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At Biostrap, we’re thrilled to announce that our cutting-edge wearable technology, Kairos, is now eligible for purchase using Health Savings Account (HSA) or Flexible Spending Account (FSA). Our partnership with Truemed makes it possible for you to enjoy significant tax advantages.

Whether you want to access high-fidelity PPG data to track sleep, biometrics, and nervous system state, or interested in superior data to help build AI-powered predictive health models for physical and mental health monitoring, it’s just become a lot more affordable. Grab the 3- or 5-Pack Biostrap Kairos Evaluation Kit using pre-tax dollars.

What does it mean? 

When a wearable technology device like Kairos is “covered by HSA/FSA funds,” it means that you can use the funds from your HSA or FSA to purchase the device. Both HSAs and FSAs are tax-advantaged accounts that you can contribute to and use to pay for qualified medical expenses. Here’s a brief explanation of each:

Health Savings Account (HSA):

  • An HSA is a tax-advantaged savings account available for individuals with high-deductible health plans.
  • Contributions to an HSA are tax-deductible, and the funds can be withdrawn tax-free if used for qualified medical expenses.
  • HSA funds can be used for a wide range of medical expenses, including prescription medications, doctor visits, certain medical devices, and now the Biostrap Kairos.

Flexible Spending Account (FSA):

  • An FSA is another tax-advantaged account that allows employees to set aside a portion of their pre-tax earnings for qualified medical expenses.
  • FSA funds must be used within the plan year or a grace period, and they can cover eligible medical expenses such as co-pays, deductibles, certain medical products, and now the Biostrap Kairos.

Using HSA/FSA funds provides a financial benefit as contributions to these accounts are made with pre-tax dollars, effectively reducing the overall cost of the device.

Here are six reasons to use your FSA/HSA dollars for Kairos

  1. Tax savings

When it comes to your health, every investment matters. By using pre-tax dollars, you not only maximize your tax savings but also make a smart and affordable investment toward your health monitoring efforts.

  1. Affordable access to advanced health technology

Kairos isn’t just a sleep tracker; it’s a comprehensive health companion that helps you better understand your autonomic nervous system. With FSA/HSA coverage, you can now grab the 3- or 5-Pack Biostrap Kairos Evaluation Kit without breaking the bank. Experience the power of physiological biometrics, sleep analysis, and the innovative Spot Check feature that provides real-time insights into your autonomic nervous system balance – effectively a window into optimizing your mental health resilience.

  1. Superior data quality for remote patient monitoring

For healthcare professionals, Kairos offers an unparalleled tool for remote patient monitoring. Keep track of patients’ biometrics, sleep patterns, autonomic nervous system state, and overall health with advanced remote monitoring. This not only helps to improve patient outcomes but also allows for early intervention and personalized care.

  1. Optimizing training for peak performance

Unlock the full potential of your team’s training programs with Kairos. Track individual and team progress, identify areas for improvement, and tailor training regimens based on personalized data. The advanced analytics provided by Kairos empower coaches to optimize training strategies for increased performance.

  1. AI-driven insights for unprecedented precision

Kairos and the accompanying Vital Science app are built to be a platform for innovation. With Kairos’ capability to gather extensive high-fidelity PPG data, it serves as a valuable tool for developing new AI-driven algorithms. Contribute to the future of health technology by using Kairos and our Waveshape feature to refine and develop algorithms that can provide unprecedented insights into personalized medicine, diagnostics and health monitoring.

  1. Proactive health management made easy

Stay ahead of potential health issues with Kairos. Its high-fidelity data capture and personalized insights empower you to be proactive in managing your health or the health of those you choose to monitor remotely. By using your HSA or FSA funds, you make a smart investment in a device that goes beyond traditional health tracking, offering a holistic approach to well-being.

Now is the time to make the smart choice for your health. Use your HSA or FSA funds to invest in Kairos and experience the future of personalized health technology. Maximize your tax savings, embrace proactive health management, and join a community that prioritizes collective well-being.

To purchase using your FSA/HSA funds, select the 3- or 5-Pack Kairos Evaluation Kit, go to checkout, scroll down to “Payment”, past “Delivery” and “Shipping method”, and check ​​”TrueMed – Pay with HSA/FSA”. After clicking “Pay now”, you will be redirected to TrueMed – Pay with HSA/FSA to complete your purchase securely.

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Did you know that using advanced features extracted from PPG has been instrumental for our partners? It allowed them to achieve life-changing discoveries from predicting Inflammatory Bowel Disease flare-ups and Sickle cell anemic vaso-occlusive crises to monitoring emotional/mental health issues, hypercapnia, and beyond.

What were they using? Biostrap Waveshape! It offers a revolutionary approach to harnessing Photoplethysmography (PPG) features for deep learning and AI-driven predictions in healthcare. While heart rate and heart rate variability are essential metrics, Waveshape takes it a step further, providing tools to discover new AI-powered biometrics that can monitor both physiological and psychological health conditions.

Understanding PPG features

PPG involves shining an LED through the skin to measure light absorption changes with each heartbeat. This variation helps calculate heart rate and other cardiovascular metrics. The PPG waveform visually represents this data, and within it lie specific markers called PPG features or fiducial points. These markers, such as amplitude or the location of the dicrotic notch, determine the PPG’s shape, enabling the computation of various health biomarkers.

What are fiducial points?

Fiducial points in the context of PPG are specific markers or distinctive features within the PPG waveform. These points play a crucial role in pinpointing events or characteristics in the waveform, such as the peak of a heartbeat or the location of the dicrotic notch.

Extracting fiducial points is essential for accurate analysis of physiological signals, enabling the computation of various health biomarkers like heart rate variability, blood oxygen levels, and more complex metrics. These reference markers serve as anchors for interpreting the intricate data collected through PPG, contributing to the development of precise and insightful health predictions.

Overcoming challenges

Extracting fiducial points from PPG, however, is a complex process that demands expert-level skills. Our experience, spanning over six years, has been pivotal in overcoming the challenges associated with this intricate process. Hence, we ensure accuracy, reducing the margin for errors in the extraction process.

Addressing commercial wearable shortcomings

Waveshape stands out against commercial wearables’ limitations. Subpar signal quality and data processing, restricted metrics, and lack of customization are common issues. Waveshape, however, offers superior high-fidelity PPG signals, direct access to validated PPG features and fiducial points, a fully customizable experience, and seamless integration for efficient data extraction.

Building AI-powered predictive health models

Waveshape empowers users with superior data and expert-level feature extraction from PPG, enhancing the accuracy and insightfulness of predictive health models. These advanced PPG features open doors to a wealth of nuanced information embedded within the waveform. Such fiducial points may be systematically utilized to create a comprehensive understanding of cardiovascular dynamics.

Thus, with high-quality and transparent data, the transition from reactive to proactive healthcare may become possible, preventing health exacerbations and managing emotional and mental health through innovative biometrics.

Precision medicine elevated

In the quest for precision medicine, Waveshape sets a new standard. Its superior data measurement and cutting-edge PPG features enable healthcare professionals to deliver personalized care that maximizes patient outcomes. This transition from one-size-fits-all solutions to tailored treatments represents a significant leap in healthcare.

Are you intrigued by the possibilities of Waveshape?

Explore how you can join our visionary partners in revolutionizing remote health monitoring and precision medicine. Click on the “Partner with us button” on our main page, fill out the form, and a member of our team will reach out to you.

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The advent of digital health and research has has opened up new frontiers in healthcare delivery, diagnosis, treatment, and disease prevention. One central element that fuels this digital revolution is data. Data has become the lifeblood of digital health and research, driving insights, innovation, and improved patient outcomes. However, the potential of data can only be fully realized when there is transparency.

What is data transparency

Data transparency refers to the ability of all stakeholders to have access to and understand the data that is being used. It is about making the data freely available and clear for everyone to see, without hidden agendas or misuse. This transparency is critical to foster trust, enable collaboration, and ensure accountability in the digital health landscape.

They can see where the data comes from, how it is processed, and how it is used. This transparency empowers everyone to make informed decisions, enhances collaboration, and fosters trust.

The importance of data transparency

The value of data transparency in digital health and research cannot be overstated. It forms the foundation of trust between patients, healthcare providers, and researchers. When there is transparency, patients are more likely to share their data, knowing that it will be used responsibly and for their benefit. This trust is crucial for the success of digital health initiatives.

Data transparency also leads to better research outcomes. When researchers have access to transparent data, they can conduct more robust analyses, develop novel algorithms, make accurate predictions, and develop innovative solutions and even discover new biomarkers.

That’s why transparency is one of the core values of Biostrap in how it provides access to data that’s captured by its wearable, Kairos. This transparency enables collaboration, as researchers can share their data and findings, leading to greater scientific progress.

Moreover, data transparency can help to ensure accountability in the digital health space. It allows for the tracking and auditing of data, ensuring that it is used responsibly and ethically.

This accountability can help to prevent data breaches and misuse, protecting the privacy and rights of patients.

The missing link: data transparency in wearables

Wearables, including fitness trackers, smartwatches, and health monitors, collect a wealth of data about our bodies and lifestyles. This data can provide valuable insights into our health and well-being, enabling personalized healthcare and proactive disease prevention.

However, there is a missing link that threatens to undermine their value: data transparency. Many wearable companies operate in a black box, with little transparency about how they collect, process, and use the data.

This lack of transparency raises concerns about the privacy, security, and ethical use of the data.

That’s where Biostrap’s team wanted to bridge the gap and be a fully transparent digital health solution. At Biostrap, we believe that transparency is key to building trust and fostering collaboration in the digital health space.

Hence, we are committed to providing our enterprise clients with clear, understandable information about how the data is collected, processed, and used. It also gives them control over the data, allowing them to decide who can access it and for what purpose.

It can also enable collaboration among researchers, leading to better research outcomes. Especially so because Biostrap also collaborates with researchers, sharing anonymized data to support health research.

Challenges to data transparency in digital health and research

While the benefits of data transparency are clear, there are several challenges to achieving it in digital health and research. These challenges include privacy concerns, data security risks, and the complexity of health data.

Privacy is a major concern in the digital health space. Many individuals are wary of sharing their health data, fearing that it could be misused or fall into the wrong hands. To address this concern, there is a need for strong privacy protections and clear communication about how the data will be used.

Data security is another significant challenge. With the increasing volume of health data being collected, the risk of data breaches and cyberattacks is high. This risk can be mitigated through robust data security measures and regular audits.

To address these challenges, Biostrap has implemented high-quality data protection measures, built a secure ecosystem that’s fully HIPAA-compliant, and ensures that user and patient data is safe and can never be accessed by a third party.

Reach out to our team to discuss how Biostrap can help get your research project off the ground, or how we can help best implement a successful remote health monitoring program in your practice.

Click on the “Partner with us” button at the top of THIS page to book a meeting with a team member.

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In an age where wearable technology has become an integral part of our daily lives, wearables have emerged as powerful tools for remote health monitoring. These devices, equipped with an array of sensors, can generate a staggering amount of data points, offering valuable insights into our well-being. However, for individuals, interpreting this wealth of data and making informed decisions can be a daunting task. This is where having their data monitored by an organization, led by healthcare professionals, can make all the difference in how individuals incorporate that data into their daily decision-making.

Additionally, these tools are increasingly becoming essential for organizations looking to monitor the well-being of their groups. Whether it’s a police department, first responders, a specific patient group, or an olympic team.

Advanced remote health monitoring

The beauty of modern wrist-worn wearables, such as the Biostrap Kairos, lies in their ability to gather an extensive range of health metrics. From heart rate and heart rate variability, to sleep patterns and activity levels, these devices provide an all-encompassing snapshot of one’s health. Yet, the sheer volume of data can be overwhelming for individuals attempting to navigate the intricacies of their well-being. This complexity often results in underutilized data and missed opportunities for improved health.

For individuals, the challenge is clear: how can they effectively utilize the multifaceted data generated by their wearables to make meaningful lifestyle choices? This is precisely where the idea of having their data monitored by an organization, with professionals who can interpret and guide them, becomes profoundly meaningful.

Precision in data interpretation

One of the primary advantages of using a Biostrap’s remote health monitoring solution is the precision in data interpretation. The Biostrap Kairos is equipped with cutting-edge sensors and technology that provide highly accurate health metrics, such as heart rate, HRV, sleep parameters, nervous system balance analysis, activity levels, and more. When organizations use Kairos, they can trust the data they receive, making it easier to make informed decisions.

Biostrap health monitoring platform offers real-time data analytics, enabling healthcare professionals to track trends, spot anomalies, and identify potential health concerns. This accuracy and immediacy in data interpretation can lead to early intervention, preventing health issues from worsening, and ultimately saving lives.

Personalized health recommendations

The modern concierge of remote health monitoring goes beyond just collecting data; it’s about transforming that data into actionable insights. Biostrap’s health monitoring platform uses advanced algorithms and artificial intelligence to generate personalized health recommendations for individuals, including optimal bed time and wake up time for best recovery.

By monitoring a person’s unique health data, the lead of the organization or healthcare professional can provide tailored guidance, including exercise routines, dietary suggestions, stress management techniques, and more. These recommendations are based on the individual’s specific health goals and existing health conditions, making them much more effective in promoting a healthier lifestyle.

Comprehensive health and wellness ecosystem

Biostrap’s remote health monitoring solution is not limited to basic health tracking. Biostrap’s team offers a comprehensive approach to ensure that the organization and its group members receive superb care and support, fostering a sense of well-being.

White-glove experience for organizations

Biostrap’s remote health monitoring solution aims to provide a white-glove experience for organizations. This means that Biostrap offers tailored support and services to ensure the organization’s needs are met.

Organizations will have access to dedicated account managers who will guide them through the setup and usage of the health monitoring platform. These professionals are there to answer questions, resolve issues, and ensure a smooth experience. Furthermore, Biostrap provides on-demand training for the organization’s staff, ensuring they can effectively use the platform and make the most of its features.

Biostrap’s wrist-worn wearable Kairos and health monitoring platform is the modern concierge of remote health monitoring. By choosing this solution, organizations and their group members can benefit from more accurate data interpretation, personalized health recommendations, and a white-glove experience that caters to their unique needs.

It not only enhances the well-being of the group members but also contributes to a culture of health and wellness within the organization.

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In the quest for better health and well-being, there has been a growing focus on tapping into the parasympathetic nervous system. This emphasis on relaxation, mindfulness, and stress reduction is undoubtedly valuable, but it’s crucial to recognize a fundamental truth: the autonomic nervous system (ANS) is never just in one mode. It’s in a perpetual state of flux, maintaining a continuous tug-of-war between its two branches: the sympathetic nervous system (SNS) and the parasympathetic nervous system (PNS).

The misconception of pure parasympathetic dominance

In the pursuit of relaxation and stress reduction, there’s a common misconception that achieving a state of pure PNS dominance is the ultimate goal. While the PNS is indeed responsible for “rest and digest” activities, it’s essential to remember that the ANS is not an on-off switch, but rather a dial — a dynamic system that adjusts to your body’s needs in real-time.

Often referred to as the body’s autopilot, the ANS regulates countless bodily functions without us even realizing it, from heart rate and digestion to respiratory rate and pupil dilation. While it might be tempting to think of the ANS as a binary switch, with one side turning off as the other activates, the reality is far more nuanced.

Our bodies are engaged in a constant tug of war, with the SNS and PNS in a dynamic manner, adjusting their influence according to our physiological and psychological needs. In certain situations, being more dominant in one mode is more beneficial, but remember, pure dominance in either is rare. This continuous interplay between the sympathetic and parasympathetic branches is essential for our overall health and well-being.

The art of balance: when dominance matters

Imagine a lion chasing you through the savannah; your body’s SNS kicks into high gear. Your heart rate soars, your muscles tense, and your senses become razor-sharp – all to help you escape danger and survive. This is a classic example of the SNS taking charge when needed, ensuring your survival in critical moments.

Conversely, during moments of calm and relaxation, the PNS steps in. It slows your heart rate, aids in digestion, and promotes healing and regeneration. When you’re enjoying a peaceful night’s sleep, engaging in mindful meditation, or simply lounging on the couch, the PNS is the star player, ensuring your body rests, recharges, and recovers.

The modern SNS dominance epidemic

The sympathetic nervous system is designed to respond to immediate threats and challenges. However, the relentless demands of the modern world have led many individuals to remain stuck in this heightened state of arousal, even when no immediate danger is present. The result? An imbalance in the autonomic nervous system that can have profound consequences on physical and mental health.

Here’s how SNS dominance affects us:

Chronic stress

Modern life is rife with stressors, from work pressures to financial concerns and constant connectivity through technology. This chronic stress keeps the SNS in overdrive, leading to increased heart rate, shallow breathing, and elevated cortisol levels – all of which can have detrimental effects on health.

Sleep disturbances

SNS dominance often spills into nighttime hours, making it difficult to unwind and achieve restorative sleep. Sleep quality suffers as a result, leaving individuals feeling fatigued and irritable.

Digestive issues

The SNS is not conducive to proper digestion, leading to problems like indigestion, irritable bowel syndrome (IBS), and other gastrointestinal discomforts.

Mental health impact

Persistent SNS activation can contribute to anxiety disorders, depression, and an overall sense of unease.

Reduced immunity

Over time, a continually dominant SNS can weaken the immune system, making individuals more susceptible to illnesses and infections.

Quantifying the autonomic nervous system balance with Biostrap

Understanding this delicate balance within the ANS can seem complex, but wearable technology like the Biostrap Kairos makes it accessible and actionable. Biostrap provides a comprehensive view of your ANS activity, allowing you to fine-tune your lifestyle choices for better health and well-being.

Biostrap’s newest device, Kairos, matched with the Vital Science app, empowers users with real-time insight into how much that ANS dial is turned toward PNS or SNS in at any given time of the day.

nervous system

 

Kairos provides:

Real-time spot check: Kairos offers an assessment of your ANS balance, giving you a dynamic view of your body’s state at any point during the day.

Lifestyle insights: Kairos can reveal how certain lifestyle interventions, such as exercise, meditation, or dietary choices, impact your ANS balance.

Actionable guidance: With this data-driven insight, you can make informed decisions about your daily routines, optimizing your activities to achieve better ANS balance.

In a world where the focus on relaxation and parasympathetic nervous system activation is growing, Biostrap provides the tools to help you navigate the delicate balance of your autonomic nervous system. It empowers you to recognize and respond to your body’s needs, whether it’s a burst of energy for a challenging task or a deep sense of relaxation for restorative sleep. Remember, it’s not about switching a switch on and off, it’s about learning to toggle the dial back and forth of your ANS for a healthier, more optimal, and more balanced life.

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In today’s fast-paced world, stress has become a pervasive problem that affects our physical and mental well-being. Chronic stress can have detrimental effects on our health, leading to various disorders and increasing the risk of cardiovascular problems and mental health issues. For effective stress monitoring and management, it is crucial to accurately measure its impact on our bodies.

Traditional methods of stress assessment, such as physical tests and questionnaires, have limitations in terms of subjectivity and accuracy.

However, advancements in wearable biosensors have paved the way for real-time, continuous monitoring of stress biomarkers, providing valuable insights for clinical diagnoses and personal stress management.

Unraveling the complexities of stress: a holistic approach

Stress, as an intricate and multifaceted physiological response to external demands, triggers the orchestrated release of cortisol, adrenaline, and noradrenaline – molecular protagonists underpinning the “fight-or-flight” reaction.

However, prolonged exposure to stress ushers in a cascade of physiological changes, resulting in disruptions to the harmonious equilibrium orchestrated by the hypothalamic-pituitary-adrenal (HPA) axis and the sympathetic adrenal medullary (SAM) axis. These disruptions contribute substantively to the pathogenesis of anxiety, depression, and cardiovascular morbidity.

Beyond traditional metrics: the futility of conventional stress assessment

Traditionally, stress has been measured through physical tests and questionnaires. The Trier Social Stress Test (TSST) is a commonly used test that assesses acute stress levels by subjecting individuals to public speaking and arithmetic tasks. Saliva, blood, psychophysiological, and cognitive measures are then analyzed to evaluate stress levels.

While these tests provide valuable information, they are not without limitations. Variability in test conditions and the subjective nature of self-reporting can impact the reliability and reproducibility of results.

Another widely used method is the Perceived Stress Scale (PSS), a survey that assesses an individual’s overall stress levels based on their perceived life experiences. Similarly, the Kessler Psychological Distress Scale (K10) measures mental distress levels. These tools provide insights into an individual’s subjective experience of stress but do not offer objective measures of physiological responses.

Wearable biosensors: a panacea for stress monitoring

Recent advancements in stress monitoring focus on the quantification of stress biomarkers, which are molecules or biometrics, or physiological indicators, that provide insight into an individual’s nervous system state. Biomarkers can be detected in various bodily fluids, such as blood, saliva, urine, and sweat. Sweat biomarkers, in particular, have gained attention due to the non-invasiveness and ease of collection.

Sweat contains a wide range of metabolites, electrolytes, and minerals that can serve as indicators of stress levels. Cortisol, a glucocorticoid hormone, is considered the gold standard for evaluating the activity of the HPA axis. Other stress biomarkers include epinephrine, norepinephrine, alpha-amylase, and interleukin-6. Electrochemical and colorimetric transduction methods have been developed to detect and quantify these biomarkers in sweat.

Additionally, the Biostrap Kairos, introduces a novel way to assessing autonomic nervous system balance including sympathetic and parasympathetic branch quantifications. Utilizing raw PPG, Kairos captures relevant biometrics including beat-to-beat heart rate data, heart rate variability (HRV) and respiratory rate to allow for in-depth objective data analysis.

Such real-time, seamless, and unobtrusive collection of stress data is highly valuable for simultaneously prioritizing user comfort and feasibility during diverse physiological parameters.

Challenges of sweat measurements

While sweat analysis have shown great potential in stress monitoring, there are still challenges to overcome. The correlation between sweat analyte (or chemical undergoing analysis) concentrations and blood concentrations is complex, and factors such as sweat rate and analyte distribution can affect the accuracy of measurements. Extracting interstitial fluid (ISF) analytes in a non-invasive manner also presents challenges, as extraction efficiency and skin surface contamination can impact accuracy.

Further research is needed to validate the clinical utility of sweat as a diagnostic biofluid for stress monitoring. Improvements in sampling methods and analyte monitoring techniques are necessary to enhance the reliability and accuracy of wearable stress sensors. Integration of multiple sensing arrays and the development of multiplexed wearable sensing platforms hold promise for comprehensive stress assessment.

Innovations toward a new trajectory

Advancements in wearable biosensors have revolutionized the field of stress monitoring. These devices provide real-time, continuous data on stress biomarkers, allowing for personalized stress management and clinical diagnoses. While sweat sensors offer a non-invasive and convenient method for stress assessment, there are challenges that are yet to be overcome.

By harnessing the power of wearable biosensors, like Biostrap Kairos, we can gain valuable insights into our stress levels in real time and any given time of the day and take proactive steps to improve the state of our nervous system.

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Summary algorithms are metrics designed to aggregate and simplify multiple physiological and behavioral measurements into three easy-to-interpret outcomes. These scores are presented on a 0 to 100 scale, where 100 is the ‘best’ attainable score. By presenting data in a reader-friendly format, less experience and time is required to interpret each individual’s status and progress over time, which helps both the end-user as well as any care-takers or data monitors.

Below are the descriptions of each of three main summary scores presented by Biostrap: Activity, Recovery, and Sleep Scores.

Activity Score

Physical activity is a metric that is correlated with numerous health outcomes and diseases. Activity is not exclusive to exercise bouts, and sedentary behavior has also been shown to be associated with health outcomes.

Therefore, Biostrap calculates activity score using the activity distribution over the course of a 24-hour window, emphasizing consistent physical activity of 500 steps per hour during 12 unique hours. Additionally, energy expenditure relative to the user’s goal contributes to the activity score. The energy expenditure goal, or workout calories, can be modified in the Settings tab on the user application.

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Recovery Score

The recovery score is computed based on sleep data, with weighted inputs including relative resting heart rate and heart rate variability values. The Biostrap Recovery Score assesses a user’s daily value compared to a personal 5 to 30-day baseline to better understand an individual’s physiological recovery and readiness to perform.

Measures of various sleep parameters, such sleep duration, sleep latency, and the number of sleep disruptions also contribute to the overall Recovery Score calculation.

Sleep Score

The Biostrap Sleep Score includes a comprehensive analysis of over a dozen sleep parameters, including but not limited to nocturnal biometrics, sleep duration, sleep quality, awakenings, and movement.

The Sleep Score incorporates a global and individualized penalty system for calculating the score; for example, if an individual has oxygen saturation values below 90%, the algorithm will apply a global penalty. However, if an individual has an oxygen saturation within the normal range but just slightly below the trailing average over the last 30 days, they will receive a minor ‘relative’ penalty.

Ready to start tracking your Sleep and Recovery? Join our Biostrap family and get started with our Recover Set.

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What is it

Sleep latency is the term given to describe how long it takes to fall asleep. Sleep latency can vary greatly due to behaviors before bedtime, such as alcohol, medications, exercise, diet, and blue light exposure, among others.

However, tracking sleep latency can provide additional insight to help reflect on health, behavior, and intervention changes.

How is it measured

Sleep latency is measured in minutes from the time an individual attempts to fall asleep to the time when the individual enters the first stage of sleep.

Tracking changes in physiological metrics through photoplethysmography (PPG) and accelerometry provides improved insight as individuals may have difficulty reporting the time of initial sleep onset. By tracking metrics such as heart rate, heart rate variability, respiration rate, and limb movements, a good understanding of bedtime and onset of sleep can be made.

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Correlations to health conditions

It is important to note that directionality and magnitude of latency may or may not have clinical relevance based on an individual’s situation. For example, long sleep latencies can be indicative of disorders, particularly related to stress or insomnia. However, shortening sleep latency may not reflect positive changes, as high amounts of sleep debt decrease sleep latency. Further, substances such as alcohol may reduce sleep latency but may lead to lesser quality of sleep.

Many of the correlations between latency and health are drawn in anxiety and depression. These psychological disorders are relatively common and affect sleep and sleep latency. However, sleep latency is associated with decreased total sleep, where less sleep causes more anxiety and depression.

Thus, it can be essential to monitor sleep latency changes to catch trends before they become problematic.

Normal or acceptable ranges

The National Sleep Foundation acknowledges up to 30 minutes of sleep latency, regardless of age, as appropriate. Sleep latency of 31-45 minutes is listed as ‘uncertain,’ which could be due to individual trends. It stands to reason that very short sleep latency (<5 minutes) could indicate problems with fatigue and sleep deprivation; however, more research is needed on normative values in this range.

Interpreting trends

Although the clinical recommendations remain unclear, tracking sleep latency could benefit most individuals. This metric, inversely associated with total sleep duration, could provide insight into behavioral changes and how they affect sleep architecture.

Should sleep latency trend negatively for an individual, behavioral interventions could be suggested to correct sleep latency and potentially increase total sleep duration.

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What is deep sleep

Sleep can be broken down into four different ‘stages’ of sleep. Most commonly, sleep is divided into rapid eye movement sleep (REM) and non-REM (NREM) sleep. NREM sleep accounts for most of the sleep (75-80% of total sleep duration), while REM sleep makes up the rest. Within NREM sleep, there are three stages; the first stage is light sleep and is mostly the transitory onset of sleep; the second stage is also considered light sleep but makes up a longer duration than stage 1.

The third and fourth stages are considered ‘deep sleep’ and are characterized by slow brain waves. Deep sleep makes up roughly 13-23% of nightly sleep. It is during these stages that sleep is restorative and leads to many adaptive physiological outcomes that help the body adapt and repair. As such, deep sleep is more important than total sleep time, affecting health outcomes.

How it is measured

Deep sleep is often identified by slow waveforms on an electroencephalogram (EEG), which measures brain wave activity. As an alternative, deep sleep has been shown to have decreased movement and altered vital signs, particularly: lower heart rate, higher heart rate variability, lower blood pressure, lower temperature, and decreased sympathetic activity.

By measuring these changes using wearable technologies (accelerometers and photoplethysmography [PPG]), a close approximation of sleep stage can be made. This technology allows for passive measurement with much less equipment than a traditional EEG or polysomnogram.

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Correlation with health conditions

Much like total sleep time, the therapeutic benefits of deep sleep have robust physiological effects across many organ systems. However, deep sleep appears to be a better indicator of the quality of sleep than the total duration of sleep.

Deep sleep has been shown to affect growth hormone production, glucose metabolism, synaptic processes (e.g. learning/memory formation), and immune function changes. Sleep restriction, influencing the duration of deep sleep, has been linked to many adverse health outcomes, including cardiovascular disease, diabetes, neurodegenerative diseases, poor cognitive function, and many more conditions. As such, it is essential to get adequate amounts of good quality sleep, permitting deep sleep.

Normal or acceptable range

Currently, there are not widely accepted values specific to deep sleep. For each sleep session, most individuals have 13-23% of their duration in deep sleep. The recommended amount of deep sleep has not been thoroughly evaluated, but many experts believe it is better to have more than less. It should be noted that exceptionally high amounts of deep sleep may indicate short-term deficiencies.

Interpreting trends

Deep sleep is a complex biometric that is difficult to quantify. EEG devices provide a strong understanding of sleep stages and progressions but are less realistic for an individual on a regular basis. However, using accelerometers and PPG wearables, light and deep sleep can be approximated on a nightly basis and easily tracked over time.

As with total sleep duration, tracking deep sleep can provide insight into its contribution to changes in health-related outcomes. As a more challenging variable to quantify, monitoring deep sleep over time can also provide insight into lifestyle changes and how they affect deep sleep. For example, tracking how a medication affects deep sleep may provide insight into its efficacy or side effects.

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Body temperature plays an important role in well-being. Getting too warm can signify a fever, while getting too cold can cause bodily systems to shut down. This balance is also important for sleep: if your body isn’t at the right temperature before bed, you may be too uncomfortable to dip into a peaceful slumber.

Learn how to sleep better by optimizing your environments for sleep. Knowing the best temperature for sleep (and creating a bedroom that meets that standard) is one of the best sleep hacks out there.

Here’s what experts have to say about the ideal temperature for restful sleep.

The Best Temperature for Sleep

Being too warm can cause restlessness, and being too cold can lead to muscle contractions and blood vessel constriction, all of which create insomnia. So how should you set your thermostat to ensure the best sleep possible?

According to The National Sleep Foundation, a cool room around 65 degrees Fahrenheit provides the best sleep for most people. However, the average body temperature can vary depending on your age and overall health.

Babies and toddlers, for example, need the room to be between 65 and 70 degrees to sleep well. Women of different ages and even during different times of the month might need more variations, such as a slightly colder than average room, as hormonal changes — for example ovulation — can elevate their normal body temperature.

Body Temperature and Sleep

Your body temperature directly influences your ability to sleep. Why? Because body temperature decreases in response to going to bed. “When you go to sleep, your set point for body temperature — the temperature your brain is trying to achieve — goes down,” Stanford University’s H. Craig Heller, PhD told WebMD.

The deepest phase of sleep, also known as slow-wave deep sleep or non-rapid eye movement (NREM) sleep, occurs in correlation with a drop in brain and core temperatures.This is why decreased body temperature leads to drowsiness, and increased body temperature makes us feel more alert (like when we’re exercising).

It’s also why the right bedroom temperature is so important. When you wake up during the night due to uncomfortable conditions, you decrease the amount of NREM and REM sleep your body receives. We need NREM sleep for whole-body restoration, brain detoxification, and REM sleep is crucial for learning and memory consolidation.

The Role of Sleep Disorders and Other Conditions

Natural changes in body temperature are referred to as thermoregulation, according to sleep expert Dr. Michael Breus. He points out that thermoregulation is part of the circadian rhythm, the 24-hour sleep cycle that keeps us awake during the day and resting when the sun goes down.

However, temperature regulation can be influenced by other factors, such as illness, medications, menopause, pregnancy, and sleep disorders such as sleep apnea. These can greatly affect both REM (rapid eye movement) sleep and deep sleep. Experiencing these circumstances can cause frequent waking throughout the night, lowering sleep quality and reducing your ability to perform well in everyday life.

But, according to Breus, better sleep can be achieved even when faced with hormone disturbances or sleep disorders. In fact, making a few changes to your environment and routine can help reset your internal thermostat to an ideal sleeping temperature.

Sleep Tips for Better Rest

Now that you understand how the body responds to temperature, you can work toward creating the optimal environment for a good night’s sleep. If you’re constantly hitting snooze when the alarm goes off, it might be time to consider how you can adjust your bedroom surroundings to achieve the rest your body needs.

Adjusting for Climate

No one wants to wake up with night sweats, yet setting the air conditioner to its lowest level can make the room too cold for comfort. If you’re someone who prefers the cold side of the pillow, you know how important it is to avoid overheating during the night.

One way to find a happy medium is to use a fan, which can make a room up to 10 degrees cooler. Using this method reduces energy costs and prevents you from getting too warm throughout the evening.

The most important thing to remember is that comfort is key. Think of your bedroom as a cave — it should be cool, dark, and most of all, quiet.

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Bedding and Mattresses

Your bedding is another important aspect of your sleep environment. For example, memory foam pillows and mattresses tend to trap heat and make you feel warmer, especially if you’re a stomach sleeper. One idea is to opt for moisture-wicking sheets that keep you cool during sleep. Cotton sheets tend to be breathable, and some pillows are made with cooling materials that promote airflow.

On the other hand you can opt for a gel mattress or a gel mattress mat to place over your memory foam mattress.
If you share a bed with someone else, a larger bed can prevent the transfer of body heat throughout the night, thereby reducing overheating.

These simple changes, in combination with maintaining a cool room, can help you maintain an optimal temperature and sleep better throughout the night.

Sleep Habits and Routines

Regulating your body temperature may seem difficult during warmer months, especially if you tend to wake up feeling too warm. One effective — and seemingly counterintuitive — method is to take a warm bath or shower 60-90 minutes before bedtime.

A warm bath positions your body for a cool down once you step out of the bathroom. This kickstarts the cooling cycle that makes your body feel drowsy before bedtime, helping you fall and stay asleep.

Doing this every night can get your body into a routine so that it associates a shower in the evening with the onset of drowsiness. Similarly, drinking a warm cup of tea can warm your body and promote the cooling process so that you feel sleepy before bedtime.

The Best Temperature for Sleep

Finding the ideal sleeping temperature for your body is an important factor for a good night’s sleep. However, there are several more puzzle pieces at play when it comes to creating the ideal sleep environment. Climate, bedding, and nighttime routines all contribute to when you fall asleep — and how well you rest throughout the night.

Taking control of these matters by learning more about your sleep patterns, can ensure that you don’t miss out on a restorative night of sleep. Your quality of sleep is directly affected by your body temperature, bed room environment, and night-time routine, so taking actions to optimize them is important for your health, longevity, and happiness.

How do you know if your sleep routine and bedroom environment is helping you sleep better? By measuring the quality of your sleep, of course. With Biostrap’s standard sleep tracking feature, you’ll gain valuable insights into your sleep quality, from the amount of light and deep sleep you get to time spent in bed as well as sleep latency and nocturnal awakenings, and more. In addition to that, the Biostrap Sleep Lab subscription provides even more comprehensive details including circadian rhythm analysis and individualized bed time recommendations.

Sleep is when the body resets, restores, recovers and performs several vital regulatory processes, so once you start sleeping like a pro, you will wake up with the energy and motivation you’ve always wanted.

Reading time: 5 min

Respiratory rate is one of the main vital signs that measure a person’s health. Alongside body temperature, blood pressure, heart rate, respiratory rate is an essential measurement for determining well-being. 

Respiratory rate is the rate at which a full breathing cycle occurs, both inhalation and exhalation. While this is something that can be taken over by voluntary control, the majority of respiratory rate is an autonomic process, which occurs as a result of many inputs, including the respiratory center of the brain, which sends physiological sensory information throughout the body.

Age, weight and certain illnesses can all influence a person’s respiration rate. That’s why your normal respiratory rate may differ from the next person’s. If you learn to measure your respiratory rate, you’ll gain a better understanding of what is normal for you.

What Is a Normal Respiratory Rate?

The normal ranges for respiratory rate vary depending on a number of factors. For example, people who regularly practice deep breathing exercises, or those who play woodwind instruments, may take less breaths per minute, whereas people who are less physically fit may take more breaths per minute.

“We don’t really believe in comparing someone to a normal curve,” explains Kevin Longoria, MSc, a clinical exercise physiologist and the Chief Science Officer for Biostrap. “More importantly, we believe in comparing them to themself. We can see what someone’s normal respiratory rate may be and establish a trend. Then, you look at changes in the trend.” This allows you to determine what is a normal respiratory rate and what is abnormal for you as an individual.

In general, an abnormal respiratory rate is when the number of breaths per minute is under 12 or over 25 — but again, this can vary for every individual. A high respiratory rate means that the respiratory system is being overworked when it circulates oxygen through the blood and body. Conditions like asthma or sudden episodes, like an anxiety attack, can increase the number of times a person breathes per minute, resulting in a high respiratory rate.

In contrast, a child’s breathing rate would be different. “The normal respiratory rate changes significantly throughout the first several years of a child’s development,” says Longoria. For example, a baby up to 6-month old will usually have a breathing rate between 30 and 60 breaths per minute. A child between one and five will usually have a breathing rate between 20 and 30. By the time a child is 12, their breathing rate will usually be under 20.

According to Longoria, “abnormally high respiratory rates in children may be a sign of fever, dehydration, or conditions including bronchiolitis or pneumonia. Children may also experience rapid respiratory rates similar to adults due to other medical conditions including acidosis (with diabetes) and asthma.” And these are just a few of the factors that influence respiratory rate.

Factors That Influence Respiratory Rate

There are a number of common conditions that influence a person’s respiratory rate. For example, having anxiety and suffering from panic attacks can result in shallow breathing patterns and an acutely high respiratory rate for a short period of time (also referred to as hyperventilation).

“What’s really important when you look at respiratory rate is understanding autonomic control,” says Longoria. “When we look at the autonomic nervous system, it’s controlling all these voluntary processes like heart rate, respiratory rate, response to exercise, stress hormones, inflammatory processes — essentially things we don’t have to think about.” Factors such as exercise, stress, or changes in heart rate can influence respiratory rate involuntarily.

Shallow breaths or hyperventilation could be caused by the following conditions.

Lung and Airway Diseases

Lung diseases cause reduced oxygen uptake and prevent the lungs from working properly. For example, emphysema, severe/refractory asthma, and chronic bronchitis block a person’s airflow and contribute to an increasing sense of breathlessness.

These diseases are classified under the term Chronic Obstructive Pulmonary Disorder (COPD). Symptoms include shortness of breath, wheezing, chest tightness and chronic cough with and without mucus. COPD is primarily caused by smoking cigarettes but can also be associated with genetic conditions.

When it comes to factors that influence respiratory rate, “smoking is an obvious one,” notes Longoria. “If you’re smoking, then you’re getting more tar buildup and essentially causing what’s called a respiratory restriction.” Tar buildup in the lungs will damage your air sacs (alveoli) where gas diffusion takes place. “If we’re limiting the surface area of our lungs, our body will have to compensate with a higher respiratory rate.”

Having COPD is a risk indicator of cardiac arrest, in which the heart suddenly stops beating. Sudden cardiac arrest is a medical emergency that requires immediate treatment with a defibrillator. According to Harvard Medical School, more than 13 million Americans have COPD, and it tends to coexist with other conditions, like heart disease. Yet, many people are unaware of COPD.

Anyone who suspects they have COPD can be diagnosed by a spirometry test. This is a simple non-invasive process that evaluates your exhalation to see how well your lungs are working.

Sleep Disorders

Sleep disorders are another leading cause of airway obstruction and respiratory irregularities. During non-REM sleep, the part of our sleep cycle in which we spend 80% of the night, it’s normal to breathe slowly and steadily.

Breathing normally increases and decreases through different sleep stages, and the number of breaths a person takes will vary. However, having a sleep disorder can cause irregular sleep patterns and contribute to respiratory abnormalities. One example is sleep apnea, a common sleep disorder where a person stops breathing for as much as several seconds in their sleep. 

Heart Conditions

Heart problems can also affect a person’s respiratory rate. For example, atrial fibrillation (marked by irregular and rapid heart rate) can cause shortness of breath. When your heart beats irregularly due to atrial fibrillation, you may experience a tight chest and shortness of breath because the heart’s electrical signals don’t fire properly.

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Cardiovascular Fitness

Cardiovascular fitness is defined as the ability of your heart and lungs to deliver oxygen-rich blood to muscles throughout the body. “If you are frequently exercising, you tend to maintain better lung volume, resting lung capacity, and you have more arterial elasticity,” says Longoria. “Per breath, you’re consuming more oxygen than the next guy.” As a result, your respiratory rate will be lower because it will require fewer breaths to consume the same amount of oxygen.

How to Measure Respiratory Rate

Understanding your respiratory rate can make you more familiar with your body and help you monitor changes as you age. Plus, it can ensure that you recognize when it might be time to consult a medical professional about any changes to your body if changes to your respiratory rate occur.

Respiratory rate can be measured through photoplethysmography (PPG) by measuring the baseline shifts that occur with breathing. The baselines move up and down in an oscillatory pattern, which corresponds to the breath cycle.

A way to use PPG to measure is through a wearable that tracks vital biometrics for both sleep and fitness like Biostrap. “Biostrap is the only clinically-validated sensor system out there,” says Longoria. Wearable trackers can measure your oxygen saturation to indicate how much oxygen is pumping through the blood. It also helps you monitor the effectiveness of your workouts to better understand how blood oxygen levels could be increased through exercise, diet, deep breathing, and other healthy lifestyle changes.

Knowing Your Respiratory Rate

Your respiratory rate tells how much oxygen is flowing through your blood, but it also provides deeper clues to your health. For example, an abnormal respiratory rate can shed light on potential sleep disorders, lung disease, and heart conditions. “It’s an extremely important biometric,” Longoria stresses. “But it’s almost more important to know how and when you’re measuring it.”

Respiratory rate helps us understand changes in our own bodies, especially as we age or try out new approaches to fitness. Measuring your respiratory rate with a wearable that measures and tracks vital biometrics for both sleep and fitness can ensure that you’re always in tune with your body and the breath that keeps it alive.

Reading time: 3 min

Oxygen is one of the essential building blocks of life. Without oxygen, the human body can’t function. Oxygen saturation levels are a way of measuring how much oxygen is in the bloodstream. While most healthy individuals don’t need to monitor their oxygen saturation level, people with certain health conditions or athletes looking for peak performance can benefit from tracking oxygen levels.

Here, we’ll explore everything you need to know about your oxygen saturation level.

What Is Oxygen Saturation?

An oxygen saturation level is the measurement for the amount of oxygen in your bloodstream. All organs in the human body need oxygen to function. Oxygen saturation refers to the percentage of hemoglobin that is bound to oxygen when in the artery. Hemoglobin is the protein in red blood cells that binds oxygen, carbon dioxide, and carbon monoxide. 

Since arterial blood is on the way to the capillaries from the left ventricle of the heart, a high amount of oxygen is expected on hemoglobin, typically greater than 95% saturation. This oxygen is what is required for metabolic processes, namely ATP production, which provides the energy necessary for vital functioning of organs. Reduction in oxygen carrying capacity often results in altered or diminished function, which can lead to acute or chronic disorders.

What Is a Normal Oxygen Saturation Level?

Oxygen saturation greater than 95% is considered normal. Values between 90-95% represent a slightly blunted capacity to carry oxygen, and may or may not be indicative of a meaningful deviation from normal. 

However, oxygen saturation below 90% (hypoxemia) is considered low and usually suggests an abnormality in oxygen handling. Oxygen saturation levels are affected by a variety of agents including the amount of oxygen in the air around you, certain respiratory diseases, and nutrient deficiencies. 

How Is Oxygen Saturation Measured?

Oxygen saturation is measured using a pulse oximeter, commonly called a pulse ox. Readings from this type of test are measured as SpO2. You may not recognize the name, but you’re probably familiar with these devices. A pulse oximeter is the tool that doctors and nurses place on your finger, typically when they’re also checking your blood pressure. 

These devices use photoplethysmography (PPG). PPG utilizes red and infrared light exposure through the skin, which absorbs much of the light. Each form of hemoglobin (unbound or bound to oxygen, carbon dioxide, carbon monoxide) absorbs wavelengths of light differently.

Oxygenated hemoglobin absorbs more infrared light, whereas de-oxygenated hemoglobin absorbs more red light. This helps us determine the amount of oxygenated hemoglobin relative to total hemoglobin which is expressed as a percentage. 

You can attach the pulse oximeter to fingertips, ear lobes, or toes to get a reading. The test has a margin of error of 2%, meaning it’s less accurate than the arterial blood gases (ABG) test, which is a blood test that measures the acidity, or pH, and the levels of oxygen and carbon dioxide from an artery. Dark nail polish colors and temperature can affect the pulse ox readings. Though it’s not as accurate as the ABG test, it is a non-invasive way to get a quick SpO2 reading.

The devices are affordable and can be purchased for use at home if you’re trying to monitor your blood oxygen saturation levels regularly. The Biostrap Recover Set features a wrist-worn device that utilizes PPG to measure various biometrics, including SpO2, with clinical reliability making it easy to track your oxygen saturation levels while you sleep.

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Stay on Top of Your Health

Low oxygen saturation levels can be a sign of an underlying health condition. The problem may be caused by a chronic condition or by environmental factors including smoking and pollution. The best way to manage your health is to monitor it regularly. 

Biostrap provides all the tools necessary to accurately monitor your oxygen saturation levels right on your phone. While the wrist-worn device captures your SpO2, among other vital biometrics, with the use of advanced machine learning algorithms, the app offers easy-to-understand and actionable insights into weekly, monthly, and yearly trends. Additionally, you can monitor every single point of data collection that occurred throughout the night, which can help you determine potential dips in your SpO2 levels. These may even call for medical consultation with regards to a sleep disturbance such as sleep apnea events.

Reading time: 4 min

What is a gym to you?

For some, this place may be a sanctuary for the fitness devoted:

A pseudo-religious experience where your barbell lift MUST be executed with perfect form. Your rest MUST precisely be 30-second intervals. You MUST run on the treadmill for a minimum of one hour. And don’t you dare try to strike up a conversation with someone plugged into their Beats by Dr. Dre Headphones… lest you receive the death glare.

For others, it’s more of an anthropological adventure. Think about it – when else can you enter a public space where people give each other unspoken, socially accepted permission to be in ridiculous body positions. I can’t think of too many.

Maybe you think that going to the gym is the only way to become truly healthy and improve biometrics like Heart Rate Variability and Oxygen Saturation. But that is far from the truth! You don’t have to sacrifice fun for fit. As a matter of fact…You can have both:

You can train like a ninja!

Yes, you heard me right. Calisthenics is ninja training.

What is Calisthenics?

Calisthenics is bodyweight training. Any movement that ONLY utilizes your bodyweight can technically be considered calisthenics.

According to the Centers for Disease for Disease Control and Prevention (CDC), only 21.7% of adults 18 years of age or older met the Physical Activity Guidelines for both aerobic and muscle-strengthening activity. Most fitness activities tend to lean toward aerobic or anaerobic exercise. Calisthenics, on the other hand, are a balanced combination of both.

So why should you do calisthenics? Here are a few reasons why:

Become stronger & leaner

It’s fun!

No gym membership costs

No fancy equipment required

Choose WHEN + WHERE to exercise

If you’re like most fitness beginners, you haven’t worked out in ages. And if you’re the type of person who hates learning complex things, you probably avoid the gym like the plague. The beauty of calisthenics is that it’s straight-forward. But don’t let the ‘easy-to-understand’ movements fool you. Calisthenics will kick your butt.

So how should a beginner start calisthenics training?

With the help of Madbarz, we’ve put together the ultimate beginner calisthenics workout plan you can start immediately:

1. MONDAY: No Equipment Day

Madbarz
No Equipment Workout

4 Rounds:

Max Plank (Hold plank for 30 seconds if you’re a complete beginner)

8 Squats

8 Lunges (each leg)

8 Push Ups

8 Laying Down Leg Raises

Max Mountain Climbers (Do 20 each leg if you’re just starting)

8 Pike Push Ups

This routine is the BEST WAY to start calisthenics because it doesn’t require a single equipment. You can do these in your living room, bedroom, office, in the park – wherever! These foundational exercises will help build up your strength and endurance to perform advanced movements in the future. Think of these as your calisthenic building blocks.

2. TUESDAY: Basic Beginner Day

basic beginner
Basic Beginner Workout

4 Rounds:

7 Close Hands Chin Ups

5 Pull Ups

6 Dips

15 Push Ups

5 Leg Raises

9 Jump Squats

15 Australian Pull Ups

This workout introduces you to calisthenic exercises that require some sort of bar to hang from. Pull up bars are cheap & you can easily get one online or pick one up at a sporting goods store. Most of them will fit your door-frame without causing damage. If you’re feeling outdoorsy, find a park near you that has bars or a playground!

3. WEDNESDAY: Rest Day!

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4. THURSDAY: On-The-Go Day

on the go
On-The-Go Workout

4 Rounds:

20 Wide Push Ups

20 Mountain Climbers

60 Seconds of Wall Sit

15 Clap Push Ups

30 Seconds of Superman Hold

30 Squats

60 Seconds of Plank

5. FRIDAY: Fat Removal Day

fat removal
Fat Removal Workout

4 Rounds:

100 Meter Run

5 Dips

45 Seconds of Jumping Jacks

8 Push Ups

30 Seconds of Alternating High Knees

30 Seconds of Mountain Climbers

15 Seconds of Plank

6. SATURDAY: Beginner HIIT DAY

We’re throwing in a beginner’s high-intensity interval training (HIIT) workout because it’ll really boost your cardio & calisthenic stamina. HIIT sessions are also proven to be incredibly effective when it comes to fat loss.

4 Rounds:

15-second sprint (Run as fast as you can!)

45-second walk (Don’t stop in place. Keep walking)

1 Round:

30-second sprint (Run as fast as you can!)

1:30 seconds walk + recovery

4 Rounds:

15-second sprint (Run as fast as you can!)

45-second walk (Don’t stop in place. Keep walking)

1 Round:

30-second sprint (Run as fast as you can!)

1:30 seconds walk + recovery

7. SUNDAY: Rest Day!

Don’t forget to wear your Biostrap and share your calisthenics progress with the Biostrap community! We want to see you transform yourself into the strongest & healthiest version of you.

Did we miss anything?

If you have any questions, suggestions or topic requests, please reach out.