treatment

A recent article in The New York Times hit the nail on the head when it comes to describing the world we live in with MS. But the article isn’t about MS. The Times‘ Tessa Miller writes about Crohn’s disease, a type of inflammatory bowel disorder. Like MS, Crohn’s…

Editor’s note: “Need to Know” is a series inspired by common forum questions and comments from readers. Have a comment or question about MS? Visit our forum. This week’s question is inspired by the forum topic “Study Shows Low-dose Botox Therapy Improves Urinary Symptoms in People with…

MSCopilot, a software device designed for the self-assessment of multiple sclerosis (MS), distinguishes between patients and healthy controls, and potentially could be used in clinical practice for the monitoring of MS disability progression and patients’ response to treatment. Matthieu Lamy, from Ad Scientiam, the…

Researchers at Kent and Canterbury Hospital, U.K., are recruiting 20 patients with multiple sclerosis (MS) who can walk at least eight meters with a walking aid to test the effectiveness of a five-week exercise program using assistive robotic technology. A patient completes balance and strengthening exercises using the…

Axim Biotechnologies announced that it has succeeded in microencapsulating cannabinoids (chemical compounds in cannabis) into the company’s patented chewing gums, which are used to treat several disease symptoms, including pain and spasticity associated with multiple sclerosis (MS). Since the active cannabinoids are degradable in the body, the company needed…

Plasma is the fluid part of our blood that carries nutrients and blood cells through our bodies. Donated plasma can save the lives of burn and injury victims and it’s used as a treatment for hemophilia and other autoimmune diseases. Recently, some treatment centers in the United States…

Relapses can be sneaky. They can scythe you down. I’ve been dealing with multiple sclerosis (MS) since 2006 and I only consciously remember two relapses. The first relapse was two years after I had been diagnosed with sclerosis. There was the possible hope from my first neurologist that nothing…

My wife and I joined our son and his family on a tour of a Southwest Florida nature preserve today. It required riding on an old school bus-swamp buggy for a little over an hour and a half. There were plenty of gators, wild hogs, egrets, and storks in…

Two newly identified variants of the known pharmaceutical agent chloroindazole showed significant anti-inflammatory and neuroprotective benefits in a mouse model of multiple sclerosis, a new study shows. Multiple sclerosis is an autoimmune, demyelinating disease of the central nervous system with no known cause or cure. Patients with MS characteristically show loss of the myelin sheath, a protective coat in nerve cells that helps increase cell-to-cell signaling. Several studies have suggested that estrogens — a type of hormone — are beneficial to the functioning of the central nervous system, and help regulate the immune system. Thus, they are attractive candidates for the treatment of MS. However, despite their potential to treat MS, estrogen-based therapies can have several undesirable side effects, such as feminizing male recipients and increasing the risk of developing breast and endometrial cancers in females. Interestingly, estrogens work by binding and activating two different types of receptors: the estrogen receptor (ER)α and ERβ. The cancer-inducing effects of estrogens are mediated mainly through estrogen receptor ERα. Hence, therapies that specifically target ERβ can bypass these deleterious effects. Chloroindazole (IndCl), a pharmaceutical agent, has up to 100-fold relative binding affinity for ERβ over ERα. IndCl has been shown previously to have beneficial effects on modulating the immune system and the central nervous system, and inducing myelination of nerve cells in mouse models of MS. Furthermore, IndCl and other ERβ-activating agents directly support the growth, differentiation (maturation), and overall myelination activity of oligodendrocytes, which are the nerve cells that produce the myelin sheath. Therefore, in order to optimize the benefits of IndCl, researchers developed and screened seven novel IndCl analogues for their ability to promote oligodendrocyte survival, growth, and differentiation. These analogues have a molecular structure closely similar to that of IndCl, but interact with estrogen receptors in subtly different ways. Among these seven compounds, researchers found two analogues — IndCl-o-chloro and IndCl-o-methyl — that stimulated growth and differentiation similar to the original IndCl. Next, researchers evaluated the benefits of these compounds in a mouse model of MS — the experimental autoimmune encephalomyelitis (EAE) mouse model — to determine whether they could alter the disease course, white matter pathology (level of demyelination), and inflammation. Results indicated that both compounds “ameliorated disease severity, increased mature OLs [oligodendrocytes], and improved overall myelination in the corpus callosum and white matter tracts of the spinal cord,” researchers wrote. Corpus callosum is a thick band of nerves that connect the left and right side of the brain. White matter tracts connect the cortex (the largest part of the brain) with other areas in the central nervous system. These beneficial effects were accompanied by a reduced production of the toxic, inflammatory molecules interferon-γ and CXCL10. Additionally, IndCl-o-methyl also reduced the levels of peripheral interleukin (IL)-17, a molecule that strongly induces inflammation. Furthermore, IndCl and both analogues upregulated the expression of a compound called CXCL1, which is associated with increased production of oligodendrocytes. Not only were these two newly identified compounds equivalent to IndCl, but the two analogues performed better in reducing disability and encouraging remyelination than the original compound, and without any obvious side effects. “The o-Methyl and o-Chloro IndCl analogues represent a class of ERβ ligands that offer significant remyelination and neuroprotection, as well as modulation of the immune system; hence, they appear appropriate to consider further for therapeutic development in multiple sclerosis and other demyelinating diseases,” the researchers concluded. “We believe we created a drug that does two things really well, modulating inflammation and allowing axon remyelination. No other drug on the market can do these two things simultaneously,” Seema K. Tiwari-Woodruff, said in a press release written by Stacy Kish. Tiwari-Woodruff is the study's lead author. “The most amazing part of the study is that these new analogues of a known estrogen modulator, chloroindazole, are superior in treating mouse model of multiple sclerosis,” she added. The team has patented the analogues, and hopes to begin further pharmacological and toxicity studies soon.

Editor’s note: “Need to Know” is a series inspired by common forum questions and comments from readers. Have a comment or question about MS? Visit our forum. This week’s question is inspired by the forum topic “New MS Therapy Company to Focus on Rejuvenating Coating…

The U.S. Food and Drug Administration (FDA) has warned against the use of plasma transfusions from young donors to alleviate or treat the symptoms of multiple sclerosis or other diseases, noting such transfusions have no proven clinical benefit and carry known health risks associated with their use. Plasma is the liquid component of blood, containing proteins that help in clotting, and can be used to treat bleeding disorders and cases of trauma. But its use in transfusions as a means of treating conditions ranging from multiple sclerosis, dementia, Alzheimer’s, Parkinson’s, heart disease and post-traumatic stress disorder are of concern, the FDA said in issuing its statement of Feb 19. "We have significant public health concerns about the promotion and use of plasma for these purposes," the FDA statement reads. "[W]e’re alerting consumers and health care providers that treatments using plasma from young donors have not gone through the rigorous testing … [necessary] to confirm the therapeutic benefit of a product and to ensure its safety." Scott Gottlieb, the FDA's commissioner, and Peter Marks, director of its Center for Biologics Evaluation and Research, jointly issued the statement cautioning healthcare providers and the public that plasma infusions — being done at "a growing number of clinics" in several U.S. states — are not an FDA-approved or recognized treatment for aging, memory loss, multiple sclerosis, or other diseases. FDA-approved treatments largely come through clinical trials overseen by researchers and independent boards, and performed under an investigational new drug (IND) application that helps to ensure patient safety. “Our concerns regarding treatments using plasma from young donors are heightened by the fact that there is no compelling clinical evidence on its efficacy, nor is there information on appropriate dosing for treatment of the conditions for which these products are being advertised,” the statement notes. According to the FDA, large volumes of plasma might be also be needed for such transfusions and that volume can pose significant risks, including allergic reactions, infections, and heart and respiratory problems. The agency also expressed concern that such transfusions could discourage patients from taking medications or other treatments known to be safe and effective for their condition. According to the agency, some "establishments" across the country are recommending young donor plasma infusions and "touting" them "as cures and remedies," while sometimes "charging thousands of dollars." The FDA advises patients to consult with their treating physician before opting for any treatment to confirm that it is approved for use, meaning its safety and effectiveness have been demonstrated. “Simply put, we’re concerned that some patients are being preyed upon by unscrupulous actors touting treatments of plasma from young donors,” the FDA statement reads. It also asks that patients who have undergone a plasma transfusion report any ill effects to its MedWatch program, which tracks adverse events related to treatments.

Multiple sclerosis (MS) patients given intensive disease-modifying therapies early in their disease course have more favorable long-term outcomes than those treated with an escalating regimen, real-world data shows. The study, “Clinical Outcomes of Escalation vs Early Intensive Disease-Modifying Therapy in Patients With Multiple Sclerosis,” was published in the journal …

A protein called Satb1 appears to be the "on switch" that turns a type of T-cell called Th17 from its typical protective role into one that is disease-causing, and key in the development of multiple sclerosis (MS) and other inflammatory autoimmune disorders, a study reports. These findings suggest that Satb1 may be a therapeutic target for autoimmune diseases like MS. The research article, “Satb1 regulates the effector program of encephalitogenic tissue Th17 cells in chronic inflammation,” was published in the journal Nature Communications. Immune cells called T-helper 17 (Th17) cells play a range of roles in immunity, including protecting against infecting pathogens — bacteria, viruses, and other microorganisms that can cause disease. But Th17 cells are also players in the development of such autoimmune diseases as MS, psoriasis, inflammatory bowel disease, and rheumatoid arthritis. This is because Th17 cells can be stimulated to become T-cells that engage in pathogenic, or disease-causing, immune programs. How Th17 cells switch from their typical and helpful immunity role to that of a pathogenic actor has not been resolved, although it is thought critical to treating inflammatory autoimmune diseases. An international team led by researchers at Osaka University and Kyoto University, in Japan, tried to identify the mechanism behind the disease-causing program of Th17 cells. To do so, they built upon previous findings showing that a protein regulator called Satb1 is important in the development of Th17 cell subsets. "We have known for some time that Satb1 is indispensable for the development of T-cells in the thymus. However, how it is involved in the regulation of pathogenic processes of Th17 cells in inflamed tissues had not been examined," Keiko Yasuda, MD, the study's lead author, said in a press release. Researchers used a standard mouse model of MS, called experimental autoimmune encephalomyelitis (EAE) mice. These animals had genetically-modified Th17 cells that lacked Satb1. Researchers tested how Th17 cells lacking Satb1 acted when subject to inflammatory conditions, and how they were stimulated to activate a "pathogenic effector program." Interestingly, these modified mice were resistant to the development of EAE, or MS-like, disease. Researchers saw fewer Th17 cells infiltrating the animals' spinal cord. Also, Th17 cells lacking Satb1 showed poorer production of key pathogenic signaling molecules in autoimmunity, notably one called granulocyte-macrophage colony-stimulating factor (GM-CSF). GM-CSF is known to cause localized tissue inflammation in MS and other inflammatory autoimmune diseases. Researchers went on to show that Satb1 can act as a switch between benign and pathogenic Th17 cells, depending on their exposure to healthy or inflammatory conditions. They found molecules that boost the pathogenicity of Th17 cells, such as Bhlhe40, and molecules that promote normal immune function, such as PD-1.  Of note, PD-1 is shut down when Th17 cells engage in their pathogenic effector program. These results showed Satb1 to be a key regulator of Th17 cell pathogenicity in these MS mice. Halting Th17 cells from making Satb1 may offer a way of treatting various autoimmune diseases. “Together, our findings, in addition to providing novel insights into the molecular mechanisms underlying the pathogenic program of tissue Th17 cells in mice, may help design novel immunotherapeutic approaches such as small molecule modifiers of Satb1 for the treatment of autoimmune diseases,” the researchers wrote. Future studies are needed to confirm these results in people. A previous study in people also suggested a link between Satb1 and the pathogenic function of Th17 cells in the central nervous system of MS patients. Overall, "our results suggest that manipulating Satb1 gene expression in Th17 cells could form the basis of novel treatments for various autoimmune diseases caused by Th17 cells. If we can prevent the pathogenic processes of Th17 cells, we may be able to alleviate or even eliminate disease symptoms," concluded Shimon Sakaguchi, PhD, one of the study's senior authors.