Anti-Aging Support
HOME VIDEO AGING NEWS REVERSE AGING RESEARCH

Anti Aging Supplements

Lloyd's Anti-Aging
Lloyd's TLM
Lloyd's Power Solution

Natcell Mesenchyme
Natcell CNS
Natcell Immunity
Natcell Adrenal
Natcell Remilyn
Natcell Liver

Xtra-Cell Joint Support
Xtra-Cell Comitris

TA-65
TA-65 Skin Cream
Celergen

Resveratrol
Red Wine Resveratrol
Trans-Resveratrol

BathDetox
Bilberry Extract
Bone Renewal
Super Bio-Curcumin
Pure Synergy
Wobenzym


What's Hot in Ant-Aging Supplements

LLoyd's Natcell Anti Aging Support, same as Xtracell Anti-aging Click here for more info
Natcell / Extracell Anti Aging
 
 
Click here for Xtracell Joint Support info
Extracell Joint Support


 

Click here for more about TA-65 Aging info
TA65 proven telomerase activator

 
 

Trans Resveratrol with Quercetin info click Here
Trans Resveratrol with Quercetin

 
 

Wobenzym NWobenzym N

 
 

The World's Finest Resveratrol info click Here
The World's Finest Resveratrol

 

NatCell® CNS
Price: $300.00 ~ Now 20% off
Quantity - 8, 7 ml vials
This item is shipped Frozen

Lloyd's Natcell for your Central Nervous System

A whole central nervous system extract from pork, provides a high concentration of neurotrophic and other growth factors necessary for normal nervous system function, muscular contractions, nerve impulses and endocrine functions.

About Your Central Nervous System

All our vital activities take place in the central nervous system (CNS). It is constituted of the brain, cerebellum, bone marrow, and brain stem. From it, a whole network of bundles, the peripheral nervous system (PNS), innervates the various parts of the body. The neuron (or nerve cell) is the basic unit of these systems. It is responsible for receiving and transmitting sensitive and motor data to the whole body. It contains, within its center, a cellular body that reaches on either sides with short and ramified processes called dendrites, as well as one main process called axon. The dendrites receive data incoming from other neurons. The axon's role is to direct the nervous impulse toward a synapse, contact zone between two neurons or between a neuron and a cell of a different type, such as a motor end plate of a muscle. The axons gather into bundles to form nerves. The axon's structure is different depending on it's localization: the CNS or PNS. In the CNS, it is surrounded by a myelin sheath formed by oligodendrocytes, while in the PNS the myelin sheath is produced by Schwann cells. A neuron also produces neurotransmitters, such as acettylcholine and catecholamines, which define if it is a cholinergic or adrenergic neuron.

CNS Integrins Switch Growth Factor Signaling to Promote Target-Dependent Survival.
Department of Medical Genetics and Center for Brain Repair, University of Cambridge, Cambridge CB2 2PY, UK.

Depending on the stage of development, a growth factor can mediate cell proliferation, survival or differentiation. The interaction of cell-surface integrins with extracellular matrix ligands can regulate growth factor responses and thus may influence the effect mediated by the growth factor.

Here we show, by using mice lacking the alpha(6) integrin receptor for laminins, that myelin-forming oligodendrocytes activate an integrin-regulated switch in survival signalling when they contact axonal laminins. This switch alters survival signalling mediated by neuregulin from dependence on the phosphatidylinositol-3-OH kinase (PI(3)K) pathway to dependence on the mitogen-activated kinase pathway. The consequent enhanced survival provides a mechanism for target-dependent selection during development of the central nervous system. This integrin-regulated switch reverses the capacity of neuregulin to inhibit the differentiation of precursors, thereby explaining how neuregulin subsequently promotes differentiation and survival in myelinating oligodendrocytes.

Our results provide a general mechanism by which growth factors can exert apparently contradictory effects at different stages of development in individual cell lineages.

Nerve Regeneration
The brain, as soon as it takes shape during embryonic life, disposes of some 200 billion neurons. This number decreases to approximately 100 billion at birth, and remains constant until age 40. Later, the number decreases irreversibly with a daily loss of 10 thousand neurons per day. This phenomenon is associated with a gradual decline of the sensory, motor and cognitive capacities.

A lost neuron is never replaced. In adults, there are no undifferentiated cells that could become a neuron. We thus have a neuronal capital that cannot be increased. On the other hand, if the axon is the only one touched,the neuron can either die, atrophy, or regenerate its axon. This regeneration is however only possible in the PNS, since Schann cells are able to induce the production of growth factors (or neurotrophic factors). Neurons of the CNS cannot benefit from such a phenomenon, not because of their own nature but because of their environment. Some researchers have identified protein located on the oligodenrocytes surface which prevent axon growth by causing its retraction. This phenomenon has also been observed with mechanical lesions where astrocytes multiply, and replace the injured axon as it degenerates. However if the CNS is given the necessary substrate, in this case neurotrophic factors, that it cannot produce itself, it will be able to survive and to regenerate in case of lesions.

Neurotrophic Factors
Growth factors that allow neurons to regenerate their axon are also called neurotrophic factors NGF (Nerve Growth Factor) is the most widely known. Recently, other factors have been identified, such as BDNF (Brain Derived Neurotrophic Factor), CNTF (Ciliary Neurotrophic Factor), GDNF (Glial Cell-line Neurotrophic Factor), and IGF (Insulin Growth factor), to name only a few.

There is a correlation between a tissue's capacity to produce NGF and the number of sympathetic and sensitive nerves it contains. NGF is synthesized by Schann cells and fibroblasts. It is also found in the cerebral cortex and hippocampus. BDNF is found in the hippocampus, cortex, cerebellum, diencephalon, and mesencephalon.

In the PNS, neurotrophic factors bind to receptors located on the surface of nerves, and transport to the cell body where they play their trophic role. Thus, if a nerve is severed, the neuronal cellular body is deprived of the axonal ending that provides the NGF required for its growth. Schann cells will then start producing NGF, but very often only compensate for the lack of growth factors and allow a quicker regeneration. The therapeutic effect of exogenous neurotrophic factors lets us hope for results with certain neurodegenerative or neuromuscular diseases.

Neurodegenerative Diseases
Parkinson's disease is one of the neurodegenerative diseases that leads to motor disorders. It is caused by a degeneration of the brain stem's nerves, in the black substance, neurons that usually innervate a motor structure located under the cortex where they release dopamine. Recent studies have shown a specific effect of certain factors such as BDNF and GDNF, which would allow survival and differentiation of adrenergic cells. If their effects are confirmed through animal studies, these factors will become the treatment of choice against Parkinson's disease.

Administration of these factors is however limited, since they cannot cross the hematoencephalic barrier.

Neuromuscular Diseases
Neuromuscular diseases are characterized by the death of the motor neurons that link the bone marrow and motor end-plate. It is the case with anyotrophic lateral sclerosis (ALS). Several researchers think that the death of these neurons could result from the non availability of neurotrophic substances.

Recent studies have shown that concomitant administration (in vitro, and in Wobbler mice) of CNTF and BDNF helped increase the muscular mass, and delayed neuronal loss. Other factors, such as GDNF and IGF, also seem promising.

Neuromuscular Neuropathies
Certain antineoplastic agents used in chemotherapy, such as vincristine, cisplatine, and taxol, cause adverse effects, despite their efficiency. Neurotoxicity is one effect that causes neuropathies such as paresthesia, numbness of the tips of the fingers and toes, and neuritic pains that can lead to often irreversible motor disorders.

The efficiency of neurotrophic factors, such as NGF and IGFm has already been shown in mice that had received antineoplastic agents: they favilitate the budding of nerve fibers, which seems to restore the neuromuscular functions that were diminished by chemotherapy.

Conclusion
Because of the discovery of neurotrophic factors, it is now incorrect to think that nerve cells lesions are irreversible. These factors make it possible to improve the regeneration of injured nerves of the PNS and CNS. The therapeutic effect of neurotrophic factors is extremely promising. Research will probably make it possible to develop treatments for so-called incurable diseases using combinations of such factors. The CNS and lungs of bovine embryos are naturally rich sources of neurotrophic factors

More Research Available at NatcellCNS.com

Buy Some Natcell CNS Now

   

*These statements have not been evaluated by the Food and Drug Administration.
This product is not intended to diagnose, treat, cure, or prevent any disease.
†Extraction process covered under U.S. patent number 5,985,839
†Manufacturing process covered under US patent 5,618,925. 5,985,839, 6,025,334, 6,383,522