Myelin repair is the only current research area that has the potential to
both restore lost function and halt the progress of multiple sclerosis. The
Myelin Repair Foundation (MRF) is the only non-profit medical research foundation
solely focused on identifying myelin repair drug targets that will lead to
treatments for multiple sclerosis.
Since 2004, the Myelin Repair Foundation has made extraordinary progress
toward effective multiple sclerosis treatments based on myelin repair:
- The MRF collaborative scientific team has identified 18 novel myelin
repair therapeutic targets and 24 research tools that may be used in all
neurological research.
- MRF has filed for nine patents on these discoveries.
MRF is committed to licensing a first myelin repair therapeutic target for
commercial development and clinical trials by mid-2009, only five years after
the organization began funding research.
- Read our latest research results here.
- Learn more about how
MRF is accelerating the rate of discovery for myelin repair treatments.
What is multiple sclerosis?
Multiple sclerosis (MS) is a chronic unpredictable neurological disease
affecting 2.5 million people worldwide. Multiple sclerosis can cause blurred
vision, loss of balance, poor coordination, slurred speech, tremors, numbness,
extreme fatigue, problems with memory and concentration, paralysis, stiffness,
bladder problems and blindness.
Though most people with multiple sclerosis
are diagnosed between the ages of 20 and 40, the unpredictable physical and
emotional effects are life long. The progress, severity, and specific symptoms
of MS vary greatly from person to person.
Because of the complexity of the
disease, the cause and pathology of MS are still not known. As a result,
scientists cannot predict when a cure for multiple sclerosis will be available.
In fact, to date, no cure has been found for any neurological disease.
The role of myelin in multiple sclerosis symptoms
Multiple sclerosis symptoms result from both the inflammation and breakdown
of myelin, the fatty protective coating surrounding nerve fibers of the central
nervous system (the brain and spinal cord). Myelin is often compared to the
insulating material around an electrical wire.
In multiple sclerosis, myelin is destroyed and myelin repair is prevented
by the formation of scars of hardened “sclerotic” tissue. These
are called plaques, and they can appear in multiple places within the brain
and spinal cord, hence the name multiple sclerosis.
Loss of myelin interferes with the transmission of nerve signals and triggers
the wide ranging symptoms of MS described above. The loss of myelin is referred
to as demyelination. Myelin loss has also been linked to a number of other
neurological diseases including Parkinson’s disease, Alzheimer’s
disease, depression and others.
Myelin rich “white matter,” constitutes nearly one-half of the
human brain, more than any other animal.
History of multiple sclerosis research
Considered a neurological curiosity in the mid-19th century, by the turn
of the 20th century, multiple sclerosis was recognized as one of the most
common causes of admission to neurology hospital wards. A century later,
multiple sclerosis became the most common serious neurological disease in
young adults living in temperate climates.
In the 1950s, however, as treatments for other neurological diseases were
developed, they were applied to multiple sclerosis, creating for the first
time the notion that treatments and even potentially cures were possible
[1].
While early contemporary multiple sclerosis researchers believed MS to
be an infectious disease, the more current view is that MS is an autoimmune
disease linked in some way to certain genes. Regardless of the cause or pathology
of the disease, however, what is common to all forms of multiple sclerosis
is the damage to myelin and the body’s inability to repair that damage.
Until 2001, there was no biological evidence that myelin could be repaired.
It was then that Yale University professor Jeffrey D. Kocsis successfully
used frozen human cells to restore nerve conduction in mice with multiple
sclerosis. The door to investigations into myelin repair was then wide open.
It now appears that in the early stages of the disease, spontaneous myelin
repair does take place but that eventually the disease overwhelms the body’s
capacity for repair resulting in the formation of chronic lesions that can
result in permanent disability.
Today there remains a heavy emphasis on identifying therapeutic targets
focused on reducing the body’s immune system’s inflammatory response.
And while the efficacy of those treatments for many MS patients is uncertain,
treating the patient’s immune system in this way has in fact appeared
to reduce the effect of the disease in some patients.
However, myelin repair is the only current research area that has the potential
to repair the nerve damage and essentially halt the progress of multiple
sclerosis. Because of this, the Myelin Repair Foundation has made identifying
myelin repair drug targets that will lead to treatments for multiple sclerosis
its sole focus – and has made great inroads as a result.
[1] Multiple
Sclerosis: The History of the Disease by T. Jock Murray, O.C., M.D.