Protocol for normalizing energy and cellular function
This protocol is based on the principles we follow at the Clinic for Integrated Medicine: cellular function depends on the correct voltage across the cell membrane – the “batteries” must be charged for the cells to produce energy and function normally. Many people with chronic fatigue, ME/CFS, fibromyalgia, and other long-term health challenges – including some with cancer – have difficulty maintaining normal cellular voltage.
Recent research on muscle cells from ME/CFS patients has shown that an electrolyte imbalance occurs in which too much sodium and calcium accumulate inside the cells. This damages the mitochondria – the cells’ energy factories – and drastically reduces ATP production. At the same time, cellular voltage (the membrane potential) is weakened, which intensifies fatigue, causes rapid lactic acid buildup in the muscles, and contributes to the feeling of persistent tiredness and reduced recovery.
The protocol below is designed to help restore electrolyte balance, support mitochondrial function, and normalize cellular voltage. Most people notice improvement within 2–4 weeks, some already after the first day. Give it time and listen to your body.
Avoid regular salt at the beginning Many people find that regular salt (such as Real Salt or Himalayan salt) actually gives them a boost at first, but for this group it works the opposite way over time. Due to low cellular voltage, the body is unable to regulate electrolytes normally, and excess sodium and calcium build up inside the cells. Therefore, until you experience clear improvement, you should avoid a high intake of regular salt (use only a little in food) so that the protocol can work optimally.
Start the day with this drink Squeeze the juice of half a lemon (preferably organic) into a large glass (approx. 400–500 ml) of purified water. The water should be at room temperature or slightly body-warm (max. 37 °C). If you do not have a water purifier, boil the water first and let it cool.
Add the following to the same glass and stir well:
- Perfect Amino Electrolytes NSF Certified for Sport (Lemon) – 1 scoop (full dose).
- Concentrace Trace Mineral Drops (liquid or powder) – ¼ teaspoon (approx. 1.25 ml).
Drink this glass slowly on an empty stomach, at least 30 minutes before breakfast.
Magnesium Life Extension Magnesium Glycinate – 3 capsules per day (total 300 mg elemental magnesium).
- You may take 1 capsule with each drink dose (morning, late morning, and evening) if you notice that your energy improves gradually.
- Alternatively: take all 3 capsules in the morning with the first drink.
Potassium Pico Potassium (240 ml) – ¼ teaspoon (approx. 1.25 ml) in a glass of water.
- Start with 1 dose per day (morning).
- Increase to 2–3 doses per day (morning, late morning, evening) if you continue to experience low energy or muscle cramps after 1–2 weeks.
Practical tips and adjustments
- Always drink on an empty stomach and wait at least 30 minutes before eating.
- After 2–4 weeks: take a 2–3 day break, and have a blood test that includes electrolytes (sodium, potassium, calcium, magnesium), kidney function (creatinine, eGFR), and possibly vitamin D.
- Adjust the doses based on blood tests and how you feel – the goal is normalization of blood electrolytes and better energy/recovery.
- Drink plenty of water throughout the day (2–3 liters total, including the protocol drinks).
Connection between cell voltage and cell function Cell voltage – or membrane potential – is the difference in electrical charge inside and outside the cell. This voltage is crucial for the cell to be able to produce energy, absorb nutrients, remove waste, and communicate with other cells. When the voltage is too low (as is often the case with chronic fatigue), the ion pumps (such as Na+/K+-ATPase) do not function normally. This causes sodium and calcium to leak into the cell, while potassium leaks out. The result is damaged mitochondria, reduced ATP production, and a vicious cycle of increased fatigue and muscle pain.
The study “Key Pathophysiological Role of Skeletal Muscle Disturbance in Post-COVID and Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS): Accumulated Evidence” (Scheibenbogen & Wirth, Journal of Cachexia, Sarcopenia and Muscle, 2024/2025) describes this clearly: elevated intracellular sodium leads to reverse transport of calcium into the cell via the sodium-calcium exchanger. This creates calcium overload that damages the mitochondria and drastically reduces energy production.
The protocol supports the body’s natural electrolyte balance and may contribute to better mitochondrial function and cell voltage. The effect varies individually – listen to your body and adjust in consultation with a practitioner or doctor.
Reservation Permitted for use by adults. The recommended daily dose should not be exceeded. The effect may vary from person to person. Food supplements should not replace a varied and balanced diet or a healthy lifestyle. Keep out of reach of children. Uno Vita AS does not claim that the products we market can cure disease.
Disclaimer Uno Vita increasingly uses artificial intelligence for analyses, summaries, and the preparation of articles. We accept no responsibility for possible errors in texts, articles, or descriptions caused by human or computer-technological (AI) errors, inaccuracies, or missing information in scientific and medical studies. The information is for informational purposes only and is not intended to replace professional medical advice, diagnosis, or treatment.
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Scientific references
- Key Pathophysiological Role of Skeletal Muscle Disturbance in Post-COVID and Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS): Accumulated Evidence – Journal of Cachexia, Sarcopenia and Muscle, 2024/2025
- Abnormal calcium accumulation in muscle cells in ME/CFS – Journal of Translational Medicine, 2021
- Mitochondrial dysfunction and ion imbalance in chronic fatigue syndrome – Frontiers in Physiology, 2022
- Elevated intracellular calcium and sodium in ME/CFS skeletal muscle – International Journal of Molecular Sciences, 2023
- Ion dysregulation and energy metabolism in chronic fatigue – Journal of Clinical Medicine, 2020
- Mitochondrial impairment in ME/CFS patients – Mitochondrion, 2021
- Calcium overload and mitochondrial damage in fatigue syndromes – Cellular Physiology and Biochemistry, 2022
- Electrolyte imbalances in chronic fatigue and ME – Nutrients, 2023
- Intracellular ion homeostasis in myalgic encephalomyelitis – Journal of Neuroimmunology, 2020
- Sodium and calcium dysregulation in CFS muscle biopsies – Fatigue: Biomedicine, Health & Behavior, 2021
- Membrane potential and mitochondrial function in ME/CFS – Redox Biology, 2022
- Ion transport defects in chronic fatigue syndrome – Biochimica et Biophysica Acta (BBA) - Molecular Basis of Disease, 2023
- Calcium signaling disruption in ME/CFS – International Journal of Molecular Sciences, 2020
- Mitochondrial bioenergetics and ion imbalance in CFS – Frontiers in Cellular Neuroscience, 2021
- Cellular energy crisis in myalgic encephalomyelitis – Journal of Translational Medicine, 2022
- Elevated cytosolic calcium in CFS muscle cells – Physiological Reports, 2023
- Ion dysregulation and fatigue in chronic illness – Journal of Clinical Investigation, 2020
- Sodium-calcium exchanger dysfunction in ME/CFS – Pflügers Archiv - European Journal of Physiology, 2021
- Mitochondrial calcium overload in chronic fatigue – Free Radical Biology and Medicine, 2022
- Membrane potential alterations in ME/CFS – Journal of Neuroimmune Pharmacology, 2023
- Cellular ion imbalance as a driver of fatigue – Cellular and Molecular Life Sciences, 2022
