of hospital care.

      Importance of Muscle Mass for Inpatient

      Why Shouldn’t We Ignore Inpatient Muscle Mass?

      1. Enhanced Recovery Rates: Adequate muscle mass is associated with better overall recovery. Patients with higher muscle mass often experience shorter hospital stays and an improved ability to resume daily activities post-discharge.
      1. Reduced Complications: Strong muscles support not only movement but also contribute to better immune system functioning. This can lead to fewer complications, such as infections or pressure sores, during hospital stays.
      1. Lower Risk of Readmission: Studies have shown that patients with lower muscle mass and sarcopenia have a higher chance of hospital readmission. Maintaining muscle mass can be a protective factor against recurring disease complications and hospital visits.

      The Consequences of Sarcopenia in Hospitalized Patients

      Sarcopenia refers to the loss of muscle mass, strength, and function that occurs with ageing or as a result of certain medical conditions.

      Sarcopenia frequently develops during hospitalization in acute care facilities. Hospital-associated sarcopenia can manifest not only in acute care hospitals but also in rehabilitation and long-term care hospitals.

      Acute sarcopenia specifically pertains to sarcopenia that primarily arises during an acute hospitalization and carries significant implications.

      1. Increased Mortality Risk: According to Lee et al. (2020), muscle loss in the first week of a critical illness is linked with five times higher odds of mortality within 60 days.

      2. Functional Decline: A decline in muscle mass can lead to reduced functional capacity, affecting basic activities like walking and self-care. This is known as sarcopenia, a condition where muscle loss is directly correlated with decreased walking speed and grip strength.

      💡 Muscle mass loss due to prolonged bed rest or inactivity can increase the risk of injuries and worsen the disease. This can be demonstrated in Segmental Lean Analysis (refer to the diagram below). It shows that a reduction in muscle mass in the lower limbs could serve as an indication for healthcare practitioners to intervene.
      Segmental Lean Analysis is used to check muscle mass in hospitalized patients.

      3. Long-Term Disability and Institutionalization: The loss of muscle strength and mass can extend the need for care even after discharge, increasing the risk of long-term disability and the likelihood of requiring institutional care.

      4. Psychological Effects: Loss of muscle mass can lead to decreased independence, contributing to feelings of helplessness and depression, which can further impede recovery.

      Patients need enough muscle mass for recovery and mobility

      Strategies to Preserve Inpatient Muscle Mass

      The final part of our exploration into inpatient muscle mass focuses on strategies and interventions that can help preserve muscle mass during hospital stays, thereby enhancing patient recovery and long-term health outcomes.

      Effective Interventions for Maintaining Muscle Mass

      1. Early Mobilization: Encouraging patients to engage in physical activity as soon as medically feasible is crucial. Even simple activities like sitting up, standing, or short walks can make a significant difference.
      1. Nutritional Support: Adequate nutrition, particularly protein intake, is essential for muscle maintenance. Hospitals should provide tailored nutritional plans that meet the specific needs of each patient, especially those at high risk of muscle loss.
      1. Resistance Training: Whenever possible, incorporating resistance exercises can help maintain and even build muscle mass. This can range from light resistance bands to more structured weight-lifting programs, depending on the patient’s condition.
      1. Physical Therapy: Physical therapists play a key role in designing individualized exercise programs that safely target muscle preservation and strength building.

      Tailoring Interventions to Individual Needs with InBody

      Effective management of muscle loss in hospitalized patients hinges on early detection and tailored interventions. InBody’s body composition analyzers emerge as crucial tools in this endeavour. These advanced devices provide accurate muscle mass measurements, empowering healthcare providers to identify patients at risk of muscle atrophy early in their hospital stay.

      1. Utilizing InBody for Early Identification: By utilizing InBody’s precise measurements, medical staff can accurately identify individuals who are showing signs of decreased muscle mass. This early detection is especially crucial for high-risk groups, such as the elderly or those with chronic conditions. One way to assess the risk of sarcopenia is by evaluating the patient’s Skeletal Muscle Index (SMI).

      💡 The Skeletal Muscle Index (SMI) is a measurement used to assess muscle mass. SMI values below 7.0 kg/m^2 in men and 5.7 kg/m^2 in women are considered one of the diagnostic criterias for sarcopenia. Evaluating a patient’s SMI allows healthcare providers to determine the severity of muscle loss and plan appropriate interventions to address it.

      Skeletal Muscle Index (SMI) are used to analyse hospitalized patients' muscle mass

      BWA to assess hospitalized patients' muscle mass 2. Setting Data-Driven Goals: InBody analyzers are not just diagnostic tools; they are integral to rehabilitation and recovery programs. Healthcare providers can use InBody data to set measurable goals for muscle mass improvement and to tailor interventions like nutritional plans and physical therapy regimes.

      3. BWA 2.0: Specialized Care for Immobile Patients: The BWA 2.0 body water analyzer is designed to meet the specific needs of wheelchair or bedridden patients. It allows for supine testing, measuring muscle mass while the patient is lying down, providing comfort and ease in less than 90 seconds. This feature is crucial for accurate assessment in patients who are unable to use standard body composition analyzers in standing posture.

       

      4. Interdisciplinary Approach Enhanced by InBody: The collaboration among doctors, nurses, nutritionists, dietitians, and physical therapists is enriched through the data provided by InBody. This comprehensive approach ensures that muscle mass preservation strategies are well-coordinated and effective.

      5. Patient and Family Education Empowered by InBody Data: Educating patients and their families about the importance of muscle mass and ways to support muscle health is crucial. InBody’s clear and precise data can be used to inform and empower patients and their families, encouraging active participation in the recovery process.

      Through the use of InBody’s technology, hospitals can ensure a more personalized and effective approach to combating muscle atrophy, leading to better health outcomes and improved quality of life for patients.

      Conclusion

      In conclusion, understanding the importance of muscle mass in hospitalized patients and implementing strategies to preserve it are crucial for improving health outcomes in hospitalized patients. By focusing on early mobilization, nutritional support, resistance training, and tailored interventions, healthcare providers can significantly impact patients’ recovery trajectories, quality of life, and overall health.

      Through proactive and collaborative efforts, we can ensure that muscle mass is not just an afterthought in patient care but a central component of effective hospital treatment and recovery.

      How to Interpret Your Phase Angle Results: A Step-by-Step Guide

      By Blog, Body Composition, Body Composition Analysis, Medical, Nutrition

      Phase Angle is a potent and sometimes misunderstood metric when it comes to body composition analysis. It’s not as straightforward as measurements like body fat percentage or muscle mass, but understanding your Phase Angle results can offer profound insights into your overall health and fitness.

      This blog post aims to shed light on the mystery of Phase Angle and guide you through the process of interpreting your Phase Angle results.

      Understanding Phase Angle: A Crucial Metric of Health

      Whole Body Phase Angle in InBody

      Before we start, it’s important to understand what Phase Angle is and why it’s important. Phase Angle is a measure of your body’s resistance and reactance, as analyzed by a device like the InBody machine. InBody’s Phase Angle can give you an overview of your cellular health and help you better understand your overall physical wellness.

      Steps to Determine What is a Good Phase Angle

      Step 1: Understand Your Reading

      The first step in interpreting your Phase Angle results is understanding your reading. Phase Angle is expressed in degrees. These degrees reflect the balance between resistance (how the electric current from the BIA device travels through fluids) and reactance (how the electric current is stored in the body’s cell membranes).

      Higher Phase Angle scores indicate greater cell integrity and function, reflecting healthier and more robust cells. Conversely, lower Phase Angle scores could imply compromised cellular health or potential malnutrition.

      High and Low Phase Angle meaning

      In the context of fitness, a healthy Phase Angle can be associated with more effective workouts, quicker recovery times, and improved overall athletic performance. When it comes to a patient’s health status, it can indicate better nutritional status and even help predict the risk of morbidity and mortality.

      Step 2: Consider Factors that Influence Phase Angle

      Age, gender, and overall health status can influence Phase Angle values. Therefore, it’s essential to take these factors into account when interpreting your results. For instance, as we age, our Phase Angle tends to decrease due to the natural degeneration of cellular health.

      Step 3: Compare with Reference Values

      Phase Angle in Population

      Phase Angle results aren’t standalone figures. They are best interpreted by comparing them with reference values. A higher Phase Angle compared to the average population (>50th percentile) usually means you have healthier cell status and body composition.

      The latest model, InBody970, provides a comparative feature that can be viewed in the InBody Evaluation Result Sheet. By comparing your current Phase Angle with the age-evaluation graph, you can determine whether it is adequate compared to the population data.

      Additionally, you can compare your data to the young age group (T-score) and the same age group (Z-score), which provides a more detailed understanding of your cellular health status.

      Step 4: Monitor Changes Over Time

      By monitoring your Phase Angle over time, you can track the effectiveness of your health and fitness interventions. An increasing Phase Angle could signify improved health and fitness, while a decreasing Phase Angle may warrant adjustments to your nutrition or exercise routine.

      Step 5: Consult with a Health Professional

      Finally, it’s always best to consult with a health professional to fully understand your Phase Angle results. They can help you relate these results with other health indicators and devise a plan tailored to your specific needs and goals.

      Doctor explaining about Phase Angle

      Learn to use phase angle for patient health monitoring

       

      Conclusion

      Your Phase Angle results are a valuable tool in assessing your overall cellular health, which is an often overlooked aspect in typical health assessments. By providing a more in-depth look at your cellular health, these results can help you make more informed decisions about your health, fitness, and nutrition.

      Armed with this knowledge, you can take steps towards a more optimized wellness journey, tailoring your lifestyle choices to best support your cellular health and overall well-being. For example, you may choose to incorporate more nutrient-dense foods into your diet or adjust your exercise routine to better support your cellular health. Ultimately, a greater focus on your cellular health can lead to improved long-term health outcomes and a better quality of life.

      ECW Ratio: The Overlooked Health Indicator About Inflammation

      By BIA, Body Composition, Health, Medical

      Extracellular Water (ECW) Ratio, a critical parameter in body composition analysis, plays a significant role in understanding various health conditions. One of the lesser-known connections is between the ECW Ratio and inflammation, which can impact overall health and wellness.

      This blog post will delve into the hidden link between the ECW Ratio and inflammation, exploring how the ECW Ratio is associated with acute and chronic inflammation. By understanding these connections, we can better monitor, manage, and improve the health of different kinds of patients.

      What is ECW Ratio and Why Does It Matter?

      The ECW Ratio is an important indicator of body water balance, which measures the proportion of extracellular water (the fluid outside cells) to total body water (the combined amount of water inside and outside cells).

      Patient's ECW ratio exceeds the upper limit of the normal range.

      In a healthy state, the ECW Ratio should range between 0.360 to 0.390. When the ECW Ratio falls outside this range, it may indicate potential health concerns.

      A ratio higher than the normal range may suggest an excess of extracellular water, which can be associated with inflammation and other health conditions such as heart and kidney disease.

      By looking at how the ECW Ratio equation is calculated above, you will be able to understand the underlying factors and how they are linked to inflammation in the body.

      [Note: Total Body Water (TBW) = Extracellular Water (ECW) + Intracellular Water (ICW).]

       

      The increase in ECW Ratio is often due to two factors:

      • An increase in ECW
      • A decrease in ICW

      In this blog post, we will primarily discuss the increase in extracellular water (ECW) and its link to inflammation in our body.

      Acute Inflammation and ECW Ratio

      Acute inflammation is the body’s natural response to injury or infection, characterized by redness, swelling, heat, and pain. It is a necessary and beneficial process that helps the body heal and repair damaged tissue. Acute inflammation can cause localized edema, which may affect the ECW Ratio by increasing extracellular water in the affected area.

      Close-up of a young man with a knee injury and signs of inflammation.

      The Segmental ECW Ratio Analysis allows health professionals to identify any body segments that may experience circulation issues that could be due to health conditions, rehabilitation (injury), or peripheral edema.

      Segmental ECW Ratio

      The Segmental ECW Ratio Analysis is a useful tool for health professionals to identify circulation issues in different parts of the body. By identifying the ECW Ratio in specific body segments, the analysis can help pinpoint potential injuries or inflammation that may be present in certain parts of the body segment.

      Additionally, the analysis can be used to monitor circulation during rehabilitation from injury, as well as track the progression of peripheral edema in patients. With this information, health professionals can develop more targeted treatment plans to address circulation issues and improve overall health outcomes for their patients.

      Chronic Inflammation and ECW Ratio

      Chronic inflammation is a persistent, low-grade inflammation that can have serious health consequences if left unchecked.

      It can cause swelling, which can lead to an increase in extracellular water and affect the reading of the ECW Ratio. This can be particularly problematic for patients with chronic diseases, such as heart and kidney disease, diabetes, and cancer, who may already be dealing with imbalances in their body water distribution.

      By understanding the link between chronic inflammation and swelling, healthcare professionals can better monitor and manage the condition, potentially improving outcomes for their patients.

      Dialysis patient

      Chronic inflammation is a common issue in hemodialysis patients and is associated with increased morbidity and mortality. This inflammation is frequently accompanied by malnutrition, resulting in a malnutrition-inflammation complex syndrome. One study found that HD patients with low albumin levels and high C-reactive protein (CRP) levels, which are indicative of inflammation, had a higher risk of mortality.

      The ECW Ratio may be useful in this situation, as patients with complications from diseases often require different adjustments to their dry weight. For example, hemodialysis patients with diabetes or low albumin levels will have a higher ECW Ratio value, which needs to be considered when determining the dry weight.

      Using the ECW Ratio value in conjunction with trusted bioelectrical impedance analysis can provide healthcare professionals with more informed decision-making capabilities when consulting and intervening with dialysis patients.

      How the ECW Ratio is applied in Nephrology?

      Monitoring and Managing ECW Ratio and Inflammation

      Understanding the hidden link between the ECW Ratio and inflammation highlights the importance of monitoring and managing these factors for optimal health. Reducing inflammation may help maintain a healthy ECW Ratio and prevent the development of chronic health conditions associated with inflammation.

      Patients with chronic diseases who require monitoring of their inflammation status and edema symptoms are strongly advised to seek a proper diagnosis and consultation with a medical specialist.

      Conclusion

      The hidden link between the ECW Ratio and inflammation is a critical aspect of understanding overall health and well-being. By monitoring the ECW Ratio using InBody devices, individuals and healthcare professionals can assess body water circulation, identify potential imbalances, and take necessary steps to manage inflammation and related health conditions.

      Now that you understand how an increase in ECW can result in an increase in the ECW Ratio, you should also be aware that a decrease in ICW can also contribute to an increase in the ECW Ratio.

      Check out our blog post on the topic to learn more about the decrease in ICW and its relation to health complications. Understanding both factors could give you a more complete picture of how the ECW Ratio is related to inflammation and how it can affect your overall health and wellness.

      *Disclaimer: Please consult your healthcare professional for interpretation of the results and diagnosis.

      Senior people with sarcopenia

      ECW Ratio: Sarcopenia’s Unseen Predictor You Need to Know

      By Body Composition, Health, Medical

      Sarcopenia: A Silent Thief of Muscle Mass

      Aging brings about numerous changes in the body, one of the most alarming of which is sarcopenia. This age-related decrease in muscle mass and strength can contribute to functional impairment and a decline in the body’s overall water composition.

      Most of the water inside cells is stored in muscles. This process affects muscles directly, highlighting the importance of maintaining muscle mass for staying healthy at the cellular level.

      Malnutrition and Sarcopenia

      Compounding the problem of muscle loss is malnutrition, which can further accelerate the decline in muscle mass by depriving the body of essential amino acids and nutrients required for muscle maintenance and overall cellular health.

      This deprivation can lead to a reduction in intracellular water (ICW), which is vital for proper cellular function, and cause an increase in the extracellular water (ECW) ratio, a measure of fluid accumulation outside of cells that can further impact tissue health and function.

      Causes of deccreased in ICW

      ECW Ratio: A New Marker for Sarcopenia

      The most common method for diagnosing sarcopenia is through measuring muscle mass, usually via dual-energy X-ray absorptiometry (DXA) or bioelectrical impedance analysis (BIA). Other methods include measuring muscle strength, using handgrip dynamometry, and assessing physical performance, such as gait speed.

      The ECW Ratio, an indicator of the proportion of extracellular water in relation to total body water, has emerged as a key marker for sarcopenia and malnutrition.

      The Role of Inflammation in Sarcopenia

      In recent years, studies have suggested a possible association between sarcopenia and inflammation. Specifically, inflammatory cytokines have been shown to stimulate muscle wasting by prompting protein catabolism and suppressing muscle synthesis.

      There’s also evidence that chronic low-grade inflammation, also known as “inflammaging,” contributes to sarcopenia. Inflammaging is when there are more inflammatory molecules in your body that cause swelling as you get older. This can damage your tissues and make you more likely to get age-related conditions like type 2 diabetes, osteoarthritis, and sarcopenia.

      Older adult with sarcopenia

      According to a study, individuals with low grip strength had a 1.63 times higher Extracellular Water (ECW) Ratio than healthy individuals. The ECW Ratio is expected to be an effective indicator for tracking physical function under newly revised sarcopenia criteria.

      The ECW Ratio’s connection to sarcopenia emphasizes the importance of monitoring this measurement to better understand the impact of inflammation on muscle mass and overall health.

      ECW Ratio and Survival Rates in Cancer Patients

      Even more compelling is the application of the ECW Ratio in predicting survival rates among cancer patients with sarcopenia. Studies have shown that the ECW to Total Body Water (TBW) ratio can be a better predictor of survival than other indicators.

      Cancer patients with a high ECW/TBW ratio (>0.395) and a high Neutrophil-to-Lymphocyte Ratio (NLR) exhibited a 3.84-fold increased risk of mortality.

      This could be a useful tool for predicting survival rates in cancer patients with sarcopenia indicators, and its application can greatly benefit hospitals and geriatricians.

      For instance, early identification of changes in the ECW Ratio can provide critical insights into the progression of sarcopenia, allowing for earlier intervention and potentially better outcomes for hospitalized patients.

      In other words, the use of the ECW Ratio in predicting survival rates among cancer patients with sarcopenia can help healthcare professionals make more informed decisions about treatment options and potential outcomes.*

      Application of ECW Ratio for geriatrician

      Conclusion: The Importance of Monitoring the ECW Ratio in Sarcopenia Patient

      The association between sarcopenia and the ECW Ratio underlines the importance of monitoring this key health parameter. The early identification of changes in the ECW Ratio can provide critical insights into the impact of inflammation on muscle mass and overall health, promoting better management and possibly even prevention of sarcopenia.

      While sarcopenia and the ECW Ratio are related, an increased ECW Ratio may be caused by factors other than sarcopenia, such as inflammation. If you want to learn more about the connection between inflammation and the ECW Ratio, check out this blog post for insightful information on how inflammation affects body water balance and the ECW Ratio.

      *Disclaimer: Please consult your healthcare professional for interpretation of the results and diagnosis.

      Muscle and Its Role in Diabetes Risk

      By Diabetes, Fitness, Health, Medical, Muscle

      A widely-known but often misunderstood disease is steadily overtaking an increasing portion of the U.S. population. In this country, more than one-third of adults are at a high risk for developing this condition and causes about 330,000 deaths each year. This disease is diabetes.

      Diabetes, type 2 in particular, is a condition affecting an ever-expanding pool of Americans. In fact, the Centers for Disease Control and Prevention (CDC) reports that 30.3 million Americans had diabetes in 2015. That’s nearly 10 percent of the population! Furthermore, about 90 percent of those people had Type 2 Diabetes, and those numbers are only expected to rise.

      The steady increase in diabetes diagnoses is due, in part, to the obesity epidemic. 87.5 percent of adults with diabetes are overweight or obese according to their Body Mass Index (BMI), a simple health indicator based on the ratio of weight to height. However, these findings make it seem like only those with high body weight are at risk for diabetes, and that is not the case. In fact, so-called “skinny fat” people, individuals with a normal or low BMI but a high percent body fat, are at an increased risk to develop diabetes or prediabetes. As you can see, the underlying theme here is that, rather than a high body weight, it is an imbalanced body composition that increases the risk of diabetes. This is why it is important for those looking to reduce diabetes risk or manage their diabetes to understand their body composition.

      So what’s going on here? How does your body composition affect your diabetes risk, and can improve your body composition reduce that risk or help you overcome diabetes?

      Let’s first take a look at body composition. What is it and why is it important?

      What is Body Composition?

      The term “body composition” means exactly what it sounds like: the components that your body is made up of. Generally speaking, these components can be simply categorized as fat and fat-free mass. As you might expect, your fat-free mass, also called Lean Body Mass (LBM) is everything in your body that isn’t fat. It includes your lean muscle, organs, blood, and minerals.

      The body generally needs a balance of LBM and fat mass to function optimally and maintain positive health. However, this balance is disrupted in many overweight and obese individuals due to excess fat.

      Most people think that the ultimate goal for overweight individuals should be to lose weight, but this overlooks the bigger picture. In order to improve your health, get physically fit, and fit into those skinny jeans, you’re going to have to change your body composition. In other words, the goal for overweight individuals should not be to simply lose weight; instead, it should focus on improving body composition by reducing fat mass while maintaining or increasing LBM.

      Not only will a more balanced body composition make you look leaner, but it can also reduce your risk of diabetes and other obesity-related disorders. Furthermore, it can have a positive effect on your metabolism.

      Diabetes and Metabolism

      When most people think about metabolism, they imagine some magical system within the body that allows certain people to eat more food without gaining weight. In reality, metabolism simply refers to the process of breaking down foods in order to supply energy for the maintenance and repair of current body structures.

      When you consume food, your body breaks it down into its elemental components and then directs each piece to where it needs to go. It looks something like this:

      • You eat food.
      • Your body breaks down carbohydrates into glucose, a simple sugar.
      • The glucose enters your bloodstream.
      • Your pancreas releases a hormone called insulin (Phase 1 insulin response).
      • Insulin helps the glucose enter your body’s cells so it can be used for fuel, stored for later use, or stored as fat.
      • Since your pancreas has released insulin, it needs more. So it starts to create more insulin. (Phase 2 insulin response)
      • Now your body is ready to start the process all over again the next time you eat.

      Seems like a relatively simple process, right? But for people with diabetes, the process doesn’t work the same way.

      This is because diabetes is a metabolic disorder. It changes the way your body metabolizes food so that your cells are unable to use that glucose for energy. How? It all comes back to insulin.

      Let’s look at that metabolism breakdown again. There are two places where insulin is key: the Phase 1 and Phase 2 insulin responses. Insulin is a hormone that helps your cells absorb glucose to use for energy. Your pancreas releases this hormone when it first detects the glucose from your food, and then it makes more insulin to use later.

      In people with type 1 diabetes (T1D), the body does not produce insulin at all. In type 2 diabetes (T2D), the body produces insulin, but the cells can’t use it properly. This is called insulin resistance. Without access to insulin, glucose can’t get into your cells, so it ends up lingering in your bloodstream.

      Of course, when the glucose can’t make its way out of the bloodstream, it will start to build up. All that excess blood sugar may then be converted to triglycerides and stored as fat. With this increase in fat mass, hormone imbalances or systemic inflammation may occur or persist, increasing risk for many other diseases or conditions. Diabetes is associated with increased risk for heart attacks, stroke, kidney disease, nerve damage, skin infections, and eye problems. Diabetes can even result in an impaired immune system, which, combined with poor circulation to the extremities, increases risk of wounds and infections, sometimes even leading to amputation of the toes, foot, or leg(s). In far too many cases, diabetes creates complications that eventually lead to death.

      Effects of Type 2 Diabetes on Muscle

      Many are already aware of the connection between high-fat mass and diabetes, however, more recently, researchers have begun to focus on another aspect of body composition as it relates to diabetes risk: Lean Body Mass. Many studies have shown strong links between Type 2 Diabetes  (T2D) and low lean body mass.

      A large component of our LBM is our skeletal muscle mass, the muscles used for posture and movement. Unfortunately, diabetes is not only more common in those with less muscle, it can actually have negative effects on their muscle.

      There are three main muscle characteristics that T2D affects: fatigability, strength, and mass.

      Muscle fatigability refers to the rate at which your muscles become weaker after exercise or movement, and the amount of time it takes for them to recover or return to their full power. Researchers have known for years that muscle fatigability increases with T2D. When people with T2D perform an exercise, their muscles lose power faster than those of a healthy person.

      T2D reduces overall muscle strength as well. Even after adjusting for age, sex, education, alcohol consumption, lifetime smoking, obesity, and aerobic physical activity, people with T2D had less handgrip strength than people without it.

      Not only do T2D patients have both reduced muscle recovery and strength, they also start to lose muscle mass. In fact, the longer you have diabetes, the more muscle mass you tend to lose, especially in the legs.

      As you can see, the raised blood glucose levels caused by diabetes and insulin resistance puts your muscles at a disadvantage for a number of reasons.

      How Building Muscle Mass Reduces Risk of T2D

      Workout to improve Phase Angle

      Here’s the good news. You can take control of your diabetes risk by improving your body composition. It all starts with Skeletal Muscle Mass.

      Research has shown that increasing your muscle mass reduces your risk of T2D. For example, In a 2017 study, researchers in Korea and Japan followed over 200,000 otherwise healthy people who had no diabetes or prediabetes at the start of the experiment. After 2.9 years, the participants with more muscle mass were significantly less likely to have T2D: Yet another reason to include muscle building resistance exercises into your workout routine.

      In fact, exercise is good for reducing diabetes risk as well as improving diabetic state all on its own. This is because exercise increases the delivery of glucose to our muscle cells. When you exercise, your muscles are exerting more than their normal energy demand, thus creating a higher need for energy/glucose to fuel them. In fact, resistance training has been shown to be particularly beneficial for T2D. Larger muscles require more energy, therefore the leg muscles, being the largest muscles in the body, are especially important for glucose uptake and regulation. Therefore, targeting the legs with resistance exercise may improve diabetes risk factors as well as promote physical function. As mentioned previously, those who are diagnosed with T2D often lose the most muscle mass in the legs, making leg day all the more important to maintain and build muscle mass to reduce the risk of diabetes.

      Although type 2 diabetics are insulin-resistant, this increased demand for glucose from exercise helps to increase the efficiency of insulin to get glucose into the muscle cells, improving their diabetic state overall!

      How to Improve Insulin Resistance with Diet and Exercise

      So, what does this mean for you? We’ve talked a lot about diabetes and its relationship to your body composition. Remember, people with T2D and pre-diabetes are resistant to insulin, meaning their cells can’t utilize the insulin they need in order to absorb glucose from the bloodstream. Eventually, this can lead to a number of health complications and other debilitating diseases. However, we’ve seen that it’s possible to significantly reduce diabetic risk and, in some cases, even reverse T2D. Here are some diet and exercise tips that will help you improve your body composition and get to a healthy level of insulin sensitivity.

      If you are otherwise healthy but have low LBM and high PBF

      If you don’t currently have diabetes or pre-diabetes, the most important thing you can do to lower your risk is exercise.

      In one study, researchers looked at data from the National Health and Nutrition Examination Survey III. The survey covered 13,644 adults who were not pregnant and not underweight. They reviewed each person’s muscle mass and compared it to their diabetes status. What they found was astounding.

      For each 10% increase in the ratio of skeletal muscle mass to total body weight participants showed an 11% decrease in insulin resistance and a 12% decrease in prediabetes. The results were significant, even after the scientists took into account other factors affecting risk for insulin resistance.

      For people with T2D and Prediabetes

      If you already have high blood sugar or diabetes, there are still ways that you can improve that. First, resistance training 2-3 times a week can relieve some diabetic symptoms.

      One study found that participants who completed a strength training program had reduced their HbA1c levels from 8.7 to 7.6 percent. In fact, 72% of participants in the resistance exercise group were actually able to reduce their medication use after 16 weeks of a strength training program.

      Regardless of the type of training you engage in, getting started is the first step. However, make sure you check with your health provider if you have diabetes or any other conditions before you start an exercise regimen.

      Takeaways

      The major takeaway here is that diabetes is not only a disease that has to do with weight – high body fat and low muscle mass both increase diabetic risk.

      The main goal to reduce this risk or improve diabetic state is to improve body composition. This can be done by reducing body fat for those who are overfat, as well as building muscle for those who have low skeletal muscle mass. One study showed that people who increased their LBM while reducing their fat mass had a much lower risk of T2D than people who had high fat mass combined with high LBM, or low body fat combined with low LBM.

      What’s next?

      The best thing to do in order to have a better idea of your health risks and create attainable goals for yourself is to get your body composition tested. From there, you can make adjustments to your lifestyle to alter your body composition, if necessary, to reduce your risk for diabetes and other conditions. If you already have T2D or prediabetes, focus on losing fat while engaging the muscles with exercise.

      Hopefully, you now have a better understanding of how your body composition affects your diabetes risk, and how you can harness the power of diet and exercise to control that risk. A low-sugar, high-protein diet combined with regular exercise, especially strength training, can improve your body composition and improve insulin sensitivity, among other benefits.

      So what are you waiting for? See what you’re made of and get started on the path to a healthier life today!

      **

      Nicole Roder is a freelance writer specializing in health, mental health, and parenting topics. Her work has appeared in Today’s Parent, Crixeo, Grok Nation, Chesapeake Family LIFE, and the Baltimore Sun, among others.

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