In a healthy human cell, intracellular water makes up approximately 60%–70% of the cell’s total volume.

More specifically:

Intracellular fluid (ICF) accounts for about two-thirds (≈66%) of the body’s total water.

• This translates to about 28 liters of water inside the cells in an average adult (assuming ~42 liters of total body water).

At the Cellular Level:

Water’s Role in Cellular Function:

• • Water is essential for maintaining cell structure, facilitating biochemical reactions, and transporting molecules within the cell.

The cytoplasm is composed of about 70%–80% water, depending on cell type and hydration status. This high water concentration is critical for:

• • Dissolving nutrients and electrolytes
  • Enabling enzymatic reactions
  • Supporting molecular transport
  • Maintaining cell shape and turgor pressure

Water In (Hypotonic Environment):

• • When the extracellular environment has a lower solute concentration than the cell’s cytoplasm, water moves into the cell via osmosis.
  • This can cause the cell to swell, which is critical for maintaining cell volume and turgor pressure

Water Out (Hypertonic Environment):

• • When the extracellular environment has a higher solute concentration, water moves out of the cell.
  • This can cause the cell to shrink (crenation in animal cells or plasmolysis in plant cells), which may impair cellular function if prolonged.

Role in Cellular Function:

• • Nutrients provide the raw materials for energy production, growth, and repair.
  • Waste removal prevents the accumulation of harmful substances that could disrupt cellular function or damage organelles.

Nutrients In:

Nutrients (e.g., glucose, amino acids, fatty acids, vitamins, and minerals) enter the cell through various mechanisms:

• • • Passive Transport: Diffusion or facilitated diffusion (e.g., glucose transporters).
    • Active Transport: Requires energy (ATP) to move nutrients against a concentration gradient (e.g., sodium-potassium pump).
    • Endocytosis: Engulfing of large molecules or particles by the cell membrane.

Once inside, nutrients are metabolized to produce energy, build cellular components, or support biochemical reactions.

Toxins/Waste Out:

Waste products (e.g., urea, lactic acid, ammonia) and toxins are removed from the cell through:

• • • Passive Transport: Diffusion or facilitated diffusion.
    • Active Transport: Expelling waste against a concentration gradient.
    • Exocytosis: Expelling large molecules or particles via vesicles fusing with the cell membrane.

In a healthy human cell, intracellular water makes up approximately 60%–70% of the cell’s total volume.

More specifically:

• Intracellular fluid (ICF) accounts for about two-thirds (≈66%) of the body’s total water.
• This translates to about 28 liters of water inside the cells in an average adult (assuming ~42 liters of total body water).

At the Cellular Level:

Water’s Role in Cellular Function:

• • Water is essential for maintaining cell structure, facilitating biochemical reactions, and transporting molecules within the cell.

The cytoplasm is composed of about 70%–80% water, depending on cell type and hydration status.  This high water concentration is critical for:

• • Dissolving nutrients and electrolytes
  • Enabling enzymatic reactions
  • Supporting molecular transport
  • Maintaining cell shape and turgor pressure

Water In (Hypotonic Environment):

• • When the extracellular environment has a lower solute concentration than the cell’s cytoplasm, water moves into the cell via osmosis.
  • This can cause the cell to swell, which is critical for maintaining cell volume and turgor pressure

Water Out (Hypertonic Environment):

• • When the extracellular environment has a higher solute concentration, water moves out of the cell.
  • This can cause the cell to shrink (crenation in animal cells or plasmolysis in plant cells), which may impair cellular function if prolonged.

Gatekeeper

Cellular Membrane

The cell membrane (plasma membrane) plays a central role in these processes:

• Selective Permeability: Allows only specific molecules to pass through, ensuring proper regulation of substances.
• Transport Proteins: Facilitate the movement of ions, nutrients, and waste products.
• Receptors: Enable the cell to respond to external signals (e.g., hormones) that regulate these processes.

AIT utilizes proprietary fluids, therapeutic gases, and synergistic technological protocols to permeate the cellular membrane and root out degenerative disease states through elimination of toxicity, addressing oxygen deficiency, and proper hydration and nutrient delivery at the cellular level.