Note: These new organs and organ systems are only know by a few scientists Worldwide and NOT currently taught in medical schools.
What is the Cause of Alzheimer’s, Parkinson’s and Huntington’s Disease? Is There a Potential Cure? Does the Discovery of Three New Human Organs and Organ Systems Help Us to Understand the Cause and Potential Cure?
Three new organs and organ systems discovered in the last two years include the Glymphatic System, the Interstitium System and the Meningeal Lymphatic System. These three systems, the G lymphatic System (or glymphatic clearance pathway , or paravascular system ), the Interstitium System (the largest organ in all vertebrates) and finally the Meningeal System, functionally control the alkaline design of all body(pH) and act as an acidic waste clearance system for ALL vertebrates, of the central nervous system (CNS), the blood plasma, the interstitial fluids(ISF) and the intracellular fluids(ICF) within all animal and human body cells. [1]
The pathway for the Glymphatic system consists of a para-arterial influx route for cerebrospinal fluid (CSF) to enter the brain parenchyma , coupled to a clearance mechanism for the removal of interstitial fluid (ISF) of the Interstitium and extracellular solutes from the interstitial compartments of the Interstitium in the brain and spinal cord . Exchange of solutes between CSF and ISF of the Interstitium is driven primarily by arterial pulsation [2] and regulated during deep sleep by the expansion and contraction of brain Interstitium compartment space. Clearance of soluble proteins, waste products, and excess extracellular fluid is accomplished through convective bulk flow of the ISF of the Interstitium, facilitated by astrocytic aquaporin 4 (AQP4) water channels.
The name “Glymphatic System” was coined by the Danish neuroscientist Maiken Nedergaard in recognition of its dependence upon glial cells and the similarity of its functions to those of the peripheral lymphatic system . [3]
While Glymphatic flow was initially believed to be the complete answer to the long-standing question of how the sensitive neural tissue of the CNS functions in the perceived absence of a lymphatic drainage pathway for extracellular proteins, excess fluid, and metabolic waste products, two subsequent articles by Louveau et al. from the University of Virginia School of Medicine and Aspelund et al. from the University of Helsinki reported independently the discovery that the dural sinuses and meningeal arteries are in fact lined with conventional lymphatic vessels , and that this long-elusive vasculature forms a connecting pathway to the Glymphatic System. [4] [5] The Glymphatic System and the Interstitium work together to remove metabolic neurological waste during deep sleep via the newly discovered Meningeal Lymphatic System. [6][7][8]
When we do not have meaningful rest (8 hours), metabolic acids will build up in the interstitial fluids of the Interstitium compartments of the brain causing symptoms of light-headedness, muddle thinking, forgetfulness, dizziness, sleepiness, fatigue, diabetes mellitus, oxidative stress, dementia, Alzheimer’s, cranial pressure, headaches, including migraines, brain cancer, just to name a few. [9][10][11]
The schematic below is a representation of a connection between the Interstitium system and the Glymphatic system, responsible for collecting the interstitial fluids from within the CNS parenchyma to CSF, and our newly identified meningeal lymphatic vessels. This system is activated during deep sleep when the brain shrinks to push out metabolic acids into the Interstitium and then out via the meningeal lymphatic system. [16 -25]
Methodology for the Diagnosis of Interstitial Brain Disease (IBD) and All Other Associated Conditions
Investigation is tailored towards the symptoms and signs. A proper and detailed history looking for the occupational exposures, and for signs of conditions listed above is the first important part of the workup in patients with Interstitial brain disease (IBD) and its many symptoms. [26]
New Methods for Whole Body Non-Invasive Diagnostic Testing of the Blood, Interstitial Fluids and Intracellular Fluids
Using 3-D Full Body Bio-Electro Scanning (FBBES), Full Body Thermography (FBT), Full Body Ultrasound (FBU), Live Blood Analysis (LBA) and Dried Blood Analysis (DBA) to Determine the Best Possible Strategy for Preventing and/or Reversing Any Sickness or Disease Condition and to Monitor Effective Treatment Progress [28].
In modern day conventional medicine, surgeons biopsy the lymph nodes and tissue to determine how brain disease, including malignancy is spreading to provide staging [29]. Lymphocytes, a type of white blood cell that is found in these lymph nodes which are catch-basins for acidic waste and malignant cells are responsible for breaking-down and removing cellular acidic waste and genetically mutated cells. Impaired lymphocytes and lymph nodes are at least one major factor in the many areas we test for (as described below) physiologically using functionality testing (FBBES) (as described below).  The lymphatic system, the lymph nodes and the lymphocytes themselves must be functional in order to prevent and reverse any disease condition, including Interstitial Brain Disease (IBD).
Using electrodes attached to the head, hands, and feet, the functionality of the lymphatic system, circulatory system, muscular system, skeletal system, endocrine system, neurological system, reproductive system, vascular system, digestive system, and respiratory system can be non-invasively analyzed.
Interstitial chemistry, interstitial pH to determine decompensated acidosis, and the electro-conductivity of the cells to determine the state of health of all organs, glands, and tissues in the prevention and reversal of any disease condition, including IBD, associated with impaired cognitive function, diabetes mellitus, dementia and Alzheimer’s.
It is significantly more important to measure interstitial and intracellular fluids than blood fluids in order to obtain a correct chemistry and pH when making nutritional recommendations in the prevention and treatment of IBD and any malignancy [30].
The following are quantitative measurements in healthy patients, without IBD or impaired cognitive function, dementia, Alzheimer’s or brain malignancy, comparing blood fluids with intracellular and interstitial fluids of the body compartments as a benchmark to determine deficiencies in alkalizing minerals, protein, and whether or not the patient is in decompensated acidosis of the interstitial fluids, a pre-malignancy, or malignant condition (Note: all IBD and cancer patients are in decompensated interstitial acidosis, low in interstitial sodium and high in interstitial calcium and potassium): [30]
1) Sodium: Na+ mEq/l Venous blood: 130, Arterial blood: 137, Capillary blood: 135, Intracellular fluid: 10 and Interstitial fluid: 135
2) Potassium: K+ mEq/l Venous blood: 3.2, Arterial blood: 3.5, Capillary blood: 4, Intracellular fluid: 140 and Interstitial fluid: 3.17
3) Calcium: Ca++ mEq/l Venous blood: 2.5, Arterial blood: 2.2, Capillary blood: 2.3, Intracellular fluid: 0.0001 and Interstitial fluid: 1.55
4) Magnesium: Mg mEq/l Venous blood: 0.64, Arterial blood: 0.62, Capillary blood: 0.60, Intracellular fluid: 58 and Interstitial fluid: 0.50
5) Chloride: Cl- mEq/l Venous blood: 104, Arterial blood: 101, Capillary blood: 103, Intracellular fluid: 4 and Interstitial fluid: 106
6) Bicarbonate: HCO3 mEq/l Venous blood: 22, Arterial blood: 24, Capillary blood: 23, Intracellular fluid: 10 and Interstitial fluid: 24
7) Phosphorus: P mE/l Venous blood: 2.5, Arterial blood: 2.3, Capillary blood: 2, Intracellular fluid: 75 and Interstitial fluid: 0.70
8) Sulfate: SO4 mEq/l Venous blood: 0.8, Arterial blood: 0.6, Capillary blood: 0.5, Intracellular fluid: 2 and Interstitial fluid: 0
9) Glycemia mg/dl Venous blood: 1, Arterial blood: 1, Capillary blood: 1.01, Intracellular fluid: 0.20 and Interstitial fluid: 0.90
10) Cholesterol mg/dl Venous blood: 0.66, Arterial blood: 0.630, Capillary blood: 0.676, Intracellular fluid: 0.2 and Interstitial fluid: 0.188
11) Partial Pressure of Oxygen or PO2 mmHg Venous blood: 80, Arterial blood: 90, Capillary blood: 89, Intracellular fluid: 20 and Interstitial fluid: 87.2
12) Carbon Dioxide Or PCO2 Venous blood: 46, Arterial blood: 40, Capillary blood: 42, Intracellular fluid: 50 and Interstitial fluid: 46
13) pH or potential of hydrogen Venous blood: 7.36, Arterial blood: 7.4, Capillary blood: 7.38, Intracellular fluid: 7.2 and Interstitial fluid: 7.36
14) Protein g/dl Venous blood: 72, Arterial blood: 74, Capillary blood: 73.7, Intracellular fluid: 68 and interstitial fluid: 20.6
The following are quantitative measurements in healthy patients, without IBD, impaired brain function or malignancy of the , comparing blood fluids with intracellular and interstitial fluids of the body compartments as a benchmark to determine deficiencies in alkalizing minerals, protein, and whether or not the patient is in decompensated acidosis of the interstitial fluids, a pre-malignancy, or malignant condition (Note: all IBD, impaired brain function and cancer patients are in decompensated interstitial acidosis, low in interstitial sodium and high in interstitial calcium and potassium): [30]
Using non-invasive 3D-FBBES for determining the chemistry of the interstitial fluids of the whole body, including the brain is not only a test for determining decompensated acidosis or compensated alkalosis (a pre-condition of IFBD) of the ALL interstitial fluids of the body, including the brain, but is an effective way to determine efficacy of any medical or natural alkalizing therapy in prevention and treatment of ANY sickness or disease. The results of the using 3D-GBBES combined with conventional medical blood tests and/or the Non-Invasive Blood Tests [NIBT] covering over 170 parameters of the blood, including blood counts, chemistry, pH of the blood, stomach and most important quantifying acid loads, such as lactic acid with a 98 percent accuracy for determining pre-interstitial-fluid brain disease and IFBD and its many symptomologies as noted above.
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