Rosenheimer Str. 6-8, 83043 Bad Aibling, Germany · info@clinicum-stgeorg.de
The Energy Crisis
Mitochondria are the power plants of every cell. When they fail, the body cannot produce enough energy to function normally. This cellular energy crisis is at the heart of chronic fatigue syndrome — and it is treatable.
A trip to the grocery store, a walk with the dog, a work call that ran long. Twenty-four hours later your legs are lead, your head is cotton, and nobody around you can see why. You have learned to ration yourself like a battery that never fully charges.
Here is what is happening inside the cells that make that energy, what we can measure, and what we can treat.
Every cell in the human body contains hundreds to thousands of mitochondria — tiny organelles responsible for producing adenosine triphosphate (ATP), the universal energy currency of life. Your body produces and consumes roughly its own weight in ATP every single day.
Mitochondria convert nutrients from food and oxygen from breathing into ATP through a complex process called oxidative phosphorylation. This process involves five enzyme complexes (Complexes I-V) in the electron transport chain, each of which can be damaged by infections, toxins, oxidative stress, or nutritional deficiencies.
When mitochondria are impaired, cells do not receive enough energy. The organs most affected are those with the highest energy demands: the brain, heart, muscles, and immune system. This explains why mitochondrial dysfunction produces such a wide range of symptoms — from cognitive impairment to cardiac dysfunction to immune failure.
Viruses including SARS-CoV-2, EBV, and HHV-6 can directly damage mitochondrial membranes, hijack mitochondrial machinery for viral replication, and trigger mitochondrial apoptosis pathways. Post-infectious mitochondrial damage is a key driver of both Post-COVID and CFS.
When mitochondria are stressed, they produce excessive reactive oxygen species (ROS) that damage their own membranes, DNA, and enzyme complexes. This creates a vicious cycle: damaged mitochondria produce more ROS, which causes further damage.
The electron transport chain requires specific cofactors to function: CoQ10, NAD+, riboflavin (B2), niacin (B3), iron, magnesium, and others. Deficiency in any of these can create bottlenecks in energy production. Many CFS patients show multiple subclinical nutrient deficiencies.
Heavy metals (mercury, lead, aluminum), pesticides, mycotoxins (mold toxins), and certain medications (statins, fluoroquinolone antibiotics) are known mitochondrial toxins. Environmental toxin exposure is an underrecognized contributor to CFS.
Pro-inflammatory cytokines (TNF-alpha, IL-1, IL-6) directly impair mitochondrial function. Chronic low-grade inflammation -- from any source -- gradually erodes the mitochondria's ability to produce energy efficiently.
Thyroid hormones directly regulate mitochondrial biogenesis and function. Cortisol dysregulation impairs cellular energy metabolism. Sex hormones influence mitochondrial efficiency. Hormonal imbalances compound the energy deficit.
Standard laboratory tests do not evaluate mitochondrial health. At St. George Hospital, we use specialized testing to map the specific nature of each patient’s mitochondrial dysfunction:
Our mitochondrial support protocol is designed to restore ATP production, reduce oxidative damage, and rebuild mitochondrial capacity. Treatment is guided by individual test results and adjusted based on clinical response.
High-dose intravenous delivery of CoQ10, NAD+, alpha-lipoic acid, B-complex vitamins, magnesium, and glutathione bypasses absorption issues and achieves therapeutic intracellular concentrations not possible with oral supplements alone.
Removal of mitochondrial toxins -- heavy metals, mycotoxins, environmental pollutants -- through targeted chelation, liver support, and apheresis eliminates ongoing sources of mitochondrial damage. c
Breaking the oxidative stress cycle with IV glutathione, vitamin C, and targeted antioxidant therapy protects existing mitochondria from further damage and creates conditions for mitochondrial biogenesis.
After the intensive IV phase, patients continue with a carefully designed oral supplement protocol -- CoQ10, PQQ, D-ribose, acetyl-L-carnitine, and B vitamins -- to maintain and build upon gains achieved during the inpatient stay.
Mitochondrial dysfunction is not exclusive to CFS/ME. It plays a central role in several conditions we treat at St. George Hospital:
SARS-CoV-2 directly damages mitochondria, contributing to Long COVID fatigue and brain fog.
See the Long COVID programme →Borrelia and co-infections impair mitochondrial function, driving the fatigue of chronic Lyme.
See the Lyme programme →Mitochondrial decline is a hallmark of aging. Supporting mitochondrial health is central to longevity medicine.
See the longevity programme →Intermittent hypoxia-hyperoxia training triggers mitochondrial biogenesis and eliminates damaged mitochondria through controlled oxygen variation.
What IHHT training involves →NAD+ is essential for mitochondrial electron transport chain function. IV delivery restores intracellular levels to support ATP production.
What NAD+ infusion involves →Pressurized oxygen saturates tissues and supports mitochondrial function by increasing oxygen availability for cellular respiration.
What a hyperbaric oxygen session involves →Medical ozone therapy improves oxygen utilization at the cellular level and reduces the oxidative stress that damages mitochondria.
What ozone therapy involves →A video consultation in English before you travel. A physician reviews your findings first; we reply by email within one business day (Mon–Fri).
Mon–Thu 08:00–17:00, Fri 08:00–14:00 (CET/CEST)+49 8061 398-0info@clinicum-stgeorg.de
St. George Hospital is a specialist hospital, not an emergency department. In a medical emergency in Germany, dial 112.
