On this page
- What Causes Metabolic Dysfunction?
- Mitochondria: The Energy Converters
- The Trifecta of Bad Energy: Mitochondria, Inflammation, and Oxidative Stress
- Insulin Resistance: A Consequence of Mitochondrial Dysfunction
- Improving Metabolic Capacity: Focusing on the Powerhouses
- 1) Move Your Body: The Power of Movement and Exercise
- Muscle Contraction: The Key to Glucose Uptake
- The Power of Walking: A Simple but Powerful Tool
- Exercise Recommendations
- 2) Fuel Your Body: The Power of Nutrition
- 3) Track Your Biomarkers: The Window into Your Cellular Health
- Taking it Further: Continuous Glucose Monitoring (CGM)
- 4) Embrace Temperature Extremes: Revitalizing Your Ancient Thermostat
- Cold Exposure: A Mitochondrial Wake-Up Call
- Heat Exposure: Activating Your Body’s Defenses
- Reconnecting to Nature’s Rhythms
- 5) Prioritize Sleep and Light: Restoring Your Natural Rhythms
- Sleep: The Foundation of Well-Being
- Light: Reconnecting with the Sun
- 6) Nurture Your Emotional Health: Cultivating Safety in a World of Stress
- Conclusion: Reclaim Your Metabolic Health
Nine out of ten of the leading causes of death – heart disease, stroke, diabetes, and more – are all manifestations of metabolic dysfunction playing out in different cell types. That’s a sobering thought. We eat roughly 70 metric tons of food in our lifetime, but for many, that fuel isn’t powering health; it’s fueling disease.
The truth is, recent research suggests that a staggering 93% of American adults have suboptimal metabolism. In a country with over 100 healthcare specialties and countless medical advancements, why are we facing this crisis? The US still contends with the worst chronic disease epidemic and the lowest life expectancy of any high-income country in the world. So what’s going on?
What Causes Metabolic Dysfunction?
Metabolism is the core foundational pathway that drives all other aspects of health. It’s fundamentally about how we convert food energy to human energy. When it works well, we feel energized, healthy, and resilient. When it doesn’t, our cells become underpowered. This underpowering manifests in different ways depending on the cell type affected, leading to a vast spectrum of metabolic-related diseases. Many of the conditions across those 100+ health specialties – an estimated 85 to 90% - have metabolic dysfunction as their root cause!
Think of it this way: our healthcare system often focuses on treating the downstream symptoms, not the root cause. It’s like trying to fix a flickering lightbulb without addressing the faulty wiring. This is a major blind spot in Western medicine and contributes to worsening health outcomes. The chronic disease epidemic in the US is largely a metabolic dysfunction epidemic and an underpowering epidemic.
Mitochondria: The Energy Converters
So, where does this energy conversion actually happen? The answer lies within our cells, specifically in structures called mitochondria. These tiny powerhouses reside within our 40 trillion cells and are responsible for efficiently converting food into a usable form of energy. Each cell can have a handful to many thousands of mitochondria!
Mitochondrial dysfunction occurs when these organelles aren’t doing their job properly. And unfortunately, the modern environment – with its processed foods, lack of sleep, sedentary lifestyles, artificial light, environmental toxins, temperature dysregulation, and emotional stressors – creates a perfect storm for harming mitochondria. These factors synergistically impair their function through various mechanisms.
When mitochondria are dysfunctional, cells become underpowered, and energy substrates that cannot be processed are stored, contributing to obesity.
But here’s the good news: metabolic dysfunction isn’t a life sentence! There’s a lot you can do to improve your metabolism and power up your cells. In this post, we’ll explore 6 actionable ways to fix metabolic dysfunction and start feeling your best.
The Trifecta of Bad Energy: Mitochondria, Inflammation, and Oxidative Stress
Think of your body’s energy production like a delicate dance. When it’s in sync, everything flows smoothly. But when things go wrong, it’s often because of a trio of interconnected issues: mitochondrial dysfunction, chronic inflammation, and oxidative stress. These three form a vicious cycle, a “tornado of dysfunction” that can wreak havoc on your metabolic health.
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Mitochondrial Dysfunction: The Power Outage: This all starts with the mitochondria, the energy powerhouses within your cells. When they aren’t working efficiently – failing to convert food into usable energy – it’s like experiencing rolling blackouts in your cells. Various factors can cause this, including poor diet, lack of sleep, inactivity, stress, exposure to toxins, and even altered light and temperature cycles.
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Chronic Inflammation: The Biochemical Alarm: When mitochondria are struggling, cells often initiate a self-preservation mode called the “cell danger response.” This response is like sounding an alarm. The underpowered cell releases signals to the immune system, indicating that something is wrong. This triggers a massive immune response, leading to chronic inflammation. It’s like biochemical fear, a response to a perceived threat. Unfortunately, the immune system’s response is often misdirected because the underlying issue is environmental, not a bacteria or virus. The inflammation persists, adding fuel to the fire.
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Oxidative Stress: The Wildfire: As dysfunctional mitochondria struggle to produce energy, they create damaging metabolic byproducts known as oxidative stress or free radicals. Think of these as wildfires raging within your cells, causing further damage and contributing to a vicious cycle of dysfunction. The more your mitochondria struggle, the more oxidative stress they generate, making the problem even worse.
Insulin Resistance: A Consequence of Mitochondrial Dysfunction
Insulin resistance is often seen as the primary problem in metabolic disease, but it’s more accurately viewed as a symptom, a consequence of underlying mitochondrial dysfunction.
When the mitochondria within a cell are not functioning properly and lack the capacity to efficiently convert glucose and fatty acids into ATP, the cell compensates by becoming insulin resistant. It’s like the cell is saying, “No more! I can’t handle any more fuel!”
The cell essentially “blocks” the entry of more energy substrates because it can’t process them efficiently. This is a protective mechanism to prevent the buildup of potentially toxic byproducts within the cell. This blockage occurs at the level of the insulin receptor, preventing insulin from effectively signaling the cell to take up glucose from the bloodstream. As a result, glucose levels in the blood rise.
So, insulin resistance isn’t the root cause; it’s a signal that something is wrong at a deeper level – namely, mitochondrial dysfunction. Therefore, simply administering insulin doesn’t address the underlying problem and can even exacerbate it.
The body tries to manage the elevated blood glucose by converting it into triglycerides for storage. Thus, high fasting glucose and high triglycerides often indicate underlying mitochondrial dysfunction and insulin resistance.
The key to reversing insulin resistance is to improve mitochondrial capacity. When your mitochondria are working efficiently, glucose can be processed for energy instead of being blocked and stored as fat. By addressing the trifecta of bad energy, you can pave the way for improved insulin sensitivity and better metabolic health overall.
Improving Metabolic Capacity: Focusing on the Powerhouses
The good news is that we can take steps to improve our metabolic capacity by directly targeting these cellular powerhouses. Think of it as upgrading your body’s energy grid! To truly improve metabolic function, we need to focus on three key areas:
- Making More Mitochondria: Like building more power plants to increase energy production.
- Improving the Function of Each Mitochondrion: Optimizing the efficiency of each individual power plant.
- Increasing the Amount of Energy Substrates Each Functional Mitochondrion Can Process: Allowing each power plant to handle more fuel.
This involves several important cellular processes:
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Mitophagy: Cellular Spring Cleaning: This is the process of recycling old, damaged, and dysfunctional mitochondria. Think of it as cellular spring cleaning. By removing the weak links, you clear the way for healthier mitochondria to thrive. Mitophagy is crucial for maintaining a healthy mitochondrial population and preventing the buildup of damaging byproducts.
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Mitochondrial Biogenesis: Building New Power Plants: This is the process of creating new mitochondria. It’s like expanding your energy grid by building new power plants. Stimulating mitochondrial biogenesis is essential for increasing your overall energy capacity and improving metabolic function.
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Increasing Oxidative Capacity: Supercharging Existing Power Plants: This refers to enhancing the ability of each mitochondrion to efficiently burn fuel (glucose and fatty acids) and generate energy. It’s like supercharging your existing power plants to make them more powerful and efficient.
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Improving Mitochondrial Fusion: Connecting the Power Plants: Mitochondria aren’t isolated units; they can fuse together to form interconnected networks. Improving mitochondrial fusion allows mitochondria to share resources, buffer against stress, and function more efficiently. Think of it as connecting power plants to create a more resilient and efficient energy grid.
By focusing on these key processes, we can improve the overall health and function of our mitochondria, leading to increased metabolic capacity, improved energy levels, and a reduced risk of metabolic disease. The following 6 actionable steps will help you do just that.
1) Move Your Body: The Power of Movement and Exercise
In our modern world, we’ve engineered movement out of our lives. Many of us spend upwards of 80% of our waking hours sitting! This dramatic shift in activity levels has had a profound impact on our metabolic health. The good news is, movement is one of the most powerful tools we have to improve mitochondrial function and reverse metabolic dysfunction.
Muscle Contraction: The Key to Glucose Uptake
Think of muscle contraction as medicine. Every time you move, your muscles contract, activating a cascade of beneficial effects. Even low-grade muscle contractions, like walking or doing a few air squats, activate AMPK and stimulate glucose channels to move to the cell membrane. This facilitates glucose uptake by the mitochondria, allowing them to efficiently convert it into energy.
We often think of exercise as something we do at the gym for an hour, but movement should be integrated into our daily lives. Short movement breaks – walking, push-ups, air squats – every 30 minutes can help keep those glucose channels active at the cell membrane.
Consider NEAT (Non-Exercise Activity Thermogenesis), the movement we do outside of planned exercise. This is a prime potential intervention for the obesity epidemic! Historically, before industrialization and urbanization, movement was simply built into our daily routines. Finding ways to reintroduce that constitutive movement is critical.
The Power of Walking: A Simple but Powerful Tool
Walking is one of the most accessible and effective forms of movement. Studies consistently show incredible benefits:
- People who walk more than 7,000 steps a day have a 50 to 65% lower chance of dying in 10-year follow-ups.
- Research has shown that walking 6,000 to 12,000 steps per day is linked to a 50% reduction in all-cause mortality, Alzheimer’s, dementia, obesity, type 2 diabetes, depression, cancer, and gastric reflux!
- Walking acts as a potent glucose disposal signal, helping your body use glucose for energy instead of storing it as fat.
- Short walks after meals (around 10 minutes) can drastically reduce the glucose response by bringing glucose channels to the cell membrane.
- For knowledge workers, consider under-desk treadmills. Studies have shown that using them for 2.5 hours a day can lead to fat loss and lean mass gain.
While walking is fantastic, incorporating different types of exercise can further enhance mitochondrial function:
- High-Intensity Interval Training (HIIT): Particularly good for improving mitochondrial fusion.
- Endurance Training: Primarily stimulates mitochondrial biogenesis (the creation of new mitochondria).
- Resistance Training: Tells the body to build more mitochondria by creating more muscle cells that require energy. Working every major muscle group two to three times a week is a potent stimulus for biogenesis, mitophagy, and mitochondrial fusion. It can also help improve insulin sensitivity, even in women experiencing a decline due to estrogen reduction.
- Zone Two Exercise: Contributes to mitochondrial biogenesis.
Exercise Recommendations
Aim for the following general guidelines:
- Work every major muscle group three times a week with resistance training.
- Target 75 to 150 minutes of moderate-intensity activity or 75 minutes of strenuous activity per week.
- Strive for at least 7,000 steps per day.
Interestingly, US gym memberships have doubled since 2000, but obesity rates have also increased. This highlights the fact that structured exercise alone isn’t always enough. The key is to incorporate more movement throughout the day, not just during dedicated workout sessions. Focus on building more “constitutive movement” into your lifestyle.
Even small, consistent movements can make a difference. A study suggested that performing “solus push-ups” (seated calf raises without weight) could lead to a disproportionate use of blood glucose due to the activation of the solus muscle. The takeaway? Contracting your muscles throughout the day, in any way you can, is beneficial for metabolic health.
2) Fuel Your Body: The Power of Nutrition
It’s no exaggeration to say that food is information. Metabolism is how we convert food energy to human energy, and the food we eat provides the molecular building blocks of our bodies. In fact, our bodies are essentially 100% molecularly made from food! Food also provides cell signaling molecules that tell our cells what to do, acting as transcription factors and epigenetic modifiers. Furthermore, food is the substrate to change the gut microbiome, which acts as a pharmacy inside our bodies.
But here’s the harsh reality: the modern American food system has largely abandoned whole, real food in favor of industrial creations. A staggering 60 to 75% of the calories in the modern American diet come from ultra-processed, nutrient-depleted foods! These foods are engineered to be highly addictive, hijacking our brains’ reward systems, and they simply don’t provide the cells with what they need for proper function.
This “failed experiment” in food has contributed to an epidemic of overweight and obesity (affecting nearly 80% of American adults, with almost 50% being obese). The concerning statistics continue: 75% of American adults are overweight or obese, a full 50% of American adults now have pre-diabetes and type 2 diabetes, 30% of teens have pre-diabetes, 40% of Americans have a mental health diagnosis, cancer is set to reach 2 million cases in 2024, and fatty liver disease is affecting 40% of adults and 18% of teens.
And the numbers don’t lie: People in a study at the NIH ate 7,000 more calories in a two-week period when they were eating ultra-processed food versus unprocessed food! Eating ultra-processed food led to about a two-pound weight gain, while eating unprocessed food led to about a two-pound weight loss. Remember, a pound of fat is about 3,500 calories, and an extra 7000 calories can add up quickly.
Industrial agriculture has further compounded the problem, leading to food that is drastically depleted of nutrients, sometimes showing 70% less of key micronutrients.
So, what’s the solution? It’s simple, but powerful: eat as much real, unprocessed food from good soil as possible. Focus on quality over just quantity of calories.
Strive to include these five key elements in your diet:
- Fiber (Prebiotics): Feeds your beneficial gut bacteria, promoting a healthy gut microbiome.
- Omega-3s: Essential fats that support brain health, reduce inflammation, and improve overall cell function.
- Adequate Healthy Protein: Aim for about one gram of quality protein per pound of body weight per day. Protein is critical for muscle repair and synthesis, overall metabolism, and satiety. Specific amino acids like valine and glutamine can even stimulate GLP-1 secretion, a hormone that promotes satiety and improves glucose control.
- Probiotics: From low-sugar fermented foods like sauerkraut and kimchi, to support a healthy gut microbiome.
- High Antioxidant Sources: Colorful fruits, vegetables, spices, teas, and cocoa are packed with antioxidants that protect your cells from damage and reduce inflammation.
Beyond the basics, consider these factors:
- Limit Added Sugars and Refined Grains: Excess carbohydrate intake, especially from refined added sugars and grains, can contribute to elevated triglycerides and metabolic dysfunction.
- Time-Restricted Feeding (Intermittent Fasting): Compressing your eating window into daytime hours (six to eight hours) gives your body opportunities to lower insulin and glucose, promoting metabolic flexibility and the ability to use stored fat for energy. The average American has 11 eating events per day over a 15-hour window, straining the body’s metabolic processes.
- Increase GLP-1 Naturally: The body has nutrient sensors in the gut (L cells) that, when stimulated by appropriate foods, secrete satiety hormones like GLP-1. Strategies to increase GLP-1 naturally include consuming fiber, polyphenols, fermented foods, protein (especially valine and glutamine), thylakoids (in spinach), and certain spices like green tea and curcumin. A study showed that eating about 100 grams of spinach daily for over 12 weeks led to a two or threefold higher secretion of GLP-1. There were over 20 million prescriptions for GLP-1 analogs in the United States last year, and these medications can cost $20,000 per year.
3) Track Your Biomarkers: The Window into Your Cellular Health
Want to know what’s really going on inside your body? The best way to cut through the noise of conflicting health information is to track your biomarkers. Fortunately, the studies defining suboptimal metabolism relied on a set of basic biomarkers that are often included in an annual physical and are relatively inexpensive. These markers, when interpreted collectively, provide a “tapestry” of what’s happening inside your cells.
It’s important to note that optimal ranges for these biomarkers may be tighter than standard “normal” ranges, suggesting that individuals with levels at the higher end of normal might still be metabolically dysfunctional. In fact, based on these basic metabolic biomarkers, a staggering 93.2% of American adults are suboptimal in their metabolism, according to a recent study. This means only a paltry 6.8% of Americans meet the criteria for optimal metabolic health!
Here are the key biomarkers to monitor:
- Fasting Glucose: Optimal level is less than 100 mg/dL. Elevated levels can indicate an issue with glucose entering cells, possibly due to mitochondrial dysfunction.
- Fasting Triglycerides: Optimal level is less than 150 mg/dL. High levels are a storage form of excess carbohydrates and can signal that cells are not processing energy effectively, indicating potential mitochondrial dysfunction and chronic overnutrition.
- HDL Cholesterol: Optimal level is above 40 mg/dL for men or 50 mg/dL for women.
- Hemoglobin A1c: Optimal level is less than 5.7%. It reflects average blood sugar levels over the past 90-120 days; higher levels suggest cells are rejecting glucose.
- Total Cholesterol to HDL Ratio: Optimal level is less than 3.5 to 1.
- Waist Circumference: Optimal level is less than 35 inches for women or 40 inches for men.
- Blood Pressure: Optimal level is less than 120 over 80. High blood pressure can be linked to insulin resistance and reduced nitric oxide activity.
While doctors often treat abnormal biomarker levels algorithmically, focusing on bringing each marker into the “normal” range, it’s crucial to understand each biomarker and interpret them collectively to gain deeper insights into mitochondrial function.
The best part? These basic biomarkers are often easy to change within one to two months with simple lifestyle habits!
While these basic biomarkers are a great starting point, there are also more advanced biomarkers that can provide further insights into metabolic dysfunction, oxidative stress, and chronic inflammation. These include apolipoprotein B (apoB), uric acid, fasting insulin, HOMA-IR, hsCRP, liver function tests, and GGT. However, doctors may be less likely to order these tests.
That’s why regular biomarker testing (ideally three to four times a year) is so crucial for understanding your metabolic health and tracking the effectiveness of lifestyle interventions. If you face resistance from your doctor in obtaining these tests, consider using direct-to-consumer lab testing companies as an alternative.
Ultimately, tracking biomarkers empowers you to cut through the noise of conflicting health information and see the direct impact of your chosen strategies. Optimal biomarkers, combined with feeling incredible and having no symptoms, suggest that your current health strategy is working, regardless of the specific dietary approach.
Taking it Further: Continuous Glucose Monitoring (CGM)
For an even deeper dive into your metabolic health, consider using a Continuous Glucose Monitor (CGM). CGMs measure blood glucose levels in real-time, providing a dynamic picture compared to the snapshot from a traditional blood test. The purpose of a CGM is curiosity and understanding – to see how your diet and lifestyle impact your glucose levels – rather than solely aiming for a perfectly flat glucose curve.
Here’s what a CGM can reveal:
- Early Prediction of Metabolic Disease: A healthy, insulin-sensitive individual should see glucose peak around 45 minutes after the last bite of a meal and return to baseline within 1.5 to 2 hours. A slower return to baseline (over 2-3 hours) can indicate insulin resistance. This is often measured as “area under the curve” (AUC), with a lower AUC being desirable. Adding fat and fiber to meals can help lower the glucose response.
- Glycemic Variability (GV): This refers to how spiky your glucose levels are throughout the day. Higher GV, even in non-diabetic individuals, is associated with worse metabolic biomarkers.
- The Dawn Effect: The rise in glucose upon waking due to cortisol release. A larger Dawn effect may correlate with insulin resistance.
- “Sneaky Spikers”: Foods that cause significant glucose increases despite being perceived as healthy.
- Biochemical Individuality: How different people can have varying glucose responses to the same meal.
- Impact of Lifestyle Strategies: How sleeping better, walking after meals, resistance training, cold plunging, and breathwork can positively impact glucose spikes.
- Hormonal Influences: How physiological changes, such as estrogen drop in menopausal women, can affect glucose patterns.
- Glucose Spikes and Cravings: The link between glucose spikes and post-meal dips (reactive hypoglycemia), which can drive cravings for carbohydrates and increased energy intake.
CGMs are becoming more accessible, with over-the-counter, non-prescription options now available. Consider continuous monitoring as a valuable tool for individual empowerment, allowing you to understand how the environment affects your biology and make targeted choices for better cellular health.
4) Embrace Temperature Extremes: Revitalizing Your Ancient Thermostat
In our modern, climate-controlled world, most of us live in a thermo-neutral existence. We’re shielded from the natural fluctuations in temperature that our ancestors experienced for millennia. This constant, comfortable environment might seem ideal, but it can actually have a negative impact on our metabolic health.
Cold Exposure: A Mitochondrial Wake-Up Call
But beyond sleep, deliberate exposure to temperature extremes, particularly cold, can act as a potent stimulus for your mitochondria. Think of it as giving your mitochondrial a wake-up call!
Cold exposure signals the mitochondria to “print more of themselves or work harder” to create heat and respond to the stimulus. This process can improve mitochondrial function and even potentially increase brown fat, a type of mitochondrial-dense fat.
Cold exposure is a relatively inexpensive and accessible tool to stimulate mitochondria, although it’s important to remember that it doesn’t replace the foundational importance of food, sleep, and exercise. Over time, deliberate cold exposure can even lead to feeling more comfortable at colder temperatures.
Heat Exposure: Activating Your Body’s Defenses
While cold gets most of the attention, heat exposure also has its benefits. Heat exposure can help metabolic health through the activation of heat shock proteins. These proteins have the ability to upregulate antioxidant defense systems, helping to protect your cells from damage. However, heat exposure is generally considered less critical than food, sleep, and movement.
Reconnecting to Nature’s Rhythms
The average human population’s temperature has actually decreased in the last 100 years, which might be linked to less effective mitochondrial function. Historically, longer days with more sunlight corresponded to warmer temperatures, and shorter, darker days corresponded to colder temperatures. In a modern world where we can control light and temperature at will, we may unintentionally be disrupting these natural rhythms.
5) Prioritize Sleep and Light: Restoring Your Natural Rhythms
In today’s world, where artificial light and busy schedules reign supreme, it’s easy to underestimate the profound impact of sleep and light on our metabolic health.
Sleep: The Foundation of Well-Being
Let’s start with sleep. Getting enough quality sleep isn’t just about feeling rested; it’s absolutely critical for overall health, including mental health, physical health, and performance in virtually every area of life. Conversely, when we don’t sleep well or enough, all aspects of our health suffer. Dr. Means also mentions that sleep habits have changed, with people generally sleeping less and experiencing more fragmented sleep, and is presented as one of the environmental factors negatively impacting mitochondrial health.
One key aspect of achieving restful sleep is regulating your body temperature. As we discussed in the previous section, your body temperature needs to drop by about 1 to 3 degrees Fahrenheit to fall and stay deeply asleep, and it needs to increase by about 1 to 3 degrees Fahrenheit to wake up feeling refreshed.
Controlling the temperature of your sleeping environment is one of the best ways to ensure these temperature fluctuations occur naturally.
But temperature isn’t the only factor. Even dim light in a room during sleep can alter morning blood glucose levels. Early night sleep (4-5 hours) followed by a lack of the dominating last hour or two of sleep in the morning can also alter resting blood glucose. Getting sufficient and quality sleep is absolutely key for metabolic health.
Light: Reconnecting with the Sun
Now, let’s talk about light. As Americans, we spend a staggering 93% of our time indoors, drastically altering our interaction with light. The invention of the light bulb in 1806, a recent event in human history, has led to a significant change in our light exposure patterns.
Unfortunately, the artificial light that fills our modern lives can disrupt our natural circadian rhythms, especially when it comes to blue light exposure at nighttime. That’s one of the environmental changes that synergistically hurts the mitochondria.
That’s why getting out in the sunlight is so important. It’s one of the simple habits that can rapidly increase mitochondrial capacity and improve metabolic health. The relationship between light and temperature is also worth noting. Historically, longer days (more sunlight) typically corresponded to higher temperatures in most parts of the world. Modern life allows us to disconnect from these natural cycles, so being deliberate about optimizing light and temperature exposure is essential.
6) Nurture Your Emotional Health: Cultivating Safety in a World of Stress
It’s easy to focus on the tangible aspects of metabolic health – food, exercise, biomarkers – but we can’t overlook the crucial role of emotional well-being. In our modern world, emotional health is fundamentally different. We’re constantly exposed to low-grade chronic stress triggers, a key environmental change that synergistically harms our mitochondria.
Chronic inflammation is “biochemical fear,” a cellular response to a perceived threat. Modern life, with its unnatural food and constant exposure to fear-based media, can lead to a state of “mass cellular confusion” and trigger this chronic inflammation.
The truth is, our mitochondria are not just energy producers; they’re also resource and threat trackers. They adjust energy allocation based on perceived threats, which can include psychological stress. When cells perceive threat or fear, they shift metabolic function towards defense rather than repair and thriving. Stress itself is a significant risk factor for metabolic dysfunction. CGM data even shows that experiencing stress can have a diabetogenic effect, causing blood sugar levels to rise!
Feelings of fear and existential anxiety can drive individuals toward unhealthy coping mechanisms and dopamine loops (e.g., social media, processed food) in an attempt to regain a sense of control. In our conversation history, it was mentioned that stress can be enhancing and the concept of a growth mindset was also noted, suggesting that different types of emotional and mental states can have varying impacts on overall well-being.
So, what can we do to nurture our emotional health and cultivate a sense of safety in our bodies, irrespective of external circumstances? Here are a few strategies:
- Cultivate a Sense of Safety: Recognize the psychological impact of modern life and actively work toward creating a sense of safety in your mind and body. Setting boundaries with media and engaging in therapeutic modalities are key.
- Connect with Nature: The feeling of being siloed from the life-giving aspects of our environment contributes to poor health, and reconnecting with nature is a way to address this. By observing the cycles and beauty of the natural world, individuals can subconsciously and consciously recognize an underlying order and abundance, counteracting feelings of fear and lack of control.
- Acknowledge Past Trauma: Unresolved childhood trauma can contribute to a persistent state of hypervigilance, impacting the nervous system and affecting metabolic health.
- Limit Exposure to Fear-Inducing Media: The constant exposure to fear-inducing media through electronic devices is an unnatural element of modern life that can trigger stress responses at a cellular level.
- Recognize Existential Fear: The existential fear of mortality, particularly prevalent in Western culture, can be an underlying source of chronic stress.
- Combat Loneliness: Data indicates that loneliness negatively impacts mitochondrial function, underscoring the connection between social and emotional states and cellular health.
Conclusion: Reclaim Your Metabolic Health
We’ve covered a lot of ground in this article, but the core message is simple: metabolic dysfunction is a pervasive problem, but it’s not a life sentence. By understanding the role of mitochondria, the trifecta of bad energy, and the importance of addressing root causes, you can take control of your metabolic health and pave the way for a healthier, more energized life.
Remember the key steps: prioritize movement and exercise, fuel your body with real food, track your biomarkers to gain valuable insights, embrace temperature extremes, restore your natural sleep and light cycles, and nurture your emotional well-being.
These aren’t quick fixes, but rather sustainable lifestyle changes that will have a profound impact on your mitochondrial function, insulin sensitivity, and overall health. Start implementing these strategies today, and you’ll be well on your way to reclaiming your metabolic health and thriving in the modern world.
Want to learn more about nutrition and fitness? Be sure to explore our other articles for in-depth insights and actionable tips!