Symmetry Lithium Orotate
Nasal Spray
Bringing Symmetry to Your Life

Nasal Lithium Orotate (Symmetry) Formulation

Symmetry Homeopathic Spray Ingredients

LITHIUM in Oratate 1X/2X/3X, GABA 3X, Albumin (USP) 1X/2X/3X. In a base of not more than USP Glycerine and Purified Saline Solution.

Symmetry is the first FDA registered homeopathic lithium orotate spray. In combining the highest quality lithium orotate with GABA and Albumin, HBC has created a formula that is designed to reduce stress while elevating mental and emotional well-being. Symmetry may also assist other depression treatments associated with symptoms of depression, stress, mania as it helps supports the body's ability to reduce stress for better overall health. The Lithium orotate used in this formula is the most powerful in its class..


There are 140 sprays per 1/2 ounce bottle.

At four sprays per day each bottle of Symmetry should last 35 days.

GABA

The brain's chief inhibitory neurotransmitter

GABA (Gamma-Aminobutryic Acid) is an amino acid that was first discovered in 1883 in Berlin. Classified as a neurotransmitter, GABA abundantly present in the brain, and serves as a balancer between excitation and inhibition. As a neurotransmitter in the central nervous system, GABA is essential for brain metabolism, aiding in balanced brain function, especially during episodes of anxiety, stress, depression, epilepsy, and Parkinson's disease. There are more GABA sites in the brain than for other neurotransmitters, including dopamine or serotonin. 

How does GABA work?

As the chief inhibitory neurotransmitter in the brain, GABA exerts its effects by binding to two distinct receptors, GABA-A and GABA-B. The GABA-A receptors form a Cl- channel. The binding of GABA to GABA-A receptors increases the Cl- conductance of presynaptic neurons. The anxiolytic drugs of the benzodiazepine family exert their soothing effects by potentiating the responses of GABA-A receptors to GABA binding. The GABA-B receptors are coupled to an intracellular G-protein and act by increasing conductance of an associated K+ channel. Several amino acids have distinct excitatory or inhibitory effects upon the nervous system. The amino acid derivative, g-aminobutyrate, also called 4-aminobutyrate, (GABA) is a well-known inhibitor of presynaptic transmission in the CNS, and also in the retina. The formation of GABA occurs by the decarboxylation of glutamate catalyzed by glutamate decarboxylase (GAD). GAD is present in many nerve endings of the brain as well as in the b-cells of the pancreas. Neurons that secrete GABA are termed GABAergic. 

What does that mean?

What this means is that rather than stimulating neurons to fire, GABA balances neuronal activity, and is therefore associated with both muscle relaxation, as well as mental states of calm, serenity, and symmetry.GABA basically acts as an inhibitory transmitter, keeping the brain and body from going into "overdrive." Supplementation of GABA seems to be quite effective for anxiety disorders as well as insomnia (especially the type of insomnia where racing thoughts keep the individual from falling asleep). Hence, those suffering from depression exacerbated by anxiety might want to consider taking this supplement.


An example of how GABA helps alleviate depression. 

When people use alcohol, and or drugs (Heroin, cocaine, ecstasy, marijuana . . . ) they do not feel depressed. They can not feel their depression. They have temporarily masked by flooding their brain with artificial opiods. When the drugs wear off, the depression returns. But, NOT exactly at the same point of use. Why? Because their GABA level remains temporarily high. The brain has been tricked into thinking its natural opiod level is high. Symmetry works to provide the brain and the body with the necessary nutrients that it needs to produce and keep opiod and GABA neurotransmitter levels up. Studies with oral administration of sodium valproate (an enhancer of endogenous GABA activity) and the muscle relaxant Baclofen (an agonist* of the GABA B receptor) demonstrate their ability to stimulate increased HGH levels.

Agonist.* 1. Any molecule that improves the activity of a different molecule; e.g., a hormone, which acts as an agonist when it binds to its receptor, thus triggering a biochemical response. 2. A drug that both binds to receptors and has an intrinsic effect. 

How does GABA enhance sleep?

Studies have shown that GABA increases the body’s sleeping cycle and patients reported much more vivid dreams. A good night’s sleep leads to more energy throughout the day. More energy feelings of vigor are common side effects of supplementing with GABA

Research has shown that GABA plays a key role in anxiety and sleep by potentially counteracting the excitatory effects of glutamate. Recent evidence suggests a very important role for GABAeric agents in the treatment of anxiety disorders like generalized anxiety disorder (GAD), social anxiety disorder (SAD), posttraumatic stress disorder (PTSD) both for modulating anxiety and also for treating the sleep disturbances that are inherent to these disorders. 


Albumin
Albumin has several essential physiologic functions in the human body.

Definition: \Al*bu"min\, n. (Chem.)
  A thick, viscous nitrogenous substance, which is the chief
and characteristic constituent of white of eggs and of the
serum of blood, and is found in other animal substances, both
fluid and solid, also in many plants. It is soluble in water
and is coagulated by heat and by certain chemical reagents.

Albumin is the protein of the highest concentration in plasma responsible for transporting many small molecules. (Calcium, progesterone, drugs . . . ) It is also of prime importance in maintaining the oncotic pressure of the blood (Keeping the fluid from leaking out into the tissues. When administered intravenously albumin increases total blood volume by drawing fluid from the extravascular tissues.). Unlike small molecules such as sodium and chloride, the concentration of albumin in the blood is much greater than it is in the extracellular fluid. Albumin is synthesized by the liver, therefore decreased serum albumin may be caused by liver disease. It can also result from kidney disease, which allows albumin to escape into the urine. Albumin has been shown to offer therapeutic advantages in shock, acute liver failure, burns, hypoproteinemia, adult respiratory distress syndrome, cardiopulmonary bypass, neonatal hemolytic disease, renal dialysis, acute nephrosis, erythrocyte resuspension, acute peritonitis, pancreatitis, mediastinitis and cellulitis. Adverse reactions to albumin are rare. Decreased albumin may also be explained by malnutrition or a low protein diet.*

Albumin is also called albuminate, plasbumin, buminate, albutein and albuminar. It is prepared as a sterile solution, contains no preservatives and is treated to prevent transmitting viruses. The elimination half life of serum albumin is twenty days. The U.S. Food and Drug Administration (FDA) regulates its preparation, distribution and use.

What is albumin?

Albumin is a protein (single polypeptide, 585 amino acids) manufactured by the liver, (9-12g/day) it is also a powerful antioxidant. It is a major source of sulphydryl groups, these "thiols" scavenge free radicals (nitrogen and oxygen species). It may also be an important free radical scavenger in sepsis. (In sepsis there is an increased rate of albumin loss into the tissues - this is probably related to increased capillary membrane permeability).

What does albumin do?

Albumin is also involved in between fifty and one hundred biological functions. Our body’s main transport system, it moves vitamins, minerals, hormones, fatty acids, and other essential substances to their destinations. Other functions include maintaining the "osmotic pressure" that causes fluid to remain within the blood stream instead of leaking out into the tissues.

Why is albumin important?

1. Binding and transport. There are actually four binding sites on albumin and these have varying specificity for different substances.Competitive binding of drugs may occur at the same sit or at different sites (conformational changes) [eg. warfarin and diazepam]. The drugs that are important for albumin binding are: warfarin, digoxin, NSAIDS, midazolam, thiopentone. The relevence of a low albumin and drug binding is unknown.

2. Maintenance of colloid osmotic pressure. Albumin is responsible for 75 - 80 % of osmotic pressure.Starling's equation: Transcapillary Flow = k [(Pcap + p i) - (Pi + p cap )] Remember that albumin is the main protein both in the plasma and in the interstitium and it is the COP gradient rather than the absolute plasma value that is important: this is what distinguishes hypoalbuminaemia derived from redistribution (capillary leak) from that of pure full body deficiency.

3. Free radical scavenging. Albumin is a major source of sulphydryl groups, these "thiols" scavenge free radicals (nitrogen and oxygen species). Albumin may be an important free radical scavenger in sepsis.

4. Platelet function inhibition and antithrombotic effects. The anticoagulant and antithrombotic effects of albumin are poorly understood this may be due to binding nitric oxide radicals inhibiting inactivation and permitting a more prolonged antiaggregatory effect. In diabetes, glycosylated albumin may increase the incidence of thrombotic events and atherosclerosis.

5. Effects on vascular permeability. In sepsis there is an increased rate of albumin loss into the tissues - this is probably related to increased capillary membrane permeability.

Which diseases cause albumin to be too low?

Liver disease, kidney disease, and malnutrition are the major causes of low albumin. A diseased liver produces insufficient albumin. Diseased kidneys sometimes lose large amounts of albumin into the urine faster than the liver can produce it (this is termed nephrotic syndrome). In malnutrition there is not enough protein in the patient's diet for the liver to make new albumin. The British Heart Study, published in the British medical journal The Lancet in 1989, followed 7,735 middle-aged British men for 9.2 years, finding that men with the lowest albumin levels had the highest rates of death from a plethora of causes.

What is a normal level of albumin?

The normal value depends on the laboratory running the test. Most labs consider roughly 3.5 to 5 grams per deciliter to be normal.

What happens if it gets too low?

In a healthy person with normal nutrition, the liver will simply manufacture more and the level will normalize. If albumin gets very low swelling can occur in the ankles (edema) and fluid can begin to accumulate in the abdomen (ascites) and in the lungs (pulmonary edema).

Why does albumin fluctuate so much?

Albumin levels are also dependant on the state of hydration of the body. A person that is deficient of water ("dry") because of dehydration will have an artificially low albumin level. This returns to normal when the dehydration is corrected. Albumin fluctuates so widely because it is very sensitive to changes in hydration of the body.

What causes serum albumin to decrease?

1. Decreased synthesis 2. Increased catabolism [ very slow ] 3. Increased loss: Nephrotic syndrome, exudative loss in burns, hemorrhage, gut loss, redistribution: hemodilution, ncreased capillary permeability (Increased interstitial albumin) decreased lymph clearance.

What are the consequences of decreased plasma albumin?

1. Decreased ligand binding. 2. Decreased plasma colloid pressure: decreased colloid oncotic pressure, and oedema formation. The formation of oedema is determined by: the rate of fluid flux. The clearance of fluid by lymphatics.

* HBC Protocols strongly believes that medical information is best conveyed to patients by their licensed healthcare providers. The materials presented here should be considered supplemental to that information. Should you have any questions, please consult your healthcare provider.

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