10 Signs Your Mitochondria are Dying (that lab tests don't show)

Mitochondrial Dysfunction and Its Indicators

• High cholesterol is a sign of mitochondrial dysfunction, and it is closely related to having low thyroid function, which can also be an indicator of mitochondrial issues 10s.
• Problems with blood sugar, such as high or low glucose levels, can be a sign of mitochondrial dysfunction, and tracking ketones and lactate levels can also provide insight into mitochondrial function 42s.
• Ketone levels that do not make sense, such as high ketones despite consuming a lot of carbohydrates, or an inability to increase ketones on a strict keto diet, can be a sign of mitochondrial dysfunction 2m6s.
• Elevated lactate levels, especially in the morning after sleeping, can be an indicator of mitochondrial stress, and other signs of mitochondrial dysfunction include not sleeping well, anxiety, depression, gut problems, and autoimmunity 2m6s.
• Mitochondrial dysfunction can manifest in the skin, causing a person to appear unhealthy or have a "gray look" even if they are physically fit, and this is because mitochondria are responsible for fueling the production, maintenance, and repair of skin cells 4m30s.
• As people age, their mitochondrial function declines by about 1% per year, which can lead to a decrease in cellular energy production and contribute to the aging process, including changes in the skin 6m20s.
• The decline in mitochondrial function can affect the distribution of essential nutrients, such as vitamin C, to the skin, making it more susceptible to oxidative damage from sunlight, pollutants, and other factors 8m10s.
• Looking for multiple signs of mitochondrial dysfunction in different parts of the body can help confirm that mitochondria are the underlying issue, and addressing mitochondrial health can be crucial for overall well-being 10m0s.

Aging and Mitochondrial Decline

• Mitochondrial function is crucial for maintaining and repairing skin, and a decline in mitochondrial function can lead to skin damage and aging, even in young and fit individuals 10s.
• The decline in mitochondrial function over time is a natural part of the aging process, but it is possible to change and improve mitochondrial function through lifestyle and dietary changes 2m6s.
• Research suggests that only 25% of mitochondrial function is explained by age, while the remaining 75% is influenced by other factors such as diet, lifestyle, and attempts to improve mitochondrial function 4m30s.

Strategies to Improve Mitochondrial Function

• To improve mitochondrial function, high-level strategies include getting nutrients straight, as most people have suboptimal levels of at least one vitamin or mineral, and synchronizing wake-sleep cycles with the natural rhythm of sunlight 6m40s.
• Synchronizing wake-sleep cycles with sunlight involves tactical strategies such as getting morning sunlight, avoiding artificial lights at night, and experiencing the natural rhythm of the sun cycle during the day 9m20s.
• Exposure to natural sunlight has been shown to have numerous benefits, including reducing the risk of myopia in children, and cannot be fully replaced by artificial light sources 12m10s.
• Studies have shown that exposure to natural sunlight, particularly during development, can reduce the need for glasses, and being in sync with the light cycle is important for overall health, including good sleep, which is also dependent on mitochondrial function 10s.

Supplements for Mitochondrial Health

• A symbiotic supplement called DS1 from the company Seed, which contains a prebiotic and a probiotic in one capsule, has been found to be effective in colonizing the lower intestinal tract and promoting a healthy gut, with the company being transparent about their research and publishing their own clinical trials 2m6s.
• Optimizing creatine status is another strategy for supporting mitochondrial health, as creatine acts as the mitochondrial energy grid that spreads energy to the rest of the cell, and people who do not consume 1 to 2 pounds of meat per day may benefit from creatine supplementation 4m42s.
• Research on creatine has shown that it has a wide range of benefits, including powering sperm, producing stomach acid, and mediating vision, and high-dose creatine may even improve healing after traumatic brain injury, with most studies on creatine showing positive results 6m15s.
• The company Seed offers a 20% discount on their DS1 supplement, which can be accessed through a link provided, and this supplement has been found to be effective in establishing a healthier lifestyle 3m40s.
• Creatine is beneficial for spreading mitochondrial energy throughout the cell, and most people do not get enough of it through their diet, which would require consuming large amounts of food such as 2 lbs of rare steak a day 10s.

Creatine and Sleep Regulation

• The effects of creatine can vary depending on the individual and their circumstances, with one person noting that when they take high doses of creatine, typically above 10-12 grams, they require less sleep but their body still feels the effects of sleep deprivation 2m6s.
• This person's experiences with creatine are confounded by the fact that they only use it when they feel they need it, making it difficult to separate the effects of the creatine from the background context 5m37s.
• It is speculated that creatine decreases the need for sleep by extending the energy supply and making energy more effectively delivered to the places that need it, thereby lowering the demand to restore energy 8m40s.
• The need for sleep is partly driven by the need to make up for the energy deficit from the day before, and creatine can help mitigate this deficit by providing a more efficient energy supply 10m20s.
• During sleep, the mitochondria produce less energy, but the metabolic demand is also lower, allowing the energy supply to be restored, and creatine can help extend this energy supply, reducing the need for sleep 12m10s.

Creatine Dosing and Individual Variability

• The concept of proactively using a substance, such as creatine, to improve energy levels and then reducing the dosage to a maintenance level is discussed, with the idea of increasing the dosage to 20 grams and maintaining it for a period, such as two months, to observe the effects on fatigue and sleep 10s.
• Sleeping more is generally considered a good thing, but it's essential to track subjective energy levels to determine if the sleep is restorative, with the example of rating energy on a scale of one to five every day and logging it in a spreadsheet 42s.
• Using tools like the Aurora ring to track sleep data can be useful, but the primary focus should be on the overall energy levels and ability to fulfill physical and cognitive demands, rather than just the sleep data itself 2m6s.
• The idea of a "north star" is introduced, which refers to having the energy to fulfill all physical and cognitive demands, recover from them, and do so with abundant energy, low anxiety, and high life force, with sleep being a tool to achieve this goal 2m6s.
• It's emphasized that tracking sleep hours, REM sleep, or deep sleep is only tracking a mechanism, and the real evidence of success is the ability to fulfill goals, recover, and feel ready to do it again, rather than getting lost in proxy markers and mediators 2m6s.

Tracking Sleep and Energy Levels

• The importance of looking at the results of sleep, such as increased productivity, improved physical performance, and overall well-being, rather than just the sleep data itself, is highlighted as a key aspect of achieving the "north star" goal 2m6s.
• Taking creatine can have different effects on sleep, with some people experiencing an increase in sleep duration, while others may experience insomnia, and this relationship between creatine and sleep can be influenced by the distribution of mitochondrial energy metabolism 10s.
• The speaker found that for every gram of creatine added, they gained 6 minutes of total sleep, with this relationship being linear and consistent over several weeks, and this was discovered after a loading dose of 20 grams of creatine per day resulted in an hour and a half increase in sleep 42s.

Creatine Side Effects and Glycine

• However, not everyone has the same experience with creatine, and some people may experience negative effects on sleep due to the suppression of glycine synthesis, which is a calming neurotransmitter that helps lower core body temperature and improve sleep quality 2m6s.
• Glycine has been shown to decrease sleep latency and improve sleep quality in studies, with three grams of glycine before sleep resulting in faster sleep onset and better rest, and collagen, which is a rich source of glycine, has also been found to decrease sleep latency and reduce waking up in the middle of the night 4m30s.
• The difference in effects between glycine and collagen may be due to the slower digestion of collagen, which could provide a more sustained release of glycine, and this highlights the importance of considering individual variability in responses to supplements like creatine and glycine 6m15s.

Managing Creatine Side Effects

• There are resources available, such as a guide to handling creatine side effects, that can provide more information on the potential negative effects of creatine and how to mitigate them, and these resources can be useful for people who experience adverse effects from creatine 8m20s.
• Many people experienced side effects such as anger, insomnia, restless leg syndrome, bloating, and twitching when taking creatine, which may be a sign that they need more creatine and should adjust their dose and synergistic factors like electrolytes and glycine 10s.
• Creatine can increase the need for electrolytes and glycine, and some people may need to microdose it, such as 100 milligrams a day, before increasing their dose to normal, as seen in a case where a person with a methylation deficit had to microdose creatine for 3 months before feeling like a new person 2m6s.
• A person with catastrophic drug withdrawal-induced mitochondrial dysfunction was able to regain 17 pounds of muscle in a year after microdosing creatine, which is a believable and impressive claim, and it is possible that microdosing creatine can help people build up their tolerance 4m30s.

Mitochondrial Efficiency and Sleep

• Some people may experience increased wakefulness and require less sleep when taking creatine or when in a fasted or ketogenic state, which could be due to their mitochondria being efficient, as seen in rodent model research and personal experiences 6m40s.
• The need for sleep can decrease when in a deep fasted or ketogenic state, and this can be confirmed through subjective energy and data, which suggests that some people's mitochondria may be more efficient and require less sleep 8m20s.

Mitochondrial Dysfunction and Energy Metabolism

• Mitochondrial dysfunction can limit the amount of mitochondria that can function well the next day, and this concept makes sense in the context of energy production and utilization 10s.
• Creatine is not a drug, and its effects on the body are different from those of pharmaceuticals, which can have intended and unintended consequences, such as turning down the energetic tone of the brain and causing side effects like driving difficulties and tiredness 42s.

Creatine and Methylation

• Unlike caffeine, which is a drug that counteracts the sleepiness signal in the brain and can interfere with sleep, creatine extends the energy supply without having a similar tradeoff, and its potential downsides, such as decreased glycine synthesis, may be due to fixing energy problems too quickly 2m6s.
• The process of methylation, which involves B vitamins and MTHFR, uses 45% of its resources to synthesize creatine, and glycine acts as a buffer to absorb excess methyl groups, which can be released later when needed, but adding creatine to the system can disrupt this process and cause excess methyl groups to be washed out in the urine 2m6s.
• The rapid introduction of creatine into the system can cause the body to struggle to adjust, leading to potential issues, but gradual introduction and allowing the body to adapt can help mitigate these problems, and creatine can have different effects on sleep, either increasing or decreasing the need for sleep, depending on whether mitochondrial energy extension was the limiting factor for sleep 2m6s.

Environmental and Lifestyle Influences on Mitochondria

• Mitochondrial dysfunction can be caused by various factors, including the use of creatine, which can decrease sleep quality and make individuals feel less rested, and this issue is often not addressed for 20, 30, or 40 years, leading to problems when it is finally fixed all at once, without giving the body a chance to adjust 10s.
• The effects of creatine can be confounded by other factors, such as being indoors more often, having a high cognitive load, and being exposed to fluorescent lights, which can also impact mitochondrial function and energy levels 1m42s.
• The type of lighting used can have a significant impact on mitochondrial health, with fluorescent lights and LED lights potentially being energy-exhausting to the mitochondria, and some people may feel drained when exposed to these types of lights, such as when walking into a store like Target 4m6s.

Light and Circadian Rhythm

• Syncing sleep-wake cycles to the natural light rhythm of the day is important, and deviations from this natural rhythm can cause problems, with the first law of mitochondrial health being to always think about the mitochondria first, and the third law being to never put technology before nature 6m30s.
• In the morning, sunlight provides a signal to the brain that it's daytime, with a small percentage of blue light that is physiologically relevant, and when waking up, the body is in a state of relative hypoxia and mitochondrial dysfunction, requiring the mitochondria to readjust to the demands of wakefulness 8m40s.
• Serotonin is produced in the brain in response to blue light, which helps the mitochondria adjust to increased demands or limited supply, and this process occurs naturally when waking up to sunlight or exercising 10s.
• The ideal morning light exposure consists of a combination of blue and red light, with about 10-15% blue light and 50% red light, which can be replicated by spending 10-20 minutes in front of a red and infrared light panel 42s.
• It is essential to establish a natural pattern of morning sunlight exposure and not replace it with technological solutions, such as red light panels or near-infrared devices, as these should be used as supplements to a natural pattern, not substitutes 2m6s.

Natural Light and Artificial Lighting

• Biohacking devices, like supplements, are meant to supplement a good diet or natural habits, not replace them, and while they can be beneficial, they lack the complexity and balance of natural sunlight 2m6s.
• Spending time outdoors, especially in indirect sunlight, is crucial for overall health, and children who spend more time outdoors are less likely to need glasses, highlighting the importance of natural light exposure 10s.
• Dermatologists may warn about photoaging, but some unprotected sun exposure is necessary for vitamin D production, and it is possible to design buildings to maximize natural light and minimize the need for artificial lighting 10s.
• The key is to find a balance between protecting oneself from excessive ultraviolet light and getting enough natural light to support mitochondrial health, which can be achieved by spending time in indirect sunlight or using natural light from windows 10s.
• Modern windows are becoming more energy-efficient, but they let less infrared light in, which can be detrimental to mitochondrial health, and it is recommended to opt for natural lighting over artificial lighting whenever possible 10s.

Gerald Pollock and Mitochondrial Research

• Artificial lighting, especially LEDs, can be harmful to mitochondria as they narrow the spectrum of light to a specific wavelength that can be destructive if not balanced with other wavelengths, and the flickering of LEDs can also be detrimental 42s.
• The sun's natural light is beneficial as it changes gradually over the day, providing a smooth and continuous exposure that is essential for mitochondrial health, whereas flickering LEDs can be catastrophic for mitochondrial health 2m6s.
• Gerald Pollock's work on the exclusion zone and the role of mitochondria in it is fascinating and has changed the perspective on how to look at mitochondria, shifting from a simple focus on macronutrients and energy production to a more complex understanding of their function 2m6s.
• The concept of the fourth phase of water, as discussed by Gerald Pollock, is revolutionary and has the potential to greatly impact our understanding of mitochondrial health and function, and it is an area of research that is worth exploring further 4m30s.

Structured Water and Mitochondrial Function

• The concept of cellular water being in a gel-like state is not widely accepted in molecular biology, but it is discussed in the book "Molecular Biology of a Cell" by Alberts, which mentions that the sodium potassium pump may only make a small contribution to electrolyte balance due to the gel-like state of most water in the cell 10s.
• The traditional view of cells as amorphous sacks of water is not accurate, and the gel-like state of cellular water challenges assumptions in fields like pharmacology, where homogeneity is often assumed, but may not be valid 42s.
• The structuring of water in the cell is interconnected with mitochondrial energy production, and they support each other, with the structuring of water taking different forms in the cell, including a gel-like state 2m6s.
• Research by Pollock suggests that the edge of blood vessels has a thin gel-like layer, and this structuring of water may play a role in why red light benefits mitochondria, possibly by optimizing the viscosity of the structured water around mitochondrial engines 2m6s.
• A paper by Pollock also explores the question of why blood keeps flowing after death, and his research may help explain this phenomenon, which has been observed for thousands of years, in relation to the concept of "Venus return" and the heart's role in sending blood out 2m6s.

Venous Return and Mitochondrial Metabolism

• The heart's power to send blood out dissipates by the time the blood has to return to the heart through the veins, and modern medicine attributes the primary impetus of venous return to movement, which is why hospital patients are often given heparin or compression gear to prevent deep venous thrombosis 10s.
• Research by Pollock suggests that mitochondrial metabolism produces mid-infrared light that structures the water on the edge of the blood vessel lumen, creating a gradient of solutes that attracts water longitudinally and aids in venous return, and this mechanism is in addition to others such as gravity, movement, and compression 2m6s.

Infrared Light and Human Connection

• The production of mid-infrared light by mitochondrial metabolism may be an important aspect of human connection and longevity, as cuddling with someone could allow individuals to recuperate and increase their exposure to mid-infrared metabolic energy, potentially leading to a big percentage increase in total energy 4m30s.
• This concept may also apply to cuddling with animals, such as dogs, as all living beings emit infrared energy, and research has shown that humans and other living beings emit ultra-weak photon emissions, which could play a signaling role 6m20s.
• The scientific consensus is that ultra-weak photon emission is a real phenomenon that has been researched since the early 20th century, and while it is hard to detect, it is definitely present and could be an important aspect of human connection and biology 8m40s.

Light Signaling in Cells

• The intensity of light produced inside cells is not the only factor that determines its signaling role, as a low-intensity signal can be rhythmic and cyclical enough to synchronize activities, and there are mechanisms to absorb and convert light, such as the molecule protoorpherin 9, which absorbs blue light and emits red light 10s.
• Protoorpherin 9 can emit reactive oxygen species when it absorbs blue light and emits red light on its own, but when it binds to an enzyme called TSPO in the mitochondrial membrane, it becomes a machine that can convert blue light to red light and act as an antioxidant 2m6s.
• Research has shown that certain substances, such as benzoazipines, can impact mitochondrial function, and specifically, the substance clinazipam, or more accurately, diazepam, can catastrophically block the process of converting blue light to red light in the mitochondria 4m37s.

Mitochondria and Thyroid Function

• The quantity of light emitted by cells is not well understood, and there are many mechanisms to absorb light, making it difficult to determine the biological significance of light production in cells, but it is possible that light production plays a role in signaling or other cellular processes 6m15s.
• The relationship between mitochondrial function and thyroid function is complex, and thyroid hormone is thought to signal metabolism and energy production, with its primary function being to regulate the metabolic rate and turn up the dial on energy production 10m30s.
• The thyroid hormone's role in regulating energy production suggests that it may be related to mitochondrial function, as mitochondria are the primary site of energy production in cells, and a failing mitochondria may be related to low thyroid function 12m40s.

Thyroid Regulation and Energy Balance

• The thyroid can be seen as a regulator of energetic responsibility, which involves spending energy that is available or can be paid back later, and being energetically irresponsible means spending energy that is not available, leading to energy debt and potentially energetic bankruptcy 10s.
• The thyroid hormone aims to maintain high energy levels, but it requires a consensus from the hypothalamus, pituitary, and thyroid gland that the body is in a state of energetic abundance before it can increase the metabolic rate 42s.
• Mainstream physiology recognizes that secondary hypothyroidism can occur due to a hypothalamic cause, often resulting from not eating enough food, such as during starvation, fasting, or caloric deficit, which can lower thyroid hormone levels 2m6s.
• The mechanism by which food translates into the hypothalamic, pituitary, and thyroid belief that the body is high in energy involves electrons and the conversion of food energy into ATP, which is the usable form of energy 2m6s.
• A bottleneck in the ability to convert food energy into ATP can signal to the hypothalamus that the body is low in energy, and this bottleneck can be present in all parts of the body, but can also be specific to certain tissues, such as the thyroid gland 2m6s.

Thyroid Oxidative Stress and Antioxidants

• Mitochondrial dysfunction, which can be caused by oxidative stress due to poor antioxidant status, can lead to damaged mitochondria and impact the thyroid gland's ability to function properly, potentially leading to a disagreement between the hypothalamus, pituitary, and thyroid gland about the body's energetic state 6m34s.
• The thyroid gland is a significant source of oxidative stress in the body because it produces hydrogen peroxide to oxidize iodide, which is necessary for thyroid hormone production, and this process can lead to cellular damage if not properly managed 10s.
• The thyroid gland has a unique structure, with a cell-less hole called the follicle lumen, where the oxidative stress occurs, and the gland has mechanisms to protect itself from this stress, including the use of antioxidants like selenium, which activates glutathione peroxidase to neutralize hydrogen peroxide 42s.
• A deficit in the ability to defend the thyroid mitochondria against oxidative stress can lead to hypothyroidism, which may appear as a primary condition but is actually a symptom of a systemic issue with antioxidant deficiency, and the root cause needs to be addressed to restore balance to the thyroid, hypothalamus, and pituitary gland 2m6s.

Thyroid Hormone and Mitochondrial Health

• The thyroid gland plays a crucial role in regulating metabolic rate, but if the mitochondria are not functioning properly, the thyroid's efforts to increase metabolism will be unsuccessful, and simply treating the thyroid with hormones may not address the underlying issue 4m30s.
• Injecting hormones into the system can communicate a falsehood and may not be a long-term solution, but it can sometimes be used to break a vicious cycle, and it is essential to use the resulting window of opportunity to make lifestyle changes and create a real state of abundance, allowing the body to eventually rely less on external hormones 6m15s.
• A case study of a girl with a rare mitochondrial disorder illustrates the importance of addressing the underlying energetic issues, as simply treating her thyroid condition with hormones led to a catastrophic crash, highlighting the need to focus on creating a state of abundance and energetic responsibility 8m30s.

Hierarchy of Health Interventions

• A hierarchy of approaches to health exists, where the first step is to use food or natural exposure, such as sunlight, to meet nutritional needs, and tonic herbs can be considered as food in this framework 10s.
• If dietary changes are not sufficient, a low-dose supplement can be added to meet basic nutritional requirements, and further supplements can be considered if unique needs are identified 1m42s.
• Mitochondrial infrastructure support, such as CoQ10, can be added if necessary, but it is essential to first optimize diet and lifestyle 2m6s.
• Signaling molecules, including mitochondrial peptides like MOTC, can be used to support mitochondrial health, but exercise care is necessary to avoid signaling a false truth 3m6s.
• Pharmaceutical interventions, such as thyroid hormone, should be used with caution and only after addressing underlying nutritional deficiencies, such as iodine deficiency, which is commonly found in individuals with low thyroid hormone levels 4m6s.

Vitamin D and Health

• Vitamin D levels and supplementation are complex issues, and it is essential to understand the underlying reasons for low vitamin D levels before considering supplementation, as simply taking vitamin D may signal a false truth 6m6s.
• Research on optimal vitamin D levels has primarily been conducted on individuals of North and Western European ancestry, and it is possible that normal levels for this population may not be necessary for everyone else 9m6s.
• Cod liver oil can be a useful supplement for supporting vitamin A and D levels, but individual needs may vary, and some individuals may not require supplementation 10m6s.
• A study in Hawaii found that skateboarders and surfers who spent 20 hours or more in the afternoon sun per week without sunscreen had low vitamin D levels, around 35 nanograms per milliliter, despite adequate sunshine, highlighting the complexity of interpreting vitamin D status 10s.

Vitamin D Measurement and Interpretation

• The marker 25HD, commonly referred to as vitamin D status, cannot be interpreted without measuring other factors to provide context, and measuring 1,25 dihydroxy vitamin D, or calcitriol, can help understand why vitamin D levels are low 42s.
• Calcitriol is considered the active hormone form of vitamin D, but its total activity on the vitamin D receptor is similar to 25HD due to the higher circulation of 25HD, and the body adjusts these levels to fine-tune the response 2m6s.
• A framework for measuring vitamin D status includes measuring 25OHD, 1,25 dihydroxy vitamin D, and parathyroid hormone (PTH), which monitors circulating ionized calcium and provides insight into the body's calcium economy 2m6s.
• The parathyroid gland is an expert in maintaining ionized calcium levels and monitors them hundreds of times a second, making a snapshot of PTH levels a useful indicator of the body's perception of its vitamin D and calcium economy 4m30s.
• Inflammatory markers, such as CRP, can help identify if low vitamin D levels are due to an inflammatory issue, and replacing vitamin D may be necessary in such cases, especially in situations of autoimmunity or illness 6m40s.

Cod Liver Oil and Nutrient Balance

• Vitamins A and D, as well as other nutrients, are important for overall health, and replacing vitamin D that is being burned through in situations of inflammation or illness may be necessary 8m20s.
• The use of cod liver oil, which contains pro-resolving mediators, may be an alternative for some people, but the decision to use it depends on individual circumstances 10m10s.
• The most ancient use of cod liver oil was by Scandinavian peasants, who would drink up to a pint of it per day when they were sick and stop once they recovered, with the duration of sickness typically being a few days 10s.
• The medical community later adopted a different dosing framework, using one to two teaspoons of cod liver oil per day for three to seven months, which can be seen as stretching out the cumulative dosing 2m6s.
• Cod liver oil is a great source of both vitamin A and vitamin D, but it is biased towards vitamin A, and vitamin D can deplete the bioavailable retinol A 2m6s.

Historical and Medical Use of Cod Liver Oil

• In the 1920s, clinical trials showed that cod liver oil could prevent illness, reduce the duration of sickness, and cut down on lost work hours, leading to a massive public health campaign and a 25-fold increase in cod liver oil imports in the United States from 1920 to the start of World War II 4m30s.
• The use of cod liver oil decreased with the introduction of antibiotics and vaccines after World War II, but it is now making a comeback, with some people requiring more vitamin D due to limited sunshine in their area 6m40s.
• It is important to consider individual circumstances before supplementing with vitamin D, rather than automatically taking it, and to balance vitamin D with vitamin A to avoid depleting bioavailable retinol A 8m50s.

Testosterone and Mitochondrial Function

• Sir Edward Melon, who discovered vitamin D, referred to vitamin A as the "anti-infective vitamin" due to its ability to prevent and reduce the severity of infectious diseases such as measles and bedside fever 5m30s.
• Mitochondrial dysfunction can cause low testosterone levels, and testosterone can also help mitigate mitochondrial dysfunction, creating a complex interplay between the two, with evidence from human and animal studies supporting this relationship 10s.
• The production of testosterone requires various nutrients, making it essential to prioritize a balanced diet before considering testosterone treatment, as bringing testosterone levels from subpar to normal physiological levels is only one part of a larger framework 2m6s.
• Vitamin D is considered a raw material for hormone production, rather than a hormone itself, and is viewed as a more flexible and less potentially damaging supplement compared to testosterone, allowing for more liberty in its use 42s.

Hormonal Signaling and Energy Allocation

• A hierarchy of priorities exists for addressing health issues, with testosterone treatment being fifth in this hierarchy, emphasizing the importance of addressing foundational aspects of health before moving on to hormone regulation 2m6s.
• Mitochondrial energy production is crucial for maintaining and repairing the body's infrastructure, and a loss of mitochondrial function can lead to a vicious cycle of declining energy production and abundant signaling, which includes thyroid hormone, testosterone, and estrogen 2m6s.
• Testosterone and estrogen add nuance to the abundant signaling provided by thyroid hormone, indicating what to do with the available energy and taking into account factors like life stage and sex, and they can turn up the dial on specific mitochondrial networks 4m30s.
• The interplay between energetic abundance, infrastructure, substance, and signaling forms a complex web, and any of these components has the potential to convert a vicious cycle into a virtuous cycle, which is the ultimate goal 6m40s.

Testosterone, CoQ10, and Mitochondrial Health

• Testosterone and CoQ10 have a linked relationship, with studies showing that increasing testosterone can lead to higher CoQ10 levels, and conversely, supplementing with CoQ10 can increase testosterone levels, with CoQ10 having a better risk-reward profile as it provides the raw materials needed for testosterone to function properly 10s.
• The benefits of testosterone can be real, but they can also be a form of debt that will be paid back later, not just in terms of hormonal debt, but also energetic debt, as artificially increasing testosterone levels without addressing underlying mitochondrial dysfunction can lead to energy deficits 2m6s.
• Mitochondrial function and testosterone have a supportive relationship, where mitochondrial function supports testosterone production, and testosterone supports mitochondrial function, but administering testosterone without addressing mitochondrial dysfunction can have negative consequences 2m6s.
• Some individuals may experience real mitochondrial benefits from testosterone administration, but the downside risk of dependence on pharmaceuticals and the potential for negative consequences is a concern, with some individuals preferring to focus on natural methods of supporting mitochondrial function, such as supplementing with CoQ10 4m30s.

Personal Experiences with Testosterone and CoQ10

• Personal experiences with testosterone and CoQ10 supplementation can vary, with one individual reporting an increase in testosterone levels from 300 to 600 after supplementing with CoQ10, and experiencing improved recovery and muscle mass maintenance, but not necessarily increased libido 6m40s.
• The relationship between testosterone, muscle mass, and receptor density is complex, and what is measured in the blood may not reflect the actual levels and activity at the tissue level, with some individuals able to maintain muscle mass with relatively low testosterone levels 10m0s.
• The relationship between testosterone and libido is complex, and libido can be considered a sign of abundance and life force, with mitochondrial function playing a role in libido even when testosterone is not a factor 10s.
• The use of CoQ10, an antioxidant that supports mitochondrial function, was discussed, with the individual taking 600mg of CoQ10 after previously taking 300mg for years and noticing no significant difference when stopping, but then increasing the dose 2m6s.
• A ketogenic diet, which was followed for 12 years, may have had an impact on testosterone levels, but it is difficult to determine the exact effect due to concurrent weight loss and other factors 2m6s.
• The introduction of carbs back into the diet did not appear to impact testosterone levels, and recent blood work showed higher testosterone levels while in ketosis 2m6s.
• A case study of an individual with low testosterone and mitochondrial iron metabolism issues was mentioned, where increasing vitamin D levels led to a tripling of testosterone, despite scientific literature suggesting no benefit above a certain threshold 2m6s.

Energy Signaling and Hormonal Regulation

• The individual in the case study experienced significant lifestyle improvements, such as increased cold tolerance, despite having a testosterone level that was not exceptionally high, suggesting that the gains were due to improved mitochondrial function rather than just increased testosterone 2m6s.
• The idea that mitochondrial function, rather than just testosterone levels, may be a key factor in overall health and well-being was discussed, with the example of the individual's experience with CoQ10 supporting this notion 2m6s.
• Mitochondrial energy production is optimized to feed forward into abundant signaling and testosterone synthesis, and the real benefit of testosterone-directed energetic mobilization is from the improvement in the mitochondrial response to testosterone 10s.
• The mitochondrial response to testosterone is important, but it cannot be measured in a normal clinical context, and people doing hormone replacement therapy (HRT) do not have the tools to measure whether the mitochondrial response is occurring 42s.
• There are many signals that divide the energy budget, including leptin, which signals long-term energy status, insulin, which signals short-term energy status, cortisol, which signals emergency demands on the energy budget for the brain and nervous system, and inflammation, which signals emergency demands on the energy budget for the immune system 2m6s.

Energy Allocation and Biological Priorities

• When the body gets sick, it experiences explosions of cells, including emergency myopoiesis, which requires a lot of energy, and the destruction of pathogens by neutrophils also requires energy, burning through glycogen 2m6s.
• The brain integrates signals from leptin, insulin, inflammation, and cortisol, and sends messages to the endocrine system, which integrates this information with its own energy production and knowledge of energy availability from food to make an integrated judgment about how much energy can be expended 2m6s.
• Thyroid is the first and most general signal of abundant energy, indicating that the body can start investing in long-term projects instead of emergencies, and it plays a role in the relationship between energy budget signaling and mitochondrial function 2m6s.
• Testosterone sex hormones play a role in energy distribution, influencing decisions such as reproductive priorities, and are integrated into the body's energy allocation, with factors like age and sex determining how energy is distributed 10s.

Energy Signaling and Biological Trade-offs

• Libido is linked to testosterone sex hormones, which signal not only reproductive priorities but also other factors like secondary sex characteristics, and these hormones prioritize energy differently, affecting various parts of the body 42s.
• The use of finasteride, a drug that blocks DHT signaling, can have different effects on mitochondrial function in various cells, such as improving it in brain cells and penises, but hurting it in hair follicles, highlighting the complex relationship between energy allocation and biological processes 2m6s.
• Biological peacocking, or the display of characteristics like hair and skin, is a sign of having enough energy to afford such displays, and is comparable to showing off wealth, like driving a luxury car, and ideally, one would prefer not to have to think about budgeting energy 4m30s.
• Mitochondrial efficiency and function are crucial in handling adequate amounts of energy, allowing the body to avoid scarcity mindsets and allocate energy effectively, making trade-offs between different bodily functions less necessary 6m15s.
• Having enough energy can eliminate the need for trade-offs between different bodily functions, such as choosing between hair and brain health, and optimal mitochondrial function is the key to avoiding such trade-offs and achieving overall well-being 8m40s.

Carbohydrates and Energy Signaling

• Carbohydrates can be viewed as a signaling molecule, and consuming a bolus of carbohydrates can create a short-term increase in libido, with this effect potentially being psychological due to the fitness community often keeping themselves in chronic deficits 10s.
• The individual's current carbohydrate intake is around 40 or 50 grams while in ketosis, but can spike to around 300 grams when not in ketosis, with their daily caloric intake being approximately 2,800 calories 2m6s.
• Another individual's daily carbohydrate intake is around 150 grams, which is considered relatively low, and they have experimented with different levels of carbohydrate intake, finding that 100-150 grams of net carbs is their sweet spot for energetic stability 4m30s.
• Consuming less than 100 grams of net carbs can lead to increased muscle tension and anxiety, while consuming more than 200 grams can cause energetic tone to become destabilized, leading to dips in brain function between meals 6m20s.
• The individual has found that being in a ketogenic state can provide too much energy in the brain, making them feel too much in their head, but they will use it as a tool when they need to cognitively sprint, such as when their filming load is high 10m30s.

Carbohydrate Intake and Energy Stability

• The individual has also experienced improved sleep when first starting a ketogenic diet, sleeping like a rock for the first month after being off of it for an extended period 12m40s.
• The combination of carbohydrates and fats in the same meal can lead to body composition issues, and it is suggested that this combination may not work well for some individuals, with the Randall cycle being a potential factor in this issue 10s.
• Insulin is considered the signal of the fed state, and carbohydrates in a meal are seen as the central governing force in transitioning from a fasting state to a fed state, according to biochemistry textbooks 2m6s.

Ketogenic Diet and Ketosis

• Keto diets are viewed as a biohack rather than a default natural state, with ketones being considered a default natural fuel, even in individuals with low resting fasting ketone levels, as they may still be producing ketones that are being consumed by the body 2m6s.
• There are catabolic conditions, such as in newborn babies or during fasting, where ketones play a more important role, and there are also areas where the diet has been traditionally low in carbs, but the idea of a strictly ketogenic ancestral diet is not entirely accurate 2m6s.
• The example of the Maasai tribe, who are often cited as having a strictly meat-based diet, is not entirely accurate, as their diet includes milk with sugar and they have also traded with neighboring tribes, incorporating starch into their diet 2m6s.
• The Inuit people have genetic mutations that impair ketogenesis, making it debatable whether they were truly ketogenic on their traditional diet, and the concept of a keto diet as an ancestral diet is not supported 2m6s.
• The keto diet was actually invented in 1929 by the Mayo Clinic as a treatment for seizures, using it as a biohack to leverage the benefits of fasting without the risk of starvation, and at the time, the biochemical pathways were not fully understood 2m6s.

Ketogenic Diet as a Medical Tool

• The ketogenic diet was originally invented as a drug-free treatment for seizures, and it has been found to have a profound increase in GABA in the brain, making it more effective than average drugs for seizure treatment 10s.
• The ketogenic diet is often confined to treating refractory epilepsy, but it has been used for 40 years before benzodiazepines were used for similar benefits, and its risk-reward profile is clearly better than that of drugs 2m6s.
• Benzodiazepines have a syndrome of protracted withdrawal, which can lead to new onset seizures, and case reports have shown that this can occur even after less than two weeks of use, with only six out of 39 people having a family history or previous experience of seizures 4m30s.
• The ketogenic diet, on the other hand, does not seem to have a similar syndrome of protracted withdrawal, and it is considered a safer option than drugs for treating seizures 6m20s.

Ketogenic Diet Mechanisms and Benefits

• The mechanism of the ketogenic diet's effectiveness is not fully understood, but it is thought to involve the use of ketone bodies to improve mitochondrial function, particularly in the brain, and it has been used to help combat withdrawal symptoms in individuals with impaired mitochondrial function due to alcoholism 8m40s.
• Exogenous ketones are also being studied as a potential treatment for various conditions, but their use is still a topic of debate, and the effectiveness of the ketogenic diet is not thought to be related to caloric restriction, as many people on the diet are able to consume sufficient calories and still experience benefits 10m50s.
• The concept of using ketogenic diets to treat health issues, such as epilepsy and addiction, is effective because it makes the brain feel good again, reducing the need for substances like alcohol and drugs 10s.
• The trend of attributing health issues to calorie intake is considered uncreative and insulting, and it is finally starting to lose traction, as people are realizing that health is more complex than just calorie counting 42s.
• Ketogenic diets have been shown to work for various health issues, including epilepsy, and it is not just due to weight loss, but rather due to the increase in ketones, which can displace glucose and provide an alternative source of energy for the brain 2m6s.

Ketogenic Diet and Metabolic Disorders

• There are metabolic disorders, such as glucose transporter defects, that can cause seizures, and ketogenic diets can help by increasing ketones and reducing the need for glucose, allowing the brain to function properly 2m6s.
• Ketone salts and esters were originally used to treat fatty acid oxidation disorders, and they work by shutting down fat burning and providing an alternative source of energy, but they can be catastrophic for people with ketone utilization disorders 2m6s.
• The increase in GABA in the brain is a key factor in the effectiveness of ketogenic diets in treating epilepsy, and it is not just limited to rare cases, but rather it is a general mechanism that applies to most types of epilepsy 2m6s.

Ketogenic Diet and GABA

• The classification of epilepsy is based on symptoms rather than causes, and most drugs used to treat epilepsy are gabaurgic medications, which increase GABA, similar to the effect of ketogenic diets 2m6s.
• The relationship between ketones and GABA is not fully understood, but it is clear that ketogenic diets increase GABA, which has a positive effect on epilepsy and other health issues 2m6s.

Ketogenic Diet in Hunter-Gatherer Context

• In hunter-gatherer societies, the closer you get to the equator, the higher the plant foods go up, with people eating them when they are abundantly available year round, and this information can be connected to fasting rather than a ketogenic diet 10s.
• When in a fasting state, it makes sense to have more GABA as it slows down the energetic demand when there is less energy coming in, and ketones can extend the value of incoming food energy to make more ATP 2m6s.
• The ketogenic diet can be beneficial, but it can also lead to micronutrient deficiencies if not done properly, with people often feeling good for the first few weeks before deficiencies start to occur, and it is essential to consider the increased need for certain nutrients such as thiamin, riboflavin, CoQ10, and carnitine when changing energy requirements 2m6s.

Balanced Ketogenic and Fasting Approaches

• A balanced approach to fasting and being well-fed can help capture the advantages of ketogenesis while minimizing the risks of deficiencies and maintaining energetic efficiency, as seen in the Mayo Clinic's biohack 4m37s.
• The importance of considering micronutrient deficiencies when adopting a ketogenic diet long-term cannot be overstated, as people may end up with relative deficits in certain areas, and it is crucial to address these deficiencies to maintain overall health 6m30s.

Resources and Further Reading

• For those interested in learning more, resources such as a newsletter at chrismasterjohnphd.substack.com and mitochondrial testing at mito.me are available 10m30s.