- Pedestrian killed during traffic collision on I-55 (10/23/16)5
- Scott County Sheriff Rick Walter faces challenge from criminal investigator Wes Drury (10/21/16)8
- Shooting injures two people in Cape early Tuesday (10/19/16)34
- 18-year-old killed in one-car crash Thursday morning (10/21/16)1
- Man arrested after dispute at school spurs brief lockdown (10/21/16)6
- 'I feel for them' (10/20/16)1
- Perry County: A great place to find home away from home (10/14/16)
- Tours provide a glimpse of Cape Girardeau's supposedly haunted past (10/17/16)1
- Crews are working on the new Drury Hotel (10/21/16)3
- Benton man accused of statutory rape, selling pot (10/20/16)1
Common antibiotic slows Gehrig's disease in mice
An ordinary antibiotic slowed the progression of Lou Gehrig's disease in mice, suggesting a potential new approach for treating people, researchers report.
The disease, formally known as amyotrophic lateral sclerosis or ALS, attacks nerve cells that control movement. As these cells degenerate, an affected person becomes progressively paralyzed. Most cases appear between the ages of 40 and 70, and death follows an average of four years after symptoms appear.
The antibiotic, minocycline, was shown recently to prolong the lives of mice with a version of Huntington's disease, another neurodegenerative disorder. It is now being tested against Huntington's in people.
Minocycline has been used as an antibiotic for 30 years in people and has a good track record for safety, even when taken for long periods, said Dr. Robert Friedlander of Brigham and Women's Hospital in Boston, senior author of the new study.
The work is reported in the May 2 issue of the journal Nature. Researchers studied mice with a version of ALS created by genetic mutations.
Daily injections of minocycline delayed appearance of the disease and prolonged life. Treated mice lived about 137 days, compared to 126 days for untreated mice.
The drug's effect has nothing to do with its antibiotic ability. Rather, researchers found that minocycline treatment reduces production of a protein within nerve cells that can lead to cell death.