AIRLINK 74.50 Decreased By ▼ -2.48 (-3.22%)
BOP 4.73 Decreased By ▼ -0.14 (-2.87%)
CNERGY 4.14 Decreased By ▼ -0.08 (-1.9%)
DFML 39.35 Decreased By ▼ -2.44 (-5.84%)
DGKC 84.90 Increased By ▲ 0.17 (0.2%)
FCCL 21.90 Decreased By ▼ -0.49 (-2.19%)
FFBL 30.21 Decreased By ▼ -1.24 (-3.94%)
FFL 9.25 Decreased By ▼ -0.10 (-1.07%)
GGL 10.40 Increased By ▲ 0.24 (2.36%)
HASCOL 6.33 Decreased By ▼ -0.08 (-1.25%)
HBL 108.25 Decreased By ▼ -0.35 (-0.32%)
HUBC 140.25 Decreased By ▼ -0.24 (-0.17%)
HUMNL 10.30 Decreased By ▼ -0.22 (-2.09%)
KEL 4.80 Decreased By ▼ -0.05 (-1.03%)
KOSM 4.42 Increased By ▲ 0.19 (4.49%)
MLCF 37.50 Decreased By ▼ -0.19 (-0.5%)
OGDC 124.64 Decreased By ▼ -2.00 (-1.58%)
PAEL 24.44 Decreased By ▼ -0.59 (-2.36%)
PIBTL 6.20 Decreased By ▼ -0.06 (-0.96%)
PPL 116.40 Increased By ▲ 0.11 (0.09%)
PRL 24.60 Decreased By ▼ -1.14 (-4.43%)
PTC 13.13 Decreased By ▼ -0.47 (-3.46%)
SEARL 55.99 Decreased By ▼ -0.60 (-1.06%)
SNGP 62.98 Decreased By ▼ -0.22 (-0.35%)
SSGC 9.87 Decreased By ▼ -0.11 (-1.1%)
TELE 7.99 Decreased By ▼ -0.01 (-0.13%)
TPLP 9.93 Decreased By ▼ -0.21 (-2.07%)
TRG 64.50 Decreased By ▼ -1.52 (-2.3%)
UNITY 26.66 Decreased By ▼ -0.17 (-0.63%)
WTL 1.32 Decreased By ▼ -0.01 (-0.75%)
BR100 7,718 Decreased By -55.6 (-0.72%)
BR30 24,778 Decreased By -185.7 (-0.74%)
KSE100 73,863 Decreased By -356.5 (-0.48%)
KSE30 23,691 Decreased By -88.1 (-0.37%)

Researchers have succeeded for the first time in reversing a degenerative illness in mice, using a revolutionary gene-editing technique that one day may help cure similar diseases in humans.
Three studies published on December 31 in the journal Science said researchers employed a technique known as CRISPR - clustered regularly interspaced short palindromic repeats - to cure an adult mouse model suffering Duchenne muscular dystrophy, a disorder that affects one in every 5,000 baby boys.
"This marks the first time that CRISPR has successfully treated a genetic disease inside a fully developed living mammal with a strategy that has the potential to be translated to human therapy," researchers said. Duchenne muscular dystrophy causes progressive weakness because of genetic mutations that interfere with the production of dystrophin, a protein needed to form healthy muscle.
The novel gene-editing technique fixes mutations that cause genetic diseases by making precise changes to the DNA of the ailing subject, using non-pathogenic viruses as delivery vehicles for the modified genes.
Charles Gersbach, associate professor of biomedical engineering at Duke University and the leading scientist on one of the studies, recently began focusing on CRISPR/Cas9 - a modified version of a bacterial defence system that targets and slices apart the DNA of familiar invading viruses.
After refining the technique, Gersbach and his team first delivered the therapy directly to a leg muscle in an adult mouse, resulting in an increase in muscle strength as well as some correction of muscles throughout the body, including in the heart.
"There is still a significant amount of work to do to translate this to a human therapy and demonstrate safety," Gersbach cautioned. "But these results coming from our first experiments are very exciting."

Copyright Agence France-Presse, 2016

Comments

Comments are closed.