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Sarcopenic Obesity

Understanding Sarcopenic Obesity: Pathogenesis, Consequences, and Preventative Strategies with BIA

By BIA, Blog, Health

Sarcopenic obesity (SO) is a complex and increasingly recognized condition that combines two major health concerns: obesity and sarcopenia. It occurs when an individual has an excess of body fat along with a significant loss of lean muscle mass.

This phenomenon is particularly common in older adults, contributing to a heightened risk of disability, chronic diseases, and all-cause mortality. However, in recent years, young adults are also being increasingly affected by sarcopenic obesity, largely due to poor lifestyle factors such as lack of physical activity and poor diet. This shift is concerning as it suggests that younger populations are experiencing the adverse effects of both muscle loss and fat accumulation earlier in life, which could lead to long-term health complications.

In this blog post, we will explore the pathogenesis, clinical consequences, and effective prevention strategies for sarcopenic obesity.

What is Sarcopenic Obesity?

Sarcopenic obesity refers to the coexistence of sarcopenia (the loss of muscle mass and strength) and obesity (an excessive accumulation of body fat). Unlike simple obesity, where the primary concern is excess fat, sarcopenic obesity is characterized by the abnormal distribution of body composition—specifically, a decrease in muscle mass and an increase in fat mass.

Pathogenesis of Sarcopenic Obesity

The core mechanism behind sarcopenic obesity involves a vicious cycle involving myocytes (muscle cells) and adipocytes (fat cells). As body fat increases, often due to lack of physical activity, poor diet or aging, it triggers inflammation and/or oxidative stress that negatively impacts muscle function and promotes muscle degradation.

On the other hand, inflammation is also a key mechanism in sarcopenia which can induce insulin resistance. This inflammation-induced insulin resistance disrupts the body’s ability to properly use insulin, causing glucose to be stored as fat, thereby further contributing to obesity. This creates a harmful feedback loop where increased fat storage and muscle loss reinforce each other, making it increasingly difficult to maintain a healthy body composition.

Sarcopenic Obesity Pathogenesis

Source: Wei, S., Nguyen, T. T., Zhang, Y., Ryu, D., & Gariani, K. (2023). Sarcopenic obesity: epidemiology, pathophysiology, cardiovascular disease, mortality, and management. Frontiers in Endocrinology, 14. https://doi.org/10.3389/fendo.2023.1185221

Clinical Consequences of Sarcopenic Obesity

The presence of both obesity and sarcopenia significantly increases the risk of several health complications. According to recent studies, individuals with sarcopenic obesity are at a 2.5 times higher risk of disability compared to those without the condition. Beyond disability, other clinical consequences include:

  • Cardiovascular Diseases: The combination of excess body fat and muscle loss contributes to poor cardiovascular health, leading to increased risk of cardiovascular diseases such as hypertension, atherosclerosis, myocardial fibrosis and heart failure.
  • Type 2 Diabetes: Inflammation-induced insulin resistance disrupts the body’s ability to regulate blood glucose level effectively. As a result, blood sugar levels rise, leading to the development of type 2 diabetes and increasing the risk of further metabolic complications.
  • Dyslipidemia: Sarcopenic obesity leads to dyslipidemia by increasing inflammation from excess fat, particularly visceral fat, which disrupts lipid metabolism. This inflammation raises triglycerides and LDL cholesterol while lowering HDL cholesterol levels. Meanwhile as muscle mass declines, the body’s ability to metabolize fats effectively diminishes. Thus, this worsens the lipid imbalance and accelerates the development of dyslipidemia.
  • Cognitive Impairment: Muscle loss reduces the production of beneficial myokines, which help protect the brain from inflammation and support cognitive function, while fat accumulation, especially visceral fat, increases inflammation and oxidative stress, damaging brain cells. Together, these factors impair brain health, disrupt neuronal communication, and increase the risk of neurodegenerative conditions like dementia.
  • All-cause Mortality: Sarcopenic obesity significantly increases the risk of all-cause mortality, as the combination of excess fat and muscle loss leads to numerous health complications. The inflammation caused by visceral fat and the decline in muscle mass contribute to chronic conditions like cardiovascular diseases, type 2 diabetes, and metabolic dysfunction, which raise the risk of premature death.

Consequences of Sarcopenic Obesity

Prevention and Management of Sarcopenic Obesity

While sarcopenic obesity is a complex condition, there are several effective strategies for prevention and management that can help reduce its impact on overall health.

  • Caloric Restriction with Increased Protein Intake: While weight loss can improve obesity-related complications, extreme calorie restriction should be avoided. A balanced approach with moderate calorie reduction, alongside high-quality protein intake (1.2-1.6 g/kg/day), is recommended to increase muscle mass and prevent deficiencies. This ensures better overall health while still supporting weight management.
  • Increase Physical Exercise: Both aerobic and resistance exercises are essential to combat sarcopenic obesity. Aerobic exercise improves cardiovascular health, reduces insulin resistance, and boosts muscle function, while resistance training helps build muscle mass, improve strength, and promote fat loss. Together, they support a healthier body composition and reduce the risk of further complications.
  • Regular Health Screening and Monitoring: Consistent monitoring through health screening is crucial for tracking progress, evaluating muscle mass, fat levels, and detecting potential health risks early on. Using advanced technology like InBody, which employs BIA (Bioelectrical Impedance Analysis), allows for precise measurements of muscle mass, body fat percentage, and visceral fat. This enables more precise monitoring of sarcopenic obesity and ensures that adjustments can be made to the treatment plan, helping to maintain long-term health and prevent further complications associated with sarcopenic obesity.

Strategies to Prevent Sarcopenic Obesity

How to Screen for Sarcopenic Obesity with InBody

Monitoring muscle mass and fat distribution is essential for the early detection and management of sarcopenic obesity. The InBody Body Composition Analyzer, along with tools like the InGrip Hand Grip Strength Dynamometer, provides critical metrics that enable a thorough screening of this condition.

InBody in Screening Sarcopenic Obesity

1.Muscle-Fat Analysis: This metric indicates the distribution of muscle and fat throughout the body, helping to assess the balance between lean mass and fat mass. An imbalance, with increased fat and decreased muscle, is a key indicator of sarcopenic obesity. Regular tracking of muscle fat analysis can reveal changes in fat accumulation and muscle depletion, both of which contribute to the condition.

2.Percent Body Fat: This parameter represents the percentage of body weight that comes from fat. An elevated percentage of body fat, especially when paired with a reduction in muscle mass, is a hallmark of sarcopenic obesity.

3.Visceral Fat Area (VFA): VFA measures the amount of fat stored around the abdominal organs. Monitoring VFA is crucial in the management of sarcopenic obesity, as excessive visceral fat further exacerbates the condition and increases health risks. Additionally, InBody’s VFA analysis provides population reference data specific to your age, helping you better understand how your VFA compare to others of the same age.

4.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.

5.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

Sarcopenic obesity is a growing concern, affecting individuals of all ages. Understanding its pathogenesis and clinical consequences is crucial for developing better prevention and treatment strategies. Moreover, it is important to note that weight loss alone is not a solution for sarcopenic; instead, a comprehensive approach that includes strength training, adequate protein intake, regular health monitoring and careful nutritional counselling is essential.

In short, by addressing sarcopenic obesity proactively, we can break the vicious cycle of muscle loss and fat accumulation, promoting healthier aging and improving overall well-being.

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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.

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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!

InGrip Hand Grip Strength Dynamometer: Applications Across Various Fields of Health and Fitness

By Blog, Health, Muscle, Press

Introducing InBody’s InGrip Hand Dynamometer with Load Cell Sensor

InBody has recently launched the InGrip hand dynamometer, a cutting-edge device designed to deliver accurate and reliable grip strength measurements. Unlike traditional strain gauge dynamometers, the InGrip uses a load cell mechanism, which eliminates the hysteresis issue commonly found in other devices. This innovative approach ensures consistent and precise measurements over an extended period, making the InGrip a superior choice for professionals in various fields.

In addition to its advanced load cell technology, the InGrip is also equipped with several key innovations that enhance its reliability and consistency:

  • Handle Guide: This feature ensures consistent measurement positioning, significantly reducing potential errors during assessments. By guiding the hand into the correct position every time, the handle guide helps maintain the accuracy of results across multiple tests.

  • Adjustable Fit: Designed to accommodate a wide range of hand sizes, the InGrip’s adjustable fit allows for precise and comfortable measurements. This flexibility makes it suitable for diverse populations, including children, adults, and the elderly.

  • Bluetooth Wireless Communication: The InGrip’s Bluetooth capability enables seamless integration with the InBody Body Composition Analyzer, expanding its potential for comprehensive health assessments.

InGrip Features

Utilizing InGrip Across Various Fields

The InGrip is a highly versatile tool with a wide range of applications across multiple fields. Its ability to measure and monitor grip strength makes it invaluable in fitness, rehabilitation, geriatrics, nutrition, and health screening. Here’s a closer look at how InGrip is utilized across these fields:

1. Fitness: Elevating Performance and Injury Prevention

In fitness settings, the InGrip serves as a key tool for trainers and athletes, helping them monitor grip strength as part of performance assessments. By tracking grip strength over time, fitness professionals can design personalized strength training programs that help prevent injuries and improve overall physical conditioning. This data-driven approach enables athletes to optimize their training regimens and achieve better performance outcomes.

2. Physiotherapy: Enhancing Rehabilitation Outcomes

Physiotherapists can incorporate the InGrip into rehabilitation programs to evaluate grip strength and monitor recovery progress. Precise and consistent measurements provided by the InGrip support the development of targeted therapy plans, allowing therapists to tailor interventions to individual patient needs. This approach ensures that patients regain strength and functionality efficiently, ultimately enhancing rehabilitation outcomes.

3. Geriatrics: Promoting Independence in Older Adults

In geriatric care, the InGrip plays a crucial role in assessing grip strength among older adults. Grip strength is a reliable indicator of muscle mass and overall functional capacity, making it essential for identifying signs of sarcopenia or frailty. By using the InGrip, healthcare providers can develop interventions that help maintain independence and improve the quality of life for elderly patients, ensuring they remain active and self-sufficient.

4. Nutrition: Connecting Muscle Strength to Dietary Interventions

Nutritionists and dietitians can use the InGrip to evaluate muscle strength as part of their dietary interventions. By tracking changes in grip strength, they gain valuable insights into how well nutrition plans are supporting muscle mass and overall health. This enables them to adjust dietary strategies to better enhance muscle strength, ultimately leading to improved health outcomes for their clients.

5. Health Screening: Comprehensive Health Assessments

In health screening programs, the InGrip offers a reliable measure of grip strength, a key indicator of overall health. When integrated with the InBody Body Composition Analyzer, the InGrip enables comprehensive evaluations by linking grip strength with other health metrics. This holistic approach provides a thorough assessment of an individual’s well-being, helping to identify potential health risks and guide preventive measures.

Applications of InGrip

Conclusion

The InGrip hand dynamometer revolutionizes grip strength assessment with its advanced load cell technology, ergonomic design, and Bluetooth connectivity, delivering unparalleled accuracy and consistency. Its versatility makes it a must-have tool for fitness professionals, dietitians, nutritionists, physiotherapists, orthopedic specialists, geriatric care providers, and health screeners. Whether used in performance evaluations, rehabilitation, or health screenings, the InGrip provides valuable insights that guide personalized interventions and improve health outcomes.

Ready to experience the benefits of the InGrip?

Contact us today to learn more about how this cutting-edge dynamometer can enhance your assessments and contribute to better health management.

Contact us for more details on the InGrip!

Hand Grip

Hand Grip Strength: What It Is, Role in Assessing Sarcopenia Risk, How to Measure

By Blog, Muscle

What is Hand Grip Strength?

Hand grip strength (HGS) is more than just a measure of how tightly you can squeeze. It refers to the maximum force that can be exerted by your hand and forearm muscles and is widely used as a marker for muscle strength and endurance. This seemingly simple measure offers a window into your overall physical health, providing insights that go beyond just your grip.

Benefits of Strong Hand Grip Strength

  • Enhanced Daily Functionality: A strong grip is essential for performing everyday tasks efficiently. From opening jars to carrying heavy bags, your grip strength directly impacts your ability to manage these activities with ease, contributing to greater independence and quality of life.
  • Improved Sports Performance: In sports that require hand and forearm strength, such as tennis, climbing, or weightlifting, a robust grip is crucial. It enhances your ability to control, sustain, and generate power, leading to better performance and reduced fatigue.
  • Reduced Risk of Injury: A strong grip helps stabilize your wrists and forearms, reducing the risk of common injuries like sprains and strains. This stability is particularly important in preventing falls and supporting your body during physical activities, thereby minimizing the chance of serious injury.
  • Reduced Risk of Chronic Diseases: Studies have shown that individuals with stronger grip strength are less likely to develop chronic diseases such as hypertension, diabetes and osteoporosis. This may be due to the overall benefits of maintaining muscle strength and a healthy metabolism, which are key factors in preventing and managing these conditions.

Benefits of Strong Hand Grip Strength

 

Role of Hand Grip Strength in Assessing Sarcopenia Risk

According to the Asian Working Group for Sarcopenia (AWGS) 2019 guidelines, HGS is used as one of the key assessments to evaluate the risk of sarcopenia—a condition characterized by the progressive loss of muscle mass, strength and function. Specific cutoff values have been established to help identify individuals who may be at risk of sarcopenia:

  • For males: HGS <28 kg
  • For females: HGS <18 kg

When an individual’s HGS falls below these cutoff points, it indicates potential muscle weakness. This may indicate the need for further assessment, such as measuring appendicular skeletal muscle (ASM) or appendicular skeletal muscle index (ASMI) using Dual-Energy X-ray Absorptiometry (DEXA) or Bioelectrical Impedance Analysis (BIA). Additionally, evaluating physical performance through tests such as gait speed or 5-time chair stands is also crucial for confirming the diagnosis.

AWGS 2019 Sarcopenia Assessment

How to Measure Hand Grip Strength?

To assess HGS, a device known as a hand grip strength dynamometer is used, which accurately gauges the amount of force applied during a grip.

There are several types of dynamometers in the market, each utilizing a distinct mechanism to measure grip strength:

  1. Spring Dynamometers: These dynamometers use a spring mechanism where the force of the grip compresses the spring. The measurement is based on the amount of compression, providing a simple and mechanical assessment of grip strength.
  2. Hydraulic Dynamometers: These dynamometers measure grip strength through hydraulic pressure. The force applied is converted into hydraulic pressure, offering a more precise reading compared to spring dynamometers.
  3. Digital Dynamometers: Equipped with electronic sensors and a digital display, these dynamometers provide precise measurements and often feature additional functionalities such as data storage.
  4. Strain Gauge Dynamometers: These dynamometers measure grip strength using a mechanism that involves strain gauges attached to a metal element. When you grip the device, the force applied deforms the metal, which changes the strain gauges’ electrical resistance. This change is then converted into a measurement of grip strength. Strain gauge dynamometers can suffer from hysteresis, where repeated use without adequate rest affects accuracy. This leads to unreliable measurements over time as the device’s calibration can be compromised.

Hand Dynamometer Types

Introducing InBody’s InGrip Hand Dynamometer with Load Cell Sensor

InBody has also recently launched our own hand grip dynamometer, the InGrip hand dynamometer. This innovative device uses a load cell mechanism, which eliminates the hysteresis issue found in strain gauge dynamometers, ensuring accurate and reliable measurements over an extended period.

In addition to its advanced load cell technology, the InGrip features several other key innovations to enhance reliability and consistency:

  • Handle Guide: Ensures consistent measurement positioning, reducing potential errors.
  • Adjustable Fit: Accommodates a wide range of hand sizes for precise results.
  • Bluetooth Wireless Communication: Enables seamless integration with the InBody Body Composition Analyzer, expanding the possibilities for comprehensive assessments and future applications.

InGrip Features

 

Ready to experience the benefits of the InGrip?

Contact us today to learn more about how this cutting-edge dynamometer can enhance your assessments and contribute to better health management.

Contact us for more details on the InGrip!

Sarcopenia

Sarcopenia’s Dual Threat: Physical and Metabolic Consequences

By Blog

In the realm of aging and health, sarcopenia stands out as a significant yet often overlooked condition. Defined as an age-associated loss of muscle mass and strength, sarcopenia affects a substantial portion of the elderly. However, this condition is not confined to the elderly as young individuals can also be susceptible to the risks of sarcopenia due to various factors, including low muscle mass, physical inactivity, poor nutrition, and specific medical conditions.

Early signs of sarcopenia include weaker muscles and persistent fatigue, which can make everyday activities such as climbing stairs, lifting objects, or walking more challenging. For younger adults, this can result in decreased physical performance and reduced productivity, affecting their ability to engage in sports, exercise, and daily tasks effectively. As muscle strength declines, individuals may experience difficulties with balance and coordination, increasing the risk of falls and injuries. This is particularly concerning for the elderly, as it impacts their ability to perform essential activities of daily living, such as bathing, dressing, and cooking, potentially leading to a significant decline in quality of life.

But did you know sarcopenia leads to more than just physical decline? In fact, the condition can lead to various metabolic consequences, including obesity, diabetes, hypertension, and osteoporosis.

In this blog post, we will delve deeper into how sarcopenia can lead to these health issues and why early screening and intervention are crucial. By understanding the broader impact of sarcopenia, we can better appreciate the importance of maintaining muscle health at all stages of life.

Beyond Physical Decline: The Metabolic Consequences of Sarcopenia

Sarcopenia and Obesity

Sarcopenia can significantly influence the development of obesity, resulting in a challenging condition known as sarcopenic obesity, which is the loss of muscle mass is coupled with an increase in fat mass. This dual burden occurs because as sarcopenia progresses, there is a natural decline in physical activity due to loss of muscle mass and strength.

This decrease in physical activity may lead to weight gain, characterized mainly by the accumulation of abdominal fat. Moreover, inflammation, a key mechanism in sarcopenia, can induce insulin resistance. This inflammation-induced insulin resistance disrupts the body’s ability to properly use insulin, causing glucose to be stored as fat, thereby further contributing to obesity.

In fact, research on the association of muscle strength and obesity has shown that muscle strength is negatively correlated with Percent Body Fat (PBF) and Visceral Fat Area (VFA). This means that lower muscle strength is linked to higher body fat percentage and higher level of visceral fat.

Obesity and high abdominal fat

Sarcopenia and Diabetes

Skeletal muscle is the largest insulin-sensitive tissue in the body and accounts for 80% of glucose uptake. Thus, reduced skeletal muscle mass impairs glucose metabolism, significantly increasing the risk of developing type 2 diabetes.

This relationship was underscored by a cohort study showing that lower relative muscle mass (RMM) is inversely associated with the incidence of type 2 diabetes in healthy individuals. Simply put, having low muscle mass increases the likelihood of developing type 2 diabetes.

Additionally, there is also a national study that has found that higher muscle mass is associated with better insulin sensitivity and a lower risk of prediabetes. Specifically, for every 10% increase in skeletal muscle index, there is a 12% decrease in the incidence of prediabetes.

Furthermore, among all the muscle groups, leg muscles being the largest muscle group in the body, play a crucial role in glucose uptake. Low leg muscle mass is associated with an increased risk of insulin resistance, where the muscles cells become less responsive to insulin. This insulin resistance leads to elevated blood glucose levels over time, which is a significant factor in the development of type 2 diabetes. Research supports this relationship, showing that leg muscle mass, strength, and functional performance are significantly lower in older patients with type 2 diabetes compared to healthy individuals.

 

Diabetes

Sarcopenia and Hypertension

Hypertension, or high blood pressure, is another metabolic consequence of sarcopenia. Specifically, sarcopenia has been linked to the development of hypertension through several potential mechanisms.

  • Chronic inflammation: Chronic inflammation is characterized by the production of catabolic cytokines, is a well-studied mechanism in sarcopenia. These cytokines are produced as part of the inflammatory response and can affect the sympathetic nervous system and the renin-angiotensin-aldosterone system that regulates blood pressure, potentially leading to elevated blood pressure levels.
  • Insulin resistance: Sarcopenia leads to insulin resistance because the reduced muscle mass decreases glucose uptake. Insulin resistance then increases the risk of hypertension through various mechanisms, including enhanced activity of angiotensin II and aldosterone, elevated sympathetic nervous system activity, and oxidative stress, all of which contribute to elevated blood pressure.
  • Oxidative stress: Oxidative stress arises when the body produces more reactive oxygen species (ROS) than it can effectively neutralize with antioxidants. In sarcopenia, the elevated oxidative stress can lead to hypertension due to the elevated levels of ROS in the body, which induce vasoconstriction and contribute to the development of arterial hypertension.

Overall, sarcopenia shows a significant association with hypertension, as shown by a meta-analysis of 10 studies indicating that older individuals with sarcopenia are 1.39 times more likely to develop hypertension.

Hypertension

Sarcopenia and Osteoporosis

Osteoporosis is defined as a systemic skeletal disorder characterized by low bone mass and deterioration of bone tissue microarchitecture, leading to increased bone fragility and susceptibility to fractures. Generally speaking, it involves a higher rate of bone breakdown compared to bone formation, resulting in porous bones.

Sarcopenia can contribute to osteoporosis through complex mechanical and biochemical interactions between bone and muscle tissues.

  • Mechanical loading: Mechanical loading refers to the physical forces applied to a structure, such as bones or muscles, when they are subjected to weight, movement, or resistance. In specific, when muscles exert force on bones during activities like walking or lifting weights, bones respond by adjusting their mass and structure to support these loads. This adjustment occurs through bone remodeling processes, which involve the formation of new bone tissue by osteoblasts and the removal of old or damaged bone tissue by osteoclasts. Consequently, reduced muscle function can lead to decreased bone load, less stimulation of bone remodeling processes, potentially resulting in bone loss over time.
  • Reduced secretion of myokines: Muscle-bone interactions involve various signaling molecules such as myokines, which are secreted by myocytes (also known as muscle fibers) in response to muscle contraction. Examples of myokines are interleukin-6 (IL-6), irisin and myostatin. In sarcopenia, when there is reduced muscle mass, the production and secretion of these myokines may decrease. This reduction can disrupt the normal balance of bone remodeling processes, potentially leading to decreased bone density and an increased risk of osteoporosis.

To summarize, research indicates a strong link between sarcopenia and osteoporosis, with a low appendicular skeletal muscle mass index (ASMI) emerging as a potential predictor of osteoporosis in individuals diagnosed with chronic liver disease (CLD).

Osteoporosis

Step-by-step on How to Diagnose Sarcopenia

Now that we understand the metabolic consequences of sarcopenia, let’s delve into how sarcopenia can be diagnosed!

Step 1: Begin with the SARC-F questionnaire, which evaluates components such as strength, ability to walk, rising from a chair, climbing stairs, and history of falls. This initial assessment provides a broad indication of potential sarcopenia risk.

Step 2: Assess muscle strength using a hand grip strength dynamometer. Individuals whose Hand Grip Strength (HGS) falls below a specified cutoff value may be at risk for sarcopenia.

Step 3: Measure muscle mass using methods like DEXA, BIA, or CT scans. In Asian populations, the cutoff value for skeletal muscle index (SMI) is typically 7.0 kg/m² for males and 5.7 kg/m² for females based on the Asian Working Group of Sarcopenia (AWGS) 2019. In contrast, Western guidelines based on European Working Group on Sarcopenia in Older People (EWGSOP) set the cutoff at 7.0 kg/m² for males and 5.5 kg/m² for females. Falling below these thresholds suggests a potential risk of sarcopenia due to reduced muscle mass.

Steps to Diagnose Sarcopenia

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

These steps provide a comprehensive approach to diagnosing sarcopenia, integrating both functional assessments and quantitative measurements to accurately evaluate muscle health and identify individuals at risk.

Conclusion

In conclusion, sarcopenia poses a dual threat to health, impacting both physical function and metabolic health. This condition not only diminishes muscle mass and strength, increasing the risk of falls and fractures, but also contributes to metabolic disorders such as obesity, diabetes, hypertension, and osteoporosis.

Recognizing these interconnected health risks underscores the importance of early screening and intervention strategies. Moreover, by prioritizing muscle health through proactive measures like regular exercise, balanced nutrition, and medical monitoring, we can effectively mitigate the detrimental effects of sarcopenia and promote healthier aging and well-being for individuals of all ages.

Read this Guide and Learn How to Prevent Muscle Loss

Woman eating supplements

Healthy Ageing: Impacts of Supplements on Body Composition

By Blog, Body Composition, Health, Nutrition

As we age, our body composition changes: body fat increases, muscle mass decreases, bone mineral density declines, and visceral fat accumulates. While these changes are a normal part of aging, they can impact our overall health and quality of life. Thus, managing these body composition changes effectively becomes essential to achieve healthy ageing.

But how do we achieve healthy ageing amidst these changes? Well, ensuring adequate daily nutrient intake is essential for aging gracefully. While a well-balanced diet is the primary source of essential nutrients, dietary supplements can play a vital role in filling nutritional gaps and ensuring we meet our body’s needs.

In this blog post, we’ll explore the profound impact of dietary supplements on body composition and how strategic supplementation can help counteract the effects of ageing.

Healthy Ageing and Dietary Supplements

Before we explore the impact of dietary supplements on body composition, let’s first establish a foundational understanding of healthy ageing. Healthy aging isn’t just about growing older—it’s about thriving as we age, minimizing the risk of diseases and disabilities, maintaining our physical and cognitive vitality, and embracing life with vigor.

But how do we achieve this state of healthy ageing? Achieving healthy aging is closely tied to nutrition. While a balanced diet is the main source of essential nutrients, dietary supplements fill gaps, especially in populations with specific needs. Older adults may require supplements due to decreased nutrient absorption, while pregnant women benefit from folate and calcium supplements. Medications can also interfere with nutrient absorption, and those with restricted diets may find supplementation beneficial.

Doctor recommending supplements to patient in clinic

Omega-3 Fatty Acids

Omega-3 fatty acids are essential for our bodies, possessing anti-inflammatory properties that aid in fat reduction and muscle preservation. The recommended dosage ranges from 200mg to 800mg (Malaysia Recommended Nutrient Intake (RNI) 2017), with natural sources including fatty fish like salmon and plant-based options like chia seeds. However, for those with allergies or limited access to these foods, fish oil or algae-derived supplements provide a convenient option.

In a recent intervention study, participants consuming omega-3 supplements experienced significant improvements in body composition, with increased Skeletal Muscle Mass and decreased Body Fat Mass observed within three months. These findings underscore the transformative potential of omega-3 fatty acids in improving body composition.

Omega 3 fatty acid food source and supplement

Protein Supplements

Protein supplements are frequently recommended to support muscle building, tissue repair, and enhance muscle strength. According to the Malaysia Recommended Nutrient Intake (RNI) of 2017, the daily protein requirement stands at 0.8g per 1kg of body weight. While this target is typically achievable through dietary sources such as eggs, fish, chicken, nuts, and legumes, certain groups, like athletes or older adults, may find it challenging to meet their protein needs solely through food. In such cases, supplements become invaluable aids. The most common protein supplements include whey protein for animal-based options and pea or soy protein for plant-based alternatives.

In a study involving obese elderly individuals with sarcopenia, researchers investigated the effects of combining whey protein supplements with exercise to improve body composition. Notably, participants who consumed whey protein experienced a significant increase in lean tissue and a reduction in fat mass. This highlights the potential benefits of incorporating whey protein supplements alongside exercise to enhance body composition.

Food source and supplements for protein

Coenzyme Q10

Coenzyme Q10 is a supplement that has garnered increasing attention in recent years. This enzyme functions as an antioxidant, protecting our cells from damage, and has been studied for its potential benefits in cancer prevention and combating muscle depletion. While the human body naturally produces Coenzyme Q10, its levels decrease with age, making external supplementation necessary. Natural sources of Coenzyme Q10 include fatty fish, muscle meat, organ meat, legumes, nuts, and nut oil. However, the amounts obtained from these foods are often insufficient to significantly boost its levels in the body, highlighting the need for supplementation.

A recent research paper investigated the effects of Coenzyme Q10 supplementation on body composition. The intervention group showed a significant increase in Fat-Free Mass and Body Cell Mass (BCM), and a significant reduction in inflammatory markers, suggesting that the supplementation enhanced overall health.

Food source and supplement for coenzyme Q10

Vitamin D + Calcium

Vitamin D, when paired with calcium, plays a crucial role in supporting bone health. It can be obtained from various sources such as sunlight, fatty fish (like salmon and mackerel), fortified dairy products, and egg yolks. Calcium, on the other hand, is found in foods like dairy products (milk, cheese, and yogurt), leafy green vegetables (kale and broccoli), almonds, and fortified plant-based milks. However, for individuals who may not get enough of these nutrients from their diet alone, vitamin D and calcium supplements can be an effective alternative.

A study demonstrated the significant impact of combining vitamin D and calcium on bone density. Subjects who took these supplements experienced marked improvements in their bone mineral density. These findings highlight the benefits of this supplement combination in maintaining and improving bone health.

Food source and supplements for vitamin d and calcium

Probiotic

Probiotics are commonly associated with benefits to immune function, gut health, and digestion, but did you know they are also being studied for their potential to reduce body fat? Numerous studies have explored the efficacy of probiotics in weight management, revealing promising results.

In a study involving a pre-obese population, probiotic supplementation was found to aid in fat reduction and muscle improvement. Graphs depicting the intervention period showed significant decreases in Percent Body Fat, Body Fat Mass, and Visceral Fat Area compared to the placebo group. Additionally, there was a significant increase in muscle mass among those who consumed probiotics. These results suggest that probiotics may play a valuable role in improving body composition.

Food source and supplement for probiotic

Conclusion

In conclusion, supplements have been shown to support overall health, which can contribute to healthy ageing and better body composition. However, while supplements may aid in healthy ageing, it is equally crucial to maintain a healthy lifestyle by practicing healthy eating habits and regular exercise.

Well Pharmacy

InBody in Pharmacy: Elevating Health Screening for Disease Prevention

By Blog, Pharmacy

Well Pharmacy‘s vision is to become the most trusted local pharmacy in the heart of every community they serve, and they are committed to be a center for disease prevention through elevating their health screening services.

Therefore, in addition to offering conventional health screening tests such as blood pressure tests, blood glucose tests, and cholesterol tests, Well Pharmacy is elevating their health screening services through the adoption of InBody technology. Being the first pharmacy in Malaysia to integrate InBody, Well Pharmacy has shattered traditional perceptions of what a pharmacy entails. No longer confined to merely dispensing prescription drugs, Well Pharmacy has emerged as a disease prevention and monitoring center, dedicated to helping individuals better understand their health conditions.

In this blog post, we will delve into the comprehensive use of InBody in Well Pharmacy and how InBody helped them to better understand their community’s health conditions.

Well Pharmacy

Beyond Conventional Health Screening Tests: Introducing Body Composition Analysis

At Well, they believe in the idea that prevention is better than cure. Recognizing the importance of early disease risk identification, they set out to find a tool that aligns with their proactive approach. Delightedly, they decided to integrate InBody, a body composition analyzer that can precisely measure body composition into their health screening services.

While they have always provided conventional health screening tests like blood pressure test, blood glucose test, and cholesterol test, the addition of body composition analysis took their health screening services to the next level. It offers health insights beyond what conventional tests can provide, giving individuals a more holistic understanding of their health conditions.

Pharmacist introducing InBody test

Data-Driven Body Composition Data for Assessing Underlying Health Risks

According to Qian Ping, a pharmacist at Well Pharmacy, by assessing InBody parameters related to body fat such as Percent Body Fat (PBF) and Visceral Fat Level, it helps to identify obesity problems and assess risks of obesity-related diseases such as diabetes and heart diseases. Furthermore, Qian Ping also highlighted the usefulness of muscle related InBody parameters such as Skeletal Muscle Mass (SMM) and Segmental Lean Analysis in assessing muscle mass and identifying potential muscle imbalances.

And that’s not all as Qian Ping also emphasized the practicality of Skeletal Muscle Mass Index (SMI) to screen for risks of sarcopenia, an age-related condition characterized by the decline in skeletal muscle mass and strength. However, it’s essential to acknowledge that sarcopenia risks can transcend age boundaries and affect younger individuals with low muscle mass, sedentary lifestyles, or specific medical conditions. Recognizing the importance of early detection, Qian Ping is utilizing SMI as a proactive tool to identify individuals at risk of sarcopenia early on in order to provide them with appropriate interventions to prevent further muscle loss.

InBody Body Composition Result Sheet

Child’s Health Matters: Introducing the InBody Children Result Sheet

Child doing InBody test in a pharmacy

At Well, they understand the utmost importance of your child’s health. That is why they are utilizing the InBody Children Result Sheet to delve into your child’s body composition. By assessing and monitoring a child’s body fat early on, they can take proactive steps to address childhood obesity and prevent its associated risks such as type 2 diabetes mellitus, cardiovascular disease, high blood pressure, high cholesterol level, asthma and other obesity-related diseases.

In addition to assessing body fat, they also using the growth graphs from the InBody Children Result Sheet to track your child’s growth and development. By comparing your child’s height and weight to peers of the same age and gender, they ensure that your child’s growth and development fall within the normal range. By closely monitoring these parameters, they can provide reassurance and early intervention if necessary, ensuring that your child is growing up healthy.

 

Raising Health Awareness through Personalized Consultations and Nutritional Guidance

During the personalized consultations, they will take the time to understand their customers’ dietary habits, lifestyle habits and health goals. With this information, they will carefully evaluate their customers’ nutrition needs, educate them with health advice and suggest them the right supplements to help them achieve their health goals.

Pharmacist providing nutrition consultation

Benefits of Incorporating InBody in Pharmacy

  • Early Detection of Health Risks: InBody body composition analysis can detect early signs of health risks such as obesity, sarcopenia, muscle imbalances, and nutrition deficiencies. By identifying these risks early, pharmacists can initiate preventive measures or refer customers to healthcare providers for further evaluation and intervention, potentially preventing more serious health issues down the line.
  • Personalized Health Interventions: With insights from InBody body composition analysis, pharmacists can tailor their recommendations and interventions to each individual’s specific health needs. In specific, pharmacists can provide personalized health advice based on the individual’s body composition result, addressing areas such as nutrition, exercise, and lifestyle modifications. Additionally, they can suggest the right supplements to optimize health and address any deficiencies or imbalances identified through InBody.
  • Raise Health Awareness: The detailed body composition insights provided by InBody can help raise awareness about various health metrics beyond just weight. Customers gain insights into their muscle mass, body fat percentage, visceral fat level, sarcopenia risk and more, prompting them to take proactive steps towards improving their health.
  • Increased Customer Engagement: By incorporating InBody body composition analysis, pharmacists can engage customers in meaningful discussions about their health. This creates an opportunity for pharmacists to provide personalized advice and recommendations, leading to stronger relationships and improved customer loyalty.
  • Mobile Community Health Screening: With the portability of the InBody270, pharmacists can extend their services beyond the pharmacy walls and carry out health screening events in various community settings. These events provide convenient access to InBody test for individuals who may not regularly visit a pharmacy, thereby promoting community health awareness.
  • Customer-Focused Competitive Advantage: Integrating InBody technology into the pharmacy sets it apart from competitors who may offer only conventional health screening tests. By providing a comprehensive body composition analysis, the pharmacy not only diversifies its services but also enhances its appeal to customers seeking advanced health assessment options. This differentiation can attract new customers and enhance customer retention by providing added value.

Conclusion

Integrating InBody body composition analysis into pharmacy services offers a transformative approach to proactive healthcare. By enabling early detection of health risks, facilitating personalized interventions, raising awareness about holistic health metrics, and fostering meaningful customer engagement, pharmacies can elevate their role as trusted healthcare partners. Through tailored recommendations and comprehensive insights provided by InBody, pharmacists empower individuals to take proactive steps towards optimizing their health and well-being. This strategic integration not only enhances customer satisfaction and loyalty but also contributes to improved community health outcomes, ultimately shaping a healthier future for all.

Watch our video to explore InBody in action at Well Pharmacy and discover how this cutting-edge tool is revolutionizing the way we think about pharmacies!

Trainer assess muscle quality of gym member

ECW Ratio: The Hidden Metric for Assessing Muscle Quality

By Blog, Muscle

In the pursuit of optimal health and fitness, we often hear about the importance of muscle mass. However, another crucial aspect that deserves attention is muscle quality which delves deeper into the composition and functionality of your muscles instead. While there are indeed various methods to assess muscle quality, one particularly insightful approach involves measuring the Extracellular Water (ECW) Ratio using Bioelectrical Impedance Analysis (BIA). The BIA method is quick, non-invasive, and it offers valuable information about muscle composition, making it a popular choice in both clinical and fitness settings.

In this blogpost, we will delve deeper into the hidden link between ECW Ratio and muscle quality and explore how this often-overlooked metric can be utilized in various contexts.

Understanding ECW Ratio

ECW Ratio is the ratio of Extracellular Water (water outside your cells) to Total Body Water (total amount of water inside and outside your cells), and it acts an important indicator of body water balance.

The ideal ECW for a healthy population is around 38%, and when we convert it to a ratio, it becomes 0.380. Using this ideal value, the normal reference range is defined as 0.360 to 0.390 to indicate a well-balanced water ratio.

ECW Ratio

A low ECW Ratio below 0.360 indicates high muscle mass, which is due to the increase in Intracellular Water (ICW) stored in the muscles. This phenomenon is commonly observed in athletes and bodybuilders who have high muscle mass.

Meanwhile, a high ECW Ratio above 0.390 could indicate potential health concerns and is often due to these two factors:

  • An increase in ECW, which indicates excess fluid outside cells. This can be caused by conditions such as inflammation, injury, post-surgery recovery, or heart and kidney diseases.
  • A decrease in ICW, which reflects a reduction of fluid inside cells. This decrease may result from factors such as aging or malnutrition.

Causes of high ECW Ratio

Hidden Link between ECW Ratio and Muscle Quality

Assessing muscle quality requires a nuanced approach that goes beyond measuring muscle mass alone. By simultaneously comparing two key parameters—Extracellular Water (ECW) Ratio and Skeletal Muscle Mass Index (SMI), we can gain a more comprehensive understanding of muscle quality and health.

*Note: SMI is a measurement used to assess total amount of skeletal muscle mass, with recommended cutoffs of above 7.0 kg/m² for males and 5.7 kg/m² for females. (References from Asian Working Group for Sarcopenia for muscle mass measurement using BIA)

Muscle Nutrition Evaluation InBody

Muscle-Nutrition Graph provided by InBody970

Scenario 1: High SMI and Normal ECW Ratio – Good Muscle Quality

Imagine having a high Skeletal Muscle Index and a normal Extracellular Water Ratio. In this scenario, your body muscle and body water are both in good conditions. Essentially, this indicates that you have a healthy amount of muscle mass relative to your body size, and your body water levels are adequately balanced. This is indicative of good muscle quality, suggesting that your muscles are both well-developed and properly hydrated.

Scenario 2: High SMI but High ECW Ratio – Monitoring Required

Now, consider a situation where you have a high Skeletal Muscle Index but also a high Extracellular Water Ratio. This might initially seem like a positive outcome, suggesting high muscle mass. However, the elevated ECW ratio could indicate overhydration rather than true muscle development. In specific, overhydration can skew the interpretation of muscle mass. Therefore, it’s essential to monitor the ECW ratio closely in this scenario as it might require adjustments in hydration levels or further investigation into the underlying causes.

Scenario 3: Low SMI and Normal ECW Ratio – Low Muscle Mass

On the flip side, if you find yourself with a low Skeletal Muscle Index and a normal Extracellular Water Ratio, it suggests a deficit in muscle mass. Despite having balanced body water levels, the insufficient muscle mass indicates a need for targeted interventions to improve muscle development. This scenario underscores the importance of incorporating strength training and muscle-building exercises into your fitness regimen to enhance muscle quality and overall health.

Scenario 4: Low SMI and High ECW Ratio – Low Muscle Mass & Poor Muscle Quality

Lastly, the worst-case scenario emerges when both the Skeletal Muscle Index and the Extracellular Water Ratio are low. This combination indicates not only low muscle mass but also poor muscle quality. Addressing this situation requires comprehensive strategies focusing on both increasing muscle mass and optimizing hydration levels to improve overall muscle quality and health.

Practical Applications of ECW Ratio

  • Fitness Assessments: Incorporating ECW Ratio into fitness assessments provides a more comprehensive evaluation of muscle quality and health beyond muscle mass. Fitness professionals can use ECW Ratio to tailor training programs and nutritional strategies to optimize muscle quality and performance.
  • Rehabilitation and Injury Prevention: In rehabilitation settings, the ECW Ratio can serve as a valuable tool for tracking progress and guiding treatment interventions. With ECW Ratio, physiotherapists can monitor changes in muscle composition during the recovery process, ensuring that rehabilitative exercises and therapies effectively promote muscle healing and restoration of function.
  • Elderly Care and Fall Prevention: Among the elderly population, maintaining muscle quality is crucial for preventing falls, preserving mobility, and enhancing overall quality of life. ECW Ratio provides insights into age-related changes in muscle composition. Healthcare professionals working with older adults can use ECW Ratio to assess muscle health, identify individuals at risk of falls due to poor muscle quality, and implement interventions such as strength training and balance exercises to improve muscle function and reduce fall risk.
  • Nutritional Optimization: Proper nutrition plays a crucial role in supporting muscle quality and recovery. By incorporating ECW Ratio into nutritional assessments, dietitians can personalize dietary recommendations that helps support muscle repair and growth, thereby enhancing overall muscle quality.

Practical Applications of the ECW Ratio

Conclusion

In conclusion, ECW Ratio stands as a vital tool with wide-ranging applications. From fitness assessments to rehabilitation, elderly care, and nutritional optimization, its utility extends across diverse fields. By incorporating this metric into our practices, we gain invaluable insights into muscle quality beyond mere muscle mass which enables us to tailor interventions precisely, optimizing muscle health and overall well-being.

Experiece our InBody970 at your nearest location to learn more about your muscle quality

 

Doctor assisting patient to do an InBody Body Composition Analysis

InBody in Wellness Centers: Holistic Approach to Wellness

By Blog, Health, Press

A Holistic Approach to Personal Well-Being at F7 Wellness

F7 Wellness aims to redefine the concept of personal well-being and offer a truly holistic approach to wellness. Their commitment to redefining wellness is made possible through the application of InBody, to provide clients with comprehensive insights into their body composition and overall health. Unlike traditional methods that rely solely on weight and BMI, InBody utilizes Bioelectrical Impedance Analysis (BIA) technology to provide a detailed analysis of muscle, fat, and water distribution throughout the body. These body composition data empower individuals to make informed decisions about their health, enabling them to set realistic goals, track progress accurately, and make targeted adjustments to their wellness routines.

In this blog post, we will delve into the comprehensive use of InBody technology at F7 Wellness and how InBody transforms the wellness journey for their clients.

F7 Wellness

Advanced Technology for Comprehensive Analysis with the InBody970

Before each consultation session at F7 Wellness, clients will receive an InBody970 full-body composition analysis, a new state-of-the-art body composition technology from InBody. The printed InBody Body Composition Result Sheet will serve as a comprehensive guide, offering informative details about muscle and fat distribution, water balance both inside and outside cells as well as the overall health of body cells.

According to Dr Jassica, the F7 Wellness Doctor, this quick, convenient, and non-invasive analysis provides valuable insights into body composition and overall health, paving the way for a truly personalized wellness journey.

Alongside the body composition analysis, she reveals that the center also utilizes a fully automated blood pressure monitor, BPBIO750 for precise blood pressure measurements. This additional layer of screening enables the identification of potential risks associated with high blood pressure, ensuring a thorough understanding of each individual’s health condition.

    Doctor assisting patient to do an InBody Body Composition Analysis  InBody BPBIO Blood Pressure TestApplication of InBody Parameters in Providing Personalized Nutrition Consultations

Following the body composition analysis, Dr Jassica will conduct a thorough review of the body composition data and also a comprehensive nutritional consultation. During nutritional consultations, she utilizes InBody parameters such as Body Fat Mass, Percent Body Fat, and Visceral Fat Area to screen for potential health risks that are associated with obesity and high visceral fat. For example, hypertension, diabetes, dyslipidemia, and fatty liver.

Nutrition Consultation

Going beyond the traditional focus on body fat, Dr. Jassica highlights InBody technology for its unique ability to provide clients with a deeper understanding of cellular health and nutritional status by looking at Phase Angle. Phase Angle measures the angle of resistance on cellular membrane, and it is often used as an indicator of cellular health and nutritional status. A higher Phase Angle is generally associated with better cellular health and nutritional status; meanwhile, a lower Phase Angle may indicate malnutrition or other health problems.

Moreover, with the InBody Evaluation Result Sheet, Dr Jassica now takes it a step further by educating clients on how their Phase Angle compares to populations of the same age and even those younger. This comparative analysis serves as a powerful motivational tool, igniting a sense of determination within clients to prioritize their well-being. By understanding where they stand in the spectrum of cellular health, clients are inspired to adopt behaviors and habits that support and enhance their cellular vitality, thus embarking on a journey towards improved overall wellness.

Following a thorough understanding of clients’ body composition and health conditions, the next step is to provide personalized nutritional advice and education on practicing a balanced diet.

InBody Evaluation Result Sheet

Application of InBody Parameters in Tailoring Training Regimes

According to Lewis, the F7 Wellness Personal Trainer, he delves into InBody parameters like Percent Body Fat, Skeletal Muscle Mass, and Visceral Fat Area, to accurately assess clients’ fitness level and physical condition.

Alongside analyzing key metrics related to body fat, he fine-tunes the training regimen by assessing muscle balance through Segmental Lean Analysis (SLA) and muscle quality through ECW Ratio. 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). An increase in ECW can sometimes indicate underlying issues or unusual conditions such as water retention, injury, or inflammation, which indirectly affect muscle quality.

Furthermore, in the ongoing battle to prevent and manage sarcopenia, he also prioritizes monitoring Skeletal Muscle Index (SMI) for preserving muscle strength and enhancing clients’ quality of life as they age.

Personal Trainer at Gym

Wellness Redefined: Benefits of Integrating InBody in your Wellness Center

  • Objective Tracking of Progress: InBody analysis provides objective metrics for tracking progress over time. Clients can see changes in their body composition, muscle mass, and fat levels, which can serve as motivation to adhere to their wellness plans.
  • Enhanced Client Engagement: Incorporating InBody analysis into wellness programs can enhance client engagement by providing tangible data and visual representations of progress. Clients are more likely to stay committed to their wellness journey when they can see measurable results.
  • Educational Opportunities: InBody can be used as an educational tool to help clients understand the importance of maintaining a healthy body composition and the impact it has on overall health and well-being. Wellness centers can use InBody results to educate clients about nutrition, exercise, and lifestyle choices.

InBody970

Conclusion

The integration of InBody technology in wellness centers marks a pivotal advancement in the realm of health and fitness. By providing detailed and accurate body composition analysis, it not only enables the early identification of potential health risks but also facilitates the development of targeted interventions such as personalized nutritional advice and tailored training regimes. This holistic approach not only addresses immediate concerns but also fosters long-term health improvements, empowering clients to make informed decisions and achieve their wellness goals.

Watch our video below to discover how our InBody technology can elevate your clients’ wellness experiences at your wellness center. Together, we can empower your clients to take control of their health and achieve their wellness goals like never before!

InBody in Wellness Centers

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