Huma|n/A|natomy

Cellular Damage, Dysfunction & the Cycle of Toxicity

Apothcrypha is not a doctor.

I am neither a doctor nor do I play one on TV, this is just what I have found in my search for answers about what happened to me & my family in 2020.

Huma|n/A|natomy

Cellular Damage, Dysfunction & the Cycle of Toxicity.

Apothcrypha is not a doctor.

I am neither a doctor nor do I play one on TV, this is just what I have found in my search for answers about what happened to me & my family in 2020.

Our Bodies got Hijacked

I remember as a teenager sitting at the table in my Aunt Therese’s kitchen overlooking the Ohio countryside one morning pondering why my uncle, Dr. Charles J. Thurston, who was a genius emergency room physician, couldn’t fix my viral infection with antibiotics. As I inquired with him, he taught me my first lesson in bacterial infections verses viral infections.  After giving me an in depth “Dr. Uncle Chuck” breakdown of how an antibiotic worked, he got to viruses.  “And a virus?” He said. “…Well, nobody really knows what a virus is.”  Whether he ever went in depth about what was known about viruses or if he had exhausted his social energy of the morning with an abrupt punctuation, I don’t remember but his words echoed in my mind when I learned he was fighting aggressive lymphoma that was not responding normally to treatments in 2022.  Uncle Chuck had been working in emergency rooms across the United States on the front lines of the COVID-19 pandemic since March of 2020.

During my initial infection, I could feel the damage being done.  I didn’t know how and I certainly didn’t have enough knowledge to stop it from happening. There was little information about what this virus could do, but I felt at a base level that this was likely going to affect me for the rest of my life. There was nothing I could do but sit back in agony & horror, helpless as I felt my brain and body breaking. After the acute stage, I could feel something was very wrong in my body & brain.  This vicious little cluster of DNA wrapped in a membrane obviously messed me up at my core, but how? …And what could be done? 

I spent the following years with my brain misfiring and my body trying to kill me, as I attempted to figure out why my body felt like it was deteriorating.  I would occasionally pop into my doctor when health concerns would become alarming.  She would run inconclusive tests and refer me to specialists who in turn had no answers after more inconclusive or negative tests. The tests concluded I wasn’t dying so why did it feel like I was dying? I scoured news feeds looking for new information that sounded promising on good days. I did nothing but weep & sleep on bad days.  

It took until January of 2025, weeks after Uncle Chuck’s passing, for me to truly understand what happened to us in 2020 & what this virus did & will do to many more in the coming years. We have to start to live to support our body’s own healing capabilities at a cellular level & we have to support cell function from now on. The overproduction of oxidative stress, compounded with autonomic dysfunction, cellular dysfunction & sleep disruption are creating a toxic environment that has primed the body to facilitate its own destruction slowly over time & behind the scenes. It systematically hijacks critical cellular systems, increases oxidative stress, and forces the body into a state of biochemical chaos turning our bodies into ticking time bombs that cannot detoxify.

Our systems were hijacked, damaged & depleted. The virus exploited vulnerabilities & problems compounded in a dangerous cascade of dysfunction that dismantled our bodies systematically. SARS-CoV-2 disrupts cellular function through direct viral invasion, immune overreaction, and persistent inflammation, leading to long-term dysfunction in multiple systems.

I recall referring to it as “Spikey” long before I had any idea about these diabolical spike proteins.  But here is a detailed breakdown of what happened to our cells during the infection:

Step 1: Entry into the Host Cell

Targeting ACE2 Receptors

SARS-CoV-2 gains entry by binding to ACE2 (angiotensin-converting enzyme 2) receptors, which are present on:

  • Lung epithelial cells (leading to respiratory damage).
  • Endothelial cells (triggering vascular dysfunction).
  • Neurons (causing neurological symptoms).
  • Heart and kidney cells (explaining multi-organ involvement).
  • Intestinal epithelial cells (leading to gut dysbiosis and inflammation).

The Role of the Spike (S) Protein

The virus uses its Spike (S) protein to latch onto ACE2 receptors. This protein is divided into:

  • S1 subunit: Binds to the ACE2 receptor.
  • S2 subunit: Facilitates fusion with the host cell membrane.

Before the virus can fully enter, the S protein must be "primed" or activated by host cell enzymes:

  1. TMPRSS2 (transmembrane serine protease 2) cleaves the S protein at a key site, facilitating viral fusion.
  2. Furin protease (found in the Golgi apparatus) further modifies the spike protein, making it more infectious.

Alternative Pathways of Entry

If TMPRSS2 is not available, SARS-CoV-2 can enter via endocytosis, where:

  • The virus is engulfed in a vesicle and transported into the cell.
  • Cathepsins (lysosomal enzymes) in the endosome then process the virus for membrane fusion.
  • Once inside, the viral RNA is released into the cytoplasm to begin hijacking the cell’s machinery.

Step 2: Reprogramming the Cell for Viral Replication

Once inside, SARS-CoV-2 rapidly takes control of cellular resources, redirecting them toward viral replication while suppressing the cell’s ability to fight back.

Hijacking the Ribosomes (Protein Factories)

  • The viral RNA tricks ribosomes into prioritizing the production of viral proteins instead of normal cellular proteins.
  • This shifts cell function away from repair and metabolism toward creating new viral particles.

Manipulating the Endoplasmic Reticulum (ER) and Golgi Apparatus

  • The virus hijacks the ER to form double-membrane vesicles (DMVs), which act as viral replication factories.
  • The Golgi apparatus is disrupted as viral proteins overwhelm its ability to modify and transport normal proteins.
  • This leads to ER stress and unfolded protein response (UPR), triggering cell death, inflammation, and immune evasion.

Blocking Host Cell Defenses

SARS-CoV-2 actively suppresses antiviral mechanisms by:

  • Inhibiting interferon production, which prevents infected cells from signaling for immune help.
  • Disrupting mitochondrial antiviral signaling (MAVS) to avoid detection.
  • Suppressing the NF-κB pathway, delaying immune response and allowing the virus to replicate unchecked.

Step 3: Energy Hijacking & Mitochondrial Dysfunction

Viruses cannot produce their own energy, so SARS-CoV-2 manipulates mitochondria—the cell’s powerhouses—to sustain itself.

Mitochondrial Manipulation

  • SARS-CoV-2 disrupts mitochondrial respiration (ATP production), forcing the cell into inefficient energy generation.
  • It increases glycolysis, a process that prioritizes short-term energy at the expense of efficiency, making the host cell weaker.
  • This produces excess reactive oxygen species (ROS), damaging the mitochondria further and increasing oxidative stress.

Mitophagy Disruption

Normally, cells clear out damaged mitochondria through mitophagy, but SARS-CoV-2 blocks this process, leading to:

  • Accumulation of damaged mitochondria, which worsens oxidative stress.
  • Chronic fatigue and post-exertional malaise (PEM) due to inefficient ATP production.
  • Prolonged inflammation and immune dysfunction as mitochondrial distress signals activate inflammatory pathways.

Step 4: Immune System Manipulation & Hyperinflammation

SARS-CoV-2 confuses and exhausts the immune system, leading to either a suppressed response (allowing viral persistence) or a hyperactive response (causing long-term damage).

Suppressing Early Immune Defenses

  • Blocks interferon signaling, preventing immune cells from detecting the virus.
  • Inhibits antigen presentation, delaying immune recognition.
  • Alters macrophage polarization, leading to ineffective immune responses.

Triggering a Cytokine Storm

If the virus isn’t cleared early, it triggers a delayed but excessive inflammatory response, leading to:

  • Uncontrolled cytokine release (IL-6, TNF-alpha, IL-1β).
  • Blood vessel inflammation and endothelial damage.
  • Microclots and oxygen deprivation in tissues.

This damages multiple organs—the lungs, heart, brain, and kidneys—leading to persistent symptoms seen in long COVID.

Step 5: Vascular Damage & Microclot Formation

Unlike most respiratory viruses, SARS-CoV-2 is also a vascular virus, attacking the endothelial cells lining blood vessels.

Endothelial Dysfunction

  • Increases clotting factors, leading to microclots that impair blood flow.
  • Reduces nitric oxide (NO) production, worsening circulation and oxygen delivery.
  • Triggers vascular inflammation, increasing the risk of heart disease and stroke.

Microclot Formation

  • COVID-19 triggers fibrin deposits and platelet aggregation, creating microclots that:
    • Block capillaries, leading to tissue hypoxia.
    • Cause post-COVID fatigue by reducing oxygen to muscles and the brain.
    • Increase the risk of deep vein thrombosis (DVT), stroke, and heart attack.

Step 6: Long-Term Cellular Dysfunction & Persistent Viral Reservoirs

Even after the initial infection clears, SARS-CoV-2 can persist in tissues, leading to chronic symptoms in Long COVID patients.

Lingering Viral RNA & Protein Fragments

  • Found in gut, brain, spleen, lymph nodes, and lungs, triggering chronic immune activation.
  • Leads to long-term inflammation, immune dysregulation, and fatigue.

Post-Viral Autoimmunity

  • The immune system mistakenly attacks healthy tissues due to molecular mimicry.
  • Leads to autoimmune conditions such as lupus, rheumatoid arthritis, and MCAS.

Understanding which cellular functions were affected and how they are malfunctioning offers insight into the ongoing consequences of COVID-19 infections and the risk of leaving cellular damage unchecked. The way COVID-19 interacts with host cells, the immune system, mitochondria, and circulation sets it apart from any other viral infection, leading to both acute and long-term complications rarely seen with other viral infections.

We have to start taking stress off our system in every way possible.  The good news is that if we start making changes and begin supporting cellular function by taking care of our bodies in a new way, we can start to heal.  I believe more can heal than we’ve been told. But only if we look in the right place.

Baroque-inspired artwork portraying the struggle of living with long COVID, with a skeletal figure draped in vibrant fabrics and surrounded by symbolic florals that reflect hope amidst adversity.

Title: Still Living, Though Still

Mitochondria (Energy Production)

  • How COVID-19 Affects Them:
    Mitochondria, the energy factories of cells, are hijacked by the virus, leading to ATP depletion, increased oxidative stress, and impaired cellular metabolism.
  • Potential Long-Term Dysfunction:
    • Chronic fatigue and post-exertional malaise (PEM).
    • Poor muscle recovery and persistent weakness.
    • Increased production of reactive oxygen species (ROS), driving oxidative stress.
  • Dangers of Unchecked Dysfunction:
    If mitochondrial function is not restored, energy deficits will perpetuate fatigue, cognitive dysfunction, and chronic organ dysfunction while increased oxidative stress can lead to certain types of cancers. 
How to Restore Mitochondrial Function:

Mitochondria are the powerhouses of the cell, but they are also highly sensitive to oxidative stress, inflammation, viral infections (like COVID-19), poor circulation, and metabolic dysfunction. Restoring mitochondrial function requires a multi-layered approach that includes nutrient replenishment, detoxification, hormetic stressors (mild challenges that trigger adaptation), and lifestyle strategies that support mitochondrial biogenesis (the creation of new mitochondria).

NAD+ precursors (NMN, NR, Niacin, Riboflavin) → Support mitochondrial energy generation.

  • NAD+ (Nicotinamide Adenine Dinucleotide) is a critical coenzyme found in every cell of the body, responsible for energy production, DNA repair, mitochondrial function, and cellular metabolism. As we age, NAD+ levels decline, leading to fatigue, impaired metabolism, neurodegeneration, and increased oxidative stress. COVID-19 and chronic illness further deplete NAD+, worsening mitochondrial dysfunction.
    NAD+ cannot be taken directly in large amounts, so the body relies on precursors (building blocks) to restore its levels. The most effective NAD+ precursors include NMN (Nicotinamide Mononucleotide), NR (Nicotinamide Riboside), Niacin (Vitamin B3), and Riboflavin (Vitamin B2).

    🔹 Natural Sources of NMN (Nicotinamide Mononucleotide) & NR (Nicotinamide Riboside)

    NMN and NR are precursors to NAD+ and help maintain cellular energy balance.

    🥬 Best Food Sources of NMN & NR:
    Broccoli & cabbage → Rich in NMN and polyphenols.
    Edamame & soybeans → High in NMN, supporting NAD+ metabolism.
    Cucumbers & avocados → Provide moderate NMN levels.
    Mushrooms (especially crimini & portobello) → Good sources of NR.

    📌 Best Strategy: Include NMN-rich foods like broccoli and avocado with fermented foods for enhanced NAD+ production.

    🔹 Natural Sources of Niacin (Vitamin B3, Found in NAD+ Pathways)

    Niacin is the most direct way to boost NAD+ levels and is found in a variety of foods.

    🍗 Best Food Sources of Niacin (Vitamin B3):
    Chicken, turkey, and fish (tuna, salmon, anchovies) → Highest sources of niacin.
    Beef liver → One of the most nutrient-dense sources of niacin.
    Brown rice, peanuts, and avocados → Best plant-based sources.
    Brewer’s yeast → A great natural source of niacin and other B vitamins.

    📌 Best Strategy: Include lean meats, fish, and niacin-rich nuts (like peanuts) to maintain NAD+ levels naturally.

    🔹 Natural Sources of Riboflavin (Vitamin B2, Supports NAD+ Metabolism)

    Riboflavin is essential for converting food into ATP and plays a role in NAD+ synthesis.

    🥚 Best Food Sources of Riboflavin (Vitamin B2):
    Eggs & dairy (yogurt, cheese, milk) → Excellent bioavailable sources.
    Almonds & sesame seeds → Provide plant-based riboflavin.
    Leafy greens (spinach, asparagus, kale) → Contain moderate amounts of B2.
    Mushrooms → Support NAD+ synthesis with a mix of B2 and polyphenols.

    📌 Best Strategy: Pair riboflavin-rich eggs, dairy, and almonds with leafy greens for a full spectrum of NAD+ support.

Magnesium malate & Alpha-lipoic acid (ALA) → Enhance ATP synthesis and oxidative stress resilience.

  • Magnesium malate and Alpha-Lipoic Acid (ALA) are two essential compounds that support mitochondrial energy production, ATP synthesis, and antioxidant defense. Both play a critical role in reducing oxidative stress, improving metabolic function, and enhancing cellular resilience—especially in conditions like Long COVID, chronic fatigue, neurodegeneration, and metabolic dysfunction.

    🔹 Natural Sources of Magnesium Malate

    Magnesium malate is a combination of magnesium and malic acid—an essential compound in the Krebs cycle (energy production cycle).

    🥦 Best Food Sources of Magnesium Malate:
    Almonds, cashews, and pumpkin seeds → Excellent sources of magnesium.
    Leafy greens (spinach, kale, Swiss chard) → Rich in magnesium and polyphenols.
    Avocados → High in both magnesium and antioxidant support.
    Bananas & figs → Provide magnesium in a bioavailable form.
    Apples & pears → Naturally contain malic acid, boosting energy metabolism.

    📌 Best Strategy: Pair magnesium-rich nuts and avocados with fruits high in malic acid (apples, pears) for full mitochondrial support.

    🔹 Natural Sources of Alpha-Lipoic Acid (ALA)

    ALA is a powerful mitochondrial antioxidant found in both plant and animal-based foods.

    🥩 Best Food Sources of Alpha-Lipoic Acid:
    Grass-fed red meat & organ meats (liver, heart, kidney) → The highest natural sources.
    Spinach & broccoli → Best plant-based sources of ALA.
    Brussels sprouts & tomatoes → Contain moderate amounts of ALA.
    Brewer’s yeast → A rich source of ALA and B vitamins.

    📌 Best Strategy: Eat a mix of leafy greens, tomatoes, and quality grass-fed meats to naturally increase ALA levels.

PQQ (Pyrroloquinoline Quinone) & Resveratrol → Stimulate mitochondrial biogenesis (new mitochondria formation).

  • PQQ (Pyrroloquinoline Quinone) & Resveratrol → Stimulate mitochondrial biogenesis (new mitochondria formation). PQQ (Pyrroloquinoline Quinone) and Resveratrol are two of the most potent natural compounds known for stimulating mitochondrial biogenesis—the process of creating new mitochondria. This is critical for energy production, cellular repair, and long-term metabolic health, especially for individuals dealing with mitochondrial dysfunction, chronic fatigue, Long COVID, neurodegeneration, and aging-related energy decline.

    🔹 Natural Sources of PQQ

    PQQ is a bacterial-derived compound, meaning it is found in foods that are fermented, rich in plant polyphenols, or contain soil-based microbes.

    🍃 Best Food Sources of PQQ:
    Fermented soy (natto) → One of the richest sources of PQQ.
    Kiwi, papaya, and green peppers → High in PQQ and other polyphenols.
    Spinach & parsley → Dark leafy greens contain significant amounts of PQQ.
    Cocoa powder & dark chocolate → Contains PQQ along with flavonoids that support mitochondrial health.
    Green tea → Enhances mitochondrial function and provides antioxidant support.

    🔹 Natural Sources of Resveratrol

    Resveratrol is a polyphenol known for its anti-aging, mitochondrial, and cardiovascular benefits.

    🍇 Best Food Sources of Resveratrol:
    Red grapes & red wine → One of the highest sources (choose organic for higher polyphenol content).
    Blueberries & cranberries → High in resveratrol and other polyphenols.
    Peanuts & pistachios → Provide a plant-based source of resveratrol.
    Japanese knotweed → The most concentrated natural source, used in herbal medicine.
    Dark chocolate & cocoa → Contains both PQQ and resveratrol for mitochondrial support.

    📌 Best Strategy: Combine fermented foods (PQQ) with polyphenol-rich berries and cocoa (Resveratrol) for maximum mitochondrial benefit.

Cold therapy & intermittent fasting → Trigger mitochondrial renewal and efficiency.

  • Both cold therapy (cold exposure) and intermittent fasting are powerful hormetic stressors—mild stressors that force cells to adapt, repair, and become more efficient. They stimulate mitochondrial renewal, biogenesis (creation of new mitochondria), and increased energy efficiency, making them key strategies for longevity, metabolic health, and recovery from mitochondrial dysfunction.
    These two techniques work synergistically to clear out damaged mitochondria, increase ATP production, and optimize cellular metabolism, making them valuable for Long COVID recovery, chronic fatigue, neuroprotection, and metabolic disorders.

Baroque-inspired artwork portraying the struggle of living with long COVID, with a skeletal figure draped in vibrant fabrics and surrounded by symbolic florals that reflect hope amidst adversity.

Title: Out With The Old

Peroxisome Dysfunction (Detoxification & Tissue Regeneratioin)

What Are Peroxisomes?

Peroxisomes are like microscopic detox centers scattered throughout your cells. Each one is a membrane-bound organelle tasked with breaking down fatty acids, neutralizing reactive oxygen species (ROS), and metabolizing substances like hydrogen peroxide (hence the name). Think of them as the cellular equivalent of hazardous waste disposal: small, specialized, and absolutely essential for cellular health, particularly in the liver, kidneys, brain, and immune system.

They also play a vital role in lipid metabolism, cholesterol synthesis, and the production of plasmalogens—critical fats that protect your brain and heart.

When peroxisomes and mitochondria fail, the body can’t detox or make energy. Waste builds. Oxidative stress rises. Fats go rancid in tissues. DNA breaks. The nervous system unravels. Sleep stops restoring. Over time, the immune system turns on itself—or collapses entirely.

This isn’t as rare as you think. It’s just rarely recognized. And it’s how chronic illness becomes cancer.

Support the cells. Fix the system. If you aren’t looking here, you’re missing everything.

    How COVID-19 Wrecks the Cleanup Crew

    SARS-CoV-2, the virus responsible for COVID-19, disrupts peroxisomal function in multiple ways:

    • Hijacking Cellular Machinery: The virus redirects cell resources for its replication, downregulating peroxisome biogenesis genes (like PEX genes) and stalling peroxisome formation and division.

    • Oxidative Overload: COVID causes a surge in oxidative stress. If peroxisomes are overwhelmed—or worse, dysfunctional—they can’t neutralize ROS, which leads to cellular damage, inflammation, and mitochondrial distress.

    • Immune Signaling Disruption: Peroxisomes play a role in antiviral immunity through type I interferon signaling. When their function is impaired, the immune response becomes sluggish or overreactive—sound familiar?

    • Lipid Metabolism Mayhem: COVID-related peroxisome dysfunction disrupts lipid processing, which may contribute to post-viral syndromes involving fatigue, neuropathy, and brain fog.

    Signs of Peroxisome Dysfunction (Especially Post-COVID)

    • Chronic fatigue and PEM (post-exertional malaise)

    • Brain fog or cognitive slowing

    • Muscle weakness

    • Impaired detoxification

    • Heightened sensitivity to chemicals or environmental toxins

    • Neurological issues like neuropathy or ataxia

    How to Support Peroxisome Function

    While you can’t pop a “peroxisome pill,” you can support their function through a combination of targeted nutrients, detox-supportive practices, and metabolic balancing:

    Nutritional Allies

    • Alpha-lipoic acid (ALA): A powerful antioxidant that supports both mitochondrial and peroxisomal function.

    • Carnitine (especially acetyl-L-carnitine): Vital for fatty acid transport into peroxisomes and mitochondria.

    • N-acetyl cysteine (NAC): Precursor to glutathione, helps reduce oxidative stress burden.

    • Omega-3 fatty acids (DHA/EPA): Helps regulate inflammation and supports peroxisome-related lipid metabolism.

    • Phosphatidylcholine: Supports membrane integrity and peroxisomal lipid balance.

    • Magnesium: Involved in energy metabolism and enzyme function relevant to both mitochondria and peroxisomes.

    Botanical Support

    • Milk thistle (silymarin): Liver-supportive and antioxidant-rich, aids detox pathways.

    • Schisandra berry: Adaptogenic, supports glutathione production and detoxification.

    • Turmeric (curcumin): Potent anti-inflammatory, supports cellular defense pathways.

    Lifestyle Strategies

    • Intermittent fasting (or time-restricted eating): Encourages autophagy, including peroxisomal turnover and regeneration.

    • Low-tox living: Reduce load on detox systems—filter your water, skip the synthetic fragrance, and go easy on the plastics.

    • Movement: Gentle but consistent exercise (like walking or stretching) helps improve lipid metabolism and detox.

    • Infrared sauna therapy: May assist in reducing the oxidative and toxic burden.

    Top Foods That Support Peroxisome Function + Detox Pathways

    🥑 Avocados

    Rich in monounsaturated fats and glutathione precursors, avocados support lipid metabolism and help buffer the oxidative stress peroxisomes are built to handle. Their high oleic acid content supports healthy membranes and lipid signaling.

    🐟 Wild-Caught Fatty Fish (Salmon, Sardines, Mackerel)

    Packed with omega-3 fatty acids (EPA/DHA)—these regulate inflammation, support membrane repair, and assist peroxisomal fatty acid oxidation. They’re also crucial for plasmalogen production, especially for the nervous system.

    🥬 Cruciferous Vegetables (Broccoli, Kale, Brussels Sprouts, Arugula)

    Contain glucosinolates and sulforaphane, which activate phase II detox enzymes and NRF2 pathways that support peroxisomal biogenesis and antioxidant defense. Also sulfur-rich for glutathione production.

    🥚 Eggs (especially the yolks)

    Provide choline, methionine, and B12—nutrients crucial for methylation, membrane stability, and detox. Choline also helps the liver package and export fat, keeping peroxisomes from being overwhelmed.

    🥥 Coconut Oil (in moderation)

    Contains medium-chain triglycerides (MCTs), which are metabolized differently than long-chain fats. They don’t burden peroxisomes the way very-long-chain fatty acids do, giving the body a cleaner fuel source.

    🥜 Walnuts + Flaxseeds + Chia

    These are plant-based sources of ALA (alpha-linolenic acid), a precursor to omega-3s. Flax and chia also support elimination and bind toxins in the gut.

    🧄 Garlic & Onions

    Rich in organosulfur compounds, they stimulate detox pathways, support glutathione recycling, and assist with antimicrobial defense—important when dealing with post-viral overload or gut dysbiosis that contributes to toxic burden.

    🍋 Lemon + Citrus Peels (zest)

    Citrus peels contain d-limonene, a compound that boosts liver detox enzymes and bile flow, helping remove fat-soluble toxins. Vitamin C also reduces oxidative stress in peroxisome-heavy organs like the liver.

    🍓 Berries (especially Blueberries, Blackberries)

    High in polyphenols and anthocyanins that combat oxidative stress and support the vascular system. Polyphenols also modulate peroxisomal enzymes and reduce lipid peroxidation.

    🍵 Green Tea

    Contains EGCG, a polyphenol that modulates detox enzymes, supports lipid metabolism, and helps reduce cellular inflammation. Also supports autophagy, which clears damaged peroxisomes and mitochondria.

    🟤 Beets

    Beets are rich in betalains and nitrates, which support liver detox and improve blood flow—key for oxygen delivery to detox-heavy tissues. Also support bile production and gut motility.

    🌰 Brazil Nuts (sparingly!)

    An excellent source of selenium, which is a cofactor for glutathione peroxidase, one of the key antioxidant enzymes in peroxisomal detox. 1–2 per day is enough.

    🍄 Medicinal Mushrooms (Reishi, Chaga, Lion’s Mane)

    While not directly linked to peroxisomal enzymes, they modulate immune responses, reduce ROS, and support the gut-liver-brain axis—all vital for reducing the load on cellular detox machinery.

    ⚠️ Foods to Reduce or Avoid:

    • Refined seed oils (canola, soy, corn): pro-oxidative, disrupt membrane integrity

    • High-fructose corn syrup & processed sugars: drive fatty liver and inflammation

    • Ultra-processed foods: loaded with preservatives and additives peroxisomes can't easily break down

    • Alcohol: strains peroxisomal detox pathways and kills beneficial gut microbes

    Abstract neural pathways, illustrating the misfiring connections and cognitive disruptions caused by long COVID.

    Title: Missed Firings

    Neurons (Brain & Nervous System)

    • How COVID-19 Affects Them:
      COVID-19 induces neuroinflammation, disrupts neurotransmitter balance, and damages the blood-brain barrier (BBB). This allows toxins and inflammatory signals to enter the brain. 
    • Potential Long-Term Dysfunction:
      • Memory impairment, brain fog, and executive dysfunction (akin to early neurodegeneration).
      • Dysautonomia (loss of autonomic nervous system regulation).
      • Increased risk of neurodegenerative diseases, including Alzheimer’s and Parkinson’s.
      • Chronic pain syndromes linked to disrupted nervous system function.
    • Dangers of Unchecked Dysfunction:
      • Loss of cognitive resilience, increasing susceptibility to dementia.
      • Persistent dysautonomia, impacting heart rate, digestion, and blood pressure.
      • Exacerbation of mental health conditions such as anxiety, depression, and PTSD.
    How to Support Brain & Nervous System Function:

    • Omega-3s (EPA/DHA) & phosphatidylserine → Reduce neuroinflammation and support cognitive repair.
    • Magnesium L-threonate & glycine → Help restore neurotransmitter balance and improve brain plasticity.
    • Red light therapy & hyperbaric oxygen therapy (HBOT) → Stimulate brain repair and increase oxygenation.
    • Binaural beats, vagus nerve stimulation, & breathwork → Help regulate autonomic function and reduce nervous system dysregulation.

    Omega-3s (EPA/DHA) & phosphatidylserine → Reduce neuroinflammation and support cognitive repair.

    These essential fats and phospholipids are crucial for brain cell integrity, neurotransmitter function, and reducing neuroinflammation caused by stress, infection, or aging.

    Omega-3s (EPA/DHA) → Reduce neuroinflammation, support brain plasticity, and improve cognitive function.
    Phosphatidylserine (PS) → Supports cell membrane health, neurotransmitter function, and stress response.

    🔹 Natural Sources

    🐟 Omega-3s (EPA/DHA) from:
    Wild-caught fatty fish (salmon, sardines, mackerel, anchovies)
    Grass-fed beef (higher in DHA than grain-fed)
    Algae-based Omega-3 supplements (for plant-based sources)

    🌱 Phosphatidylserine from:
    Egg yolks (one of the richest sources)
    Soy lecithin & sunflower lecithin
    Grass-fed organ meats (liver, brain tissue)
    White beans, cabbage, and nuts (walnuts, almonds)

    📌 How to Implement: Eat fatty fish 2-3x per week, include egg yolks, and consider algae-based Omega-3 supplements if plant-based.

    Magnesium L-threonate & glycine → Help restore neurotransmitter balance and improve brain plasticity.

    These compounds help regulate neurotransmitters like GABA, serotonin, and dopamine, which influence mood, focus, sleep, and cognitive function.

    Magnesium L-Threonate → The only form of magnesium that crosses the blood-brain barrier, improving learning and memory.
    Glycine → An inhibitory neurotransmitter that promotes relaxation, deep sleep, and brain plasticity.

    🔹 Natural Sources

    🥦 Magnesium L-Threonate from:
    Leafy greens (spinach, Swiss chard, kale)
    Nuts & seeds (pumpkin seeds, almonds, cashews)
    Avocados & dark chocolate

    🍖 Glycine from:
    Bone broth & gelatin (richest sources)
    Poultry skin & collagen-rich meats
    Fermented soy (miso, natto, tempeh)

    📌 How to Implement: Drink bone broth daily, eat leafy greens, and consume gelatin-rich foods for optimal neurotransmitter balance.

    Red light therapy & hyperbaric oxygen therapy (HBOT) → Stimulate brain repair and increase oxygenation.

    Red Light Therapy (Near-Infrared Light, 810-850nm) → Stimulates mitochondria in brain cells, boosting ATP production and reducing inflammation.
    Hyperbaric Oxygen Therapy (HBOT) → Forces oxygen into brain tissues, promoting repair and cognitive recovery.

    Binaural beats, vagus nerve stimulation, & breathwork → Help regulate autonomic function and reduce nervous system dysregulation.

    Binaural Beats → Use specific sound frequencies to entrain brainwaves, improving focus, relaxation, and deep sleep.
    Vagus Nerve Stimulation → Activates the parasympathetic nervous system (rest-and-digest mode), reducing stress and improving heart rate variability (HRV).
    Breathwork (Box Breathing, 4-7-8 Method, Alternate Nostril Breathing) → Regulates oxygen and CO2 levels, improving nervous system function.

    Surreal artwork symbolizing the looming presence of long COVID, featuring a skeletal figure intertwined with a woman in a timeless setting, representing the tension between life and lingering illness

    Title: The Ever Looming Presence

    Microglia & Astrocytes (Brain Support Cells)

    • How COVID-19 Affects Them:
      • The virus activates microglia, the immune cells of the brain, leading to a chronic inflammatory state in the nervous system.
      • Disrupts glutamate balance, contributing to excitotoxicity (overstimulation of neurons leading to damage).
    • Potential Long-Term Dysfunction:
      • Brain fog, confusion, difficulty focusing, and memory deficits.
      • Increased risk of neurodegenerative diseases like Alzheimer’s and Parkinson’s.
      • Increased susceptibility to anxiety, depression, and mood disorders.
    • Dangers of Unchecked Dysfunction:
      Chronic neuroinflammation can accelerate brain aging, making cognitive decline more likely over time.
    How to Repair Brain Support Cells:

    Supporting brain repair involves reducing neuroinflammation, improving mitochondrial function, increasing neurotrophic factors (like BDNF), and optimizing circulation. This can be achieved through:

    • Anti-inflammatory and neuroprotective nutrients (omega-3s, phosphatidylserine, magnesium L-threonate, and polyphenols like resveratrol).
    • Stimulating brain repair pathways with Lion’s Mane mushroom, intermittent fasting, and red light therapy.
    • Enhancing oxygen delivery and mitochondrial function with hyperbaric oxygen therapy (HBOT), nitric oxide boosters, and cold exposure.
    • Regulating nervous system function through vagus nerve stimulation, binaural beats, and stress management techniques.

    By targeting inflammation, boosting neurogenesis, and supporting cellular energy production, you can repair and protect the brain’s support cells, ensuring better cognitive function, resilience, and long-term neurological health.

    L-Theanine & GABA → Promote relaxation and reduce excitotoxicity.

    hese compounds help calm the nervous system, regulate stress, and prevent overexcitation of neurons (excitotoxicity), which can lead to neurodegeneration.

    L-Theanine → Increases alpha brain waves, promoting relaxation and focus without drowsiness.
    GABA (Gamma-Aminobutyric Acid) → The primary inhibitory neurotransmitter, reducing anxiety and balancing brain activity.

    🔹 Natural Sources

    🍵 L-Theanine from:
    Green tea (highest source) – Matcha and high-quality sencha contain the most L-Theanine.
    Black tea & white tea – Also provide moderate amounts.
    Mushrooms (Boletus species, certain wild mushrooms) – Contain small amounts of L-Theanine.

    🥦 GABA from:
    Fermented foods (kimchi, sauerkraut, kefir, miso, natto, tempeh) – Naturally enhance GABA production.
    Sprouted whole grains & legumes (brown rice, barley, lentils, peas) – Contain GABA precursors.
    Bananas & spinach – Help increase GABA levels in the brain.

    📌 How to Implement: Drink green tea daily for L-Theanine and consume fermented foods and sprouted grains to boost GABA.

    Lion’s Mane Mushroom → Enhances nerve growth factor (NGF) and cognitive recovery

    Lion’s Mane is a medicinal mushroom that stimulates NGF (nerve growth factor), a protein essential for brain cell repair and regeneration.

    Stimulates NGF production, supporting nerve regeneration and brain plasticity.
    Protects against neurodegeneration, helping with memory, learning, and cognition.
    Reduces brain inflammation, supporting recovery from Long COVID and neuroinflammatory conditions.

    🔹 Natural Sources

    🍄 Lion’s Mane Mushroom from:
    Fresh Lion’s Mane mushrooms (Hericium erinaceus) – Found in specialty grocery stores or farmers' markets.
    Dried Lion’s Mane powder – Can be added to smoothies or teas.
    Wild mushrooms (some related species) – Other medicinal mushrooms like Reishi and Cordyceps support cognitive function but do not directly increase NGF like Lion’s Mane.

    📌 How to Implement: Cook fresh Lion’s Mane as a meat substitute or add powdered extracts to coffee, tea, or smoothies.

    Fisetin & Apigenin → Help clear damaged cells and reduce neuroinflammation.

    These flavonoids act as senolytics, helping clear out senescent (damaged, aging) cells that contribute to brain aging and inflammation.

    Fisetin → A flavonoid that promotes autophagy (cellular cleanup), clears senescent cells, and reduces neuroinflammation.
    Apigenin → A polyphenol that reduces stress, enhances GABA function, and protects neurons from damage.

    🔹 Natural Sources

    🍓 Fisetin from:
    Strawberries (highest source)
    Mangoes & apples
    Cucumbers & onions
    Persimmons

    🌿 Apigenin from:
    Parsley (highest source)
    Chamomile tea – Calming and anti-inflammatory.
    Celery & oranges – Moderate amounts of apigenin.
    Thyme & oregano – Common herbs that contain apigenin.

    📌 How to Implement: Drink chamomile tea before bed, eat parsley and celery, and snack on strawberries and mangoes to boost these senolytics naturally.

    Melatonin (low-dose) → Supports antioxidant defense and brain detox during sleep.

    Melatonin is a powerful antioxidant that protects neurons and enhances brain detoxification during deep sleep.

    Regulates sleep-wake cycles, supporting deep, restorative sleep.
    Acts as a brain antioxidant, reducing oxidative stress and inflammation.
    Enhances autophagy, helping clear cellular waste during sleep.

    🔹 Natural Sources

    🌙 Melatonin from:
    Tart cherries (Montmorency cherries) – One of the highest sources.
    Pistachios & walnuts – Contain high levels of melatonin precursors.
    Mushrooms (Shiitake & Maitake) – Naturally high in melatonin.
    Tomatoes, grapes, and goji berries – Moderate sources.

    📌 How to Implement: Drink tart cherry juice in the evening, eat pistachios and walnuts before bed, and include mushrooms in your diet.

    Abstract neural pathways, illustrating the misfiring connections and cognitive disruptions caused by long COVID.

    Title: Immuniwha

    Immune Cells (Innate & Adaptive Immunity)

    • How COVID-19 Affects Them:
      The virus can cause immune exhaustion, T-cell dysfunction, and dysregulated cytokine responses, leading to an impaired ability to fight future infections & can also lead to immune cells forgeting past infections leading to a reactivation of latent viruses.
    • Potential Long-Term Dysfunction:
      • Increased susceptibility to reinfections and other opportunistic infections.
      • Increased autoimmunity risk (e.g., lupus, rheumatoid arthritis).
      • Chronic low-grade inflammation, which fuels metabolic disorders.
    • Dangers of Unchecked Dysfunction:
      If the immune system remains in a dysregulated state, the body is prone to frequent illness, persistent inflammation, and a slow recovery from infections.
    How to Rebalance the Immune System:

    Rebalancing the immune system requires modulating, not just boosting its function—this means reducing unnecessary inflammation while strengthening immune defense and resilience. The key strategies involve:

    • Supporting gut health, as 70% of immune function is rooted in the microbiome.
    • Reducing oxidative stress and inflammation through antioxidants and adaptogens.
    • Optimizing nutrient intake (vitamins D, C, A, zinc, selenium, and polyphenols).
    • Regulating the nervous system, as chronic stress weakens immunity.
    • Using immunomodulating compounds like medicinal mushrooms, colostrum, and omega-3s.

    By addressing immune overactivity, deficiencies, and stress-related suppression, you can restore balance, adaptability, and long-term immune resilience.

    Colostrum & IgG supplements → Help modulate immune tolerance and support gut-immune function.

    Colostrum is the first milk produced by mammals (including humans and cows) after birth, rich in immune factors, growth factors, and antibodies (IgG, IgA, IgM) that help strengthen gut barrier function, regulate the immune system, and promote microbiome health.

    Colostrum contains immunoglobulins (IgG, IgA, IgM), lactoferrin, and proline-rich polypeptides (PRPs) that help regulate immune function and protect the gut lining.
    Strengthens gut barrier integrity, preventing leaky gut (intestinal permeability).
    Regulates autoimmune responses, reducing inflammation in conditions like Long COVID, autoimmune diseases, and gut dysbiosis.
    Supports microbiome health by encouraging the growth of beneficial gut bacteria.

    🔹 Natural Sources

    🥛 Colostrum & IgG from:
    Raw bovine (cow) or goat colostrum (best if grass-fed and pasture-raised).
    Colostrum powder supplements (freeze-dried to preserve immunoglobulins).
    Breast milk (for infants) – The most natural source for human babies.

    📌 How to Implement: Take a high-quality colostrum supplement (powder or capsules), preferably grass-fed, or consume fresh colostrum if available.

    Beta-glucans from mushrooms (Reishi, Turkey Tail, Maitake) → Improve immune resilience.

    Beta-glucans are polysaccharides found in medicinal mushrooms and oats that act as immunomodulators, helping balance the immune system rather than overstimulating it.

    Activate macrophages and natural killer (NK) cells, improving immune defense against infections.
    Regulate inflammation, reducing autoimmune overactivation and supporting immune tolerance.
    Enhance gut-immune interactions, helping the microbiome maintain proper immune balance.
    Increase production of immunoglobulins (IgA), which protect the gut lining.

    🔹 Natural Sources

    🍄 Beta-Glucans from:
    Reishi mushroom (Ganoderma lucidum) – Supports immune modulation and stress resilience.
    Turkey Tail mushroom (Trametes versicolor) – Boosts gut immune function and enhances microbiome health.
    Maitake mushroom (Grifola frondosa) – Regulates immune responses and supports energy levels.
    Oats & barley (less potent but still beneficial for immune function).

    📌 How to Implement: Consume medicinal mushrooms as teas, powders, or tinctures, or eat whole mushrooms in soups and stir-fries.

    Quercetin, luteolin, and vitamin C → Reduce mast cell activation and histamine intolerance.

    Quercetin and luteolin are flavonoids that act as natural mast cell stabilizers, preventing excessive histamine release, which is linked to inflammatory conditions, food sensitivities, and allergic reactions.

    Vitamin C enhances their effects by neutralizing histamine and reducing oxidative stress.

    Quercetin & Luteolin → Inhibit mast cell degranulation, preventing excessive histamine release.
    Vitamin C → Helps degrade histamine and reduces oxidative stress from mast cell activation.
    Regulate immune system overactivity, reducing inflammation in Long COVID, MCAS (mast cell activation syndrome), and allergies.
    Support endothelial function, improving circulation and reducing microclotting.

    🔹 Natural Sources

    🍏 Quercetin from:
    Capers (highest source) & onions (especially red onions).
    Apples, cherries, and citrus peels.
    Broccoli & asparagus.

    🌿 Luteolin from:
    Celery & parsley.
    Chamomile tea & peppermint tea.
    Green peppers & artichokes.

    🍊 Vitamin C from:
    Citrus fruits (oranges, lemons, grapefruit, kiwi).
    Bell peppers & strawberries.
    Camu camu & acerola cherry powder (highest sources of natural vitamin C).

    📌 How to Implement: Drink chamomile tea, eat onions, apples, and parsley, and take vitamin C-rich foods or powders to regulate histamine responses.

    Low-dose naltrexone (LDN, under medical supervision) → Helps modulate autoimmune activity.

    Low-dose naltrexone (LDN) is a repurposed medication that regulates immune function at very low doses (1.5-4.5 mg), rather than blocking opioid receptors like its standard high-dose form.

    Modulates autoimmune reactions, helping with conditions like MS, rheumatoid arthritis, Hashimoto’s, and Long COVID.
    Increases endorphin production, which regulates immune function and reduces chronic pain.
    Reduces microglial activation in the brain, lowering neuroinflammation linked to brain fog, POTS, and chronic fatigue.
    Balances Th1/Th2 immune pathways, which is critical for preventing immune overactivation in post-viral syndromes.

    🔹 How to Get It

    💊 LDN is not naturally available but can be prescribed by a functional medicine doctor or integrative health specialist.

    📌 How to Implement: Work with a healthcare provider to explore LDN as an option for immune modulation, especially if dealing with autoimmune dysfunction or post-viral syndromes.

    A symbolic hand with tree-like veins, illustrating connection, growth, and the struggle for healing in long COVID.

    Title: 

    Endothelial Cells (Blood Vessels)

    • How COVID-19 Affects Them:
      The virus damages the lining of blood vessels, leading to “endothelial dysfunction,” reducing their ability to regulate clotting, inflammation, and vascular tone. This damage contributes to microclots, leading to tissue hypoxia (oxygen starvation).
    • Potential Long-Term Dysfunction:
      • Increased clotting risk, contributing to strokes, heart attacks, and deep vein thrombosis (DVT).
      • Poor circulation, causing postural tachycardia syndrome (POTS) and other dysautonomic symptoms.
      • Chronic blood vessel inflammation, which may elevate the risk of hypertension and vascular dementia.
    • Dangers of Unchecked Dysfunction:
      Persistent vascular damage can lead to ongoing fatigue, cognitive dysfunction (“brain fog”), and increased cardiovascular disease risk.
    How to Support Endothelial Health:

    Supporting endothelial function means reducing oxidative damage, optimizing nitric oxide production for vascular dilation, and strengthening mitochondrial energy production. This can be done through antioxidant-rich foods, nitric oxide boosters, omega-3 fatty acids, and lifestyle interventions like infrared sauna, exercise, and breathwork. By protecting and nourishing these critical cells, you improve blood vessel integrity, cardiovascular resilience, and overall cellular health.

    Nattokinase & Lumbrokinase → Help break down microclots and improve circulation.

    • Nattokinase → Nattokinase (pronounced nuh-TOH-kin-ayss) is an enzyme extracted and purified from a Japanese food called nattō. Nattō is produced by fermentation by adding the bacteriumBacillus subtilis var natto.
    • Lumbrokinase → Acts similarly to nattokinase to help prevent and disperse blood clots but comes from the cells of intestinal tissue and fluid of the earthworm.

    Beetroot, citrulline, and nitric oxide boosters → Improve blood vessel flexibility and oxygen delivery.

    • Beetroot→ Beetroot (Beta vulgaris) is a nutrient-dense root vegetable known for its vibrant red-purple color, earthy flavor, and wide range of health benefits. It has been used for centuries in both culinary and medicinal practices, valued for its ability to support circulation, reduce inflammation, and enhance energy production at a cellular level.
    • Citrulline → Citrulline is a non-essential amino acid that plays a crucial role in nitric oxide (NO) production, circulation, detoxification, and energy metabolism. It is naturally found in foods like watermelon, cucumbers, pumpkins, and gourds but is also produced in the body as part of the urea cycle, which helps eliminate ammonia and other metabolic waste.
    • Nitric oxide boosters → Nitric oxide (NO) boosters are compounds that enhance the body’s ability to produce nitric oxide, a molecule that plays a critical role in blood vessel dilation, circulation, oxygen delivery, mitochondrial function, and cellular energy production.

    Hesperidin & Pycnogenol → Strengthen capillary health and reduce endothelial inflammation.

    • Hesperidin → Bioflavonoid found primarily in citrus fruits, known for its antioxidant, anti-inflammatory, and vascular-supporting properties. It plays a critical role in circulation, immune regulation, mitochondrial function, and endothelial repair.
    • Pycnogenol → Pycnogenol is a patented extract derived from the bark of the French maritime pine tree (Pinus pinaster), known for its powerful antioxidant, anti-inflammatory, and vascular-supporting properties. It contains a unique blend of proanthocyanidins, flavonoids, and phenolic acids, which support circulation, cognitive function, mitochondrial health, and immune modulation.

    Infrared sauna & gentle movement → Enhance circulation and detoxification.

    • Infrared sauna → An infrared sauna is a type of sauna that uses infrared light (a form of heat energy) to penetrate the body’s tissues, warming you from the inside out rather than just heating the air around you. Unlike traditional saunas, which use steam or heated rocks to warm the air to high temperatures, infrared saunas operate at lower temperatures (typically 110-150°F or 43-65°C) while still inducing deep sweating, circulation improvement, and detoxification.
    • Gentle movement → The endothelium is the thin layer of cells that lines blood vessels, playing a key role in circulation, nitric oxide production, and inflammation control. COVID-19 and Long COVID can damage the endothelium, reduce nitric oxide (NO) levels, and increase microclot formation, leading to poor circulation, fatigue, brain fog, and cardiovascular issues.

      Gentle movement—as opposed to high-intensity exercise—stimulates endothelial repair, improves blood flow, and enhances nitric oxide production without triggering excessive inflammation or oxidative stress.

    apothcrypha ai art sculpting technique fine ai art surreal image of anatomical botanical woman against a red background

    Title: Lady In the Red

    Epithelial Cells (Lungs, GI Tract, Kidneys, Skin)

    • How COVID-19 Affects Them:
      Epithelial cells line the respiratory tract, intestines, kidneys, and skin. The virus enters these cells through ACE2 receptors, triggering inflammation, disrupting their barrier function, and impairing repair mechanisms.
    • Potential Long-Term Dysfunction:
      • Fibrosis (lung scarring), leading to chronic shortness of breath.
      • Increased gut permeability (“leaky gut”), contributing to food sensitivities, chronic inflammation, and autoimmune issues.
      • Kidney dysfunction, increasing the risk of long-term kidney disease.
      • Skin issues such as rashes, hair loss, and persistent irritation.
    • Dangers of Unchecked Dysfunction:
      Chronic inflammation in these cells fuels ongoing immune activation, increasing the risk of autoimmune diseases, cardiovascular problems, and systemic inflammation. 
    How to Support Epithelial Cell Repair:

    To maintain strong, resilient epithelial tissues, the focus should be on reducing oxidative stress, replenishing essential nutrients, supporting gut and skin microbiomes, and enhancing repair mechanisms. This means providing your body with the right balance of antioxidants, omega fatty acids, amino acids, and vitamins, while also fostering a low-inflammation, high-recovery environment through diet, hydration, and targeted supplementation.

    Lungs: N-acetylcysteine (NAC) → Increases glutathione and supports lung detoxification.

    • NAC is a precursor to glutathione, the body’s master antioxidant that neutralizes oxidative stress.
    • Helps break down thick mucus in the lungs, aiding those with COPD, asthma, or respiratory infections.
    • Protects lung cells from pollutants, smoke, and toxins.

    How to Support It Naturally:

    • Sulfur-rich foods (garlic, onions, cruciferous vegetables like broccoli, Brussels sprouts, kale).
    • Eggs, legumes, and nuts (support glutathione production).
    • Supplementation (NAC is the primary form available in high doses for lung support).

    Lungs: Cordyceps & Ginseng → Improve oxygen uptake and lung tissue repair.

    • Cordyceps enhances ATP (energy) production in mitochondria, improving oxygen efficiency and endurance.
    • Ginseng increases nitric oxide, improving blood circulation and reducing lung inflammation.
    • Both support immune function and protect against respiratory infections.

    How to Support It Naturally:

    • Cordyceps: Found as powder, tea, capsules (naturally grows on caterpillar fungi, but cultivated versions are available).
    • Ginseng: Found as dried roots, tea, tinctures, or supplements (Korean, American, or Siberian ginseng).

    Lungs: Low-dose molecular hydrogen → Reduces oxidative stress in lung cells.

    • Molecular hydrogen (H₂) is a selective antioxidant, targeting harmful free radicals while preserving beneficial oxidation.
    • Reduces lung inflammation and protects against oxidative damage from pollution and infections.

    How to Support It Naturally:

    • Hydrogen-rich water (specialty water or hydrogen tablets).
    • Fermented foods (gut bacteria produce hydrogen gas naturally during digestion).

    Gut: Bone broth, L-glutamine, and butyrate → Help heal the gut lining.

    • Bone broth provides collagen, gelatin, and minerals that repair intestinal lining damage.
    • L-Glutamine is an amino acid that supports gut cell regeneration and reduces inflammation.
    • Butyrate is a short-chain fatty acid that feeds colon cells, enhances gut barrier function, and reduces inflammation.

    How to Support It Naturally:

    • Bone broth: Made by slow-simmering bones (chicken, beef, fish) with herbs and vegetables.
    • L-Glutamine: Found in cabbage, spinach, fish, chicken, eggs, dairy.
    • Butyrate: Found in resistant starches (green bananas, cooked/cooled potatoes, oats), butter, and fermented foods.

    Gut: Low-histamine probiotic strains (Bifidobacterium longum, Lactobacillus rhamnosus LGG) → Rebuild gut microbiome balance.

    • These probiotic strains reduce histamine-related inflammation and stabilize mast cells.
    • Bifidobacterium longum degrades histamine, reducing reactions in histamine-sensitive individuals.
    • Lactobacillus rhamnosus LGG enhances gut barrier integrity and supports immune function.

    How to Support It Naturally:

    • Fermented foods: Dairy-free coconut yogurt, pickled vegetables, and some kombucha.
    • Low-histamine probiotic supplements: Avoid strains that produce histamine (L. casei, L. bulgaricus, etc.).

    Gut: Colostrum & Zinc-Carnosine → Support intestinal integrity and reduce inflammation.

    • Colostrum contains immune-supporting antibodies (IgG) and growth factors that repair gut damage.
    • Zinc-Carnosine enhances gut lining integrity, reduces inflammation, and supports digestion.

    How to Support It Naturally:

    • Colostrum: Found in bovine colostrum supplements (first milk produced after birth).
    • Zinc-rich foods: Oysters, pumpkin seeds, beef, lentils.

    Kidneys: Electrolytes (magnesium, potassium, sodium) → Maintain fluid balance and kidney function.

    • Magnesium prevents kidney stone formation and supports relaxation of blood vessels.
    • Potassium helps maintain hydration and reduce blood pressure strain on kidneys.
    • Sodium maintains hydration and electrolyte balance (but should be consumed in moderation).

    How to Support It Naturally:

    • Magnesium: Found in leafy greens, nuts, seeds, avocado, dark chocolate.
    • Potassium: Found in bananas, sweet potatoes, avocados, spinach, beans.
    • Sodium: Found in sea salt, celery, beets.

    Kidneys: Dandelion tea & milk thistle → Support kidney filtration and detox pathways.

    • Dandelion tea acts as a natural diuretic, flushing out toxins and excess fluid.
    • Milk thistle enhances liver detoxification, reducing strain on the kidneys.

    How to Support It Naturally:

    • Dandelion tea: Brewed from dried dandelion leaves or roots.
    • Milk thistle: Available as tea, tinctures, or capsules.

    Skin: Omega-3s & vitamin E → Reduce inflammation and support cell membrane integrity.

    • Omega-3s keep skin hydrated, reduce inflammation, and support elasticity.
    • Vitamin E protects skin from oxidative damage and supports wound healing.

    How to Support It Naturally:

    • Omega-3s: Found in wild-caught salmon, sardines, flaxseeds, chia seeds, walnuts.
    • Vitamin E: Found in almonds, sunflower seeds, avocados, spinach.

    Skin: Collagen & vitamin C → Aid in skin repair and regeneration.

    • Collagen strengthens skin, joints, and connective tissue.
    • Vitamin C is essential for collagen production and protects against oxidative damage.

    How to Support It Naturally:

    • Collagen: Found in bone broth, gelatin, slow-cooked meats, fish skin.
    • Vitamin C: Found in citrus fruits, bell peppers, kiwi, strawberries, camu camu powder.

    apothcrypha ai art sculpting tecnique fine ai art digital baroque painting of womanunderground with brian exposed and fungi growing above and beside her

    Title: In Support

    Myocytes (Heart & Skeletal Muscle Cells)

    • How COVID-19 Affects Them:

      The virus triggers widespread inflammation and oxidative stress, leading to muscle breakdown (catabolism) and mitochondrial dysfunction. This reduces ATP production, impairing muscle endurance, strength, and recovery. Microclots and poor circulation further restrict oxygen delivery, contributing to fatigue, post-exertional malaise (PEM), and muscle pain.

      Potential Long-Term Dysfunction:

      • Persistent muscle weakness, reducing mobility and physical activity.
      • Mitochondrial dysfunction, leading to chronic fatigue and impaired energy metabolism.
      • Calcium dysregulation in muscle cells, causing muscle cramps, spasms, and poor contraction.
      • Cardiac myocyte involvement, increasing the risk of myocarditis and heart rhythm issues.

      Dangers of Unchecked Dysfunction:

      Ongoing muscle degradation and mitochondrial stress can lead to severe deconditioning, worsening fatigue, and long-term mobility issues. Persistent inflammation may also increase pain sensitivity (fibromyalgia-like symptoms) and metabolic dysfunction, making recovery more difficult.

    How to Support Myocyte Recovery:

    • Mitochondrial support: CoQ10, NAD+ precursors (NMN, NR), PQQ, and magnesium malate.
    • Reduce inflammation: Omega-3s, curcumin, and antioxidants (glutathione, alpha-lipoic acid).
    • Improve circulation: Beetroot, citrulline, and nitric oxide boosters.
    • Regulated movement therapy: Gentle stretching, low-intensity resistance training, and pacing (Also see the Energy Bank System) to avoid PEM.
    • Cold therapy & red light therapy: Enhance muscle recovery and reduce inflammation.

    By targeting mitochondrial repair, inflammation reduction, and circulation improvement, myocyte function can be restored, helping to combat muscle fatigue, weakness, and exercise intolerance post-COVID.

    LongCovid.Physio – Post Exertional Malaise  |  Science Direct -Psychiatric and neurological complications of long COVID

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    JAK Inhibition with foods

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    Have US scientists found the key to long COVID treatment?