Gyula Acsadi is an expert in three of the world’s most
expensive rare illnesses to treat: Duchenne muscular dystrophy (DMD), spinal
muscular atrophy (SMA), and Pompe disease.
Acsadi, head of neurology and rehabilitation at Connecticut
Children’s Medical Center in Hartford, said he’s convinced that new therapies
for these inherited neuromuscular disorders are already paying off.
“The last year or so was an amazing year to treat rare
diseases,” he said. “We got approval for two important drugs for SMA and
Duchenne. These drugs are hugely expensive, but they are effective.”
Acsadi, speaking Feb. 28 at Connecticut Rare Disease Day in
Hartford, was referring to the U.S. Food and Drug Administration’s September
2016 approval of Exondys 51 (eteplirsen) to treat the 13 percent of DMD
children who have a confirmed mutation of the dystrophin gene amenable to exon
51 skipping, and the agency’s December 2016 approval of the injectable therapy
Spinraza (nusinersen) for SMA.
While Exondys 51’s manufacturer, Sarepta Therapeutics, says
the treatment costs $300,000 per year per child — based on a child’s weight —
the actual price can be much higher, rising to an average of $750,000 each,
according to an independent analysis cited by The New York Times.
Likewise, Biogen’s Spinraza costs $750,000 for the first
year of treatment, falling to $375,000 in subsequent years for the rest of a
patient’s life. And an enzyme replacement therapy for Pompe, which President
Donald Trump specifically praised in his Feb. 28 State of the Union address,
costs $300,000 a year.
Among the SMA children Acsadi treats are a brother and
sister, both of whom have SMA type 2. He said that before going on Spinraza,
the boy, 7, “was in and out of hospitals,” but since then, he has not been
hospitalized even once.
“His little sister, who was diagnosed at birth, started
getting the medication at four months of age,” Acsadi told BioNews Services,
publisher of this website, on the sidelines of the Rare Disease Day conference.
“Now she’s 1 year old and able to stand and start walking, which was impossible
to imagine.”
Connecticut is home to 40 to 70 SMA patients, says Dr. Gyula
Acsadi.
By coincidence, Acsadi’s presentation came the day before
Minnesota’s Department of Health formally began universal screening of all
newborn babies for SMA — the leading genetic cause of early childhood death in
the United States. Minnesota, home to the Mayo Clinic, already has one of the
nation’s most comprehensive newborn screening programs.
With the March 1 addition of SMA, Minnesota now screens for
61 conditions — including all those on the U.S. Secretary of Health and Human
Services’ recommended uniform screening panel. That makes Minnesota only the
second state in the nation, after Missouri, to screen newborns for SMA.
Missouri began its own SMA screening program in July 2017.
Acsadi and other advocates at the Hartford event urged
Connecticut lawmakers to approve a similar program.
“Nationwide, only two states have approved neonatal
screening for SMA,” Acsadi said. “The reason so far, is that there was no
treatment, so people were reluctant to screen for something you cannot treat.
But now there’s an effective treatment, so it’s time to screen for this disease.”
He added: “This new treatment works best when you start it
shortly after birth, even before symptoms develop. By the time the disease
manifests itself, the patient has already lost a whole bunch of motor neurons.”…
“I think it’s exciting that the gene causing SMA was
discovered in 1995, and that it took some 20 years, but now the research has
brought an effective treatment for SMA,” he said. “This is similar to Duchenne,
whose gene was discovered in 1987. And now, after 30 years, we finally have an
FDA-approved treatment for some forms of Duchenne.”…
“People may get tired just hearing about these diseases —
but now we can give them hope that treatments are coming up for these rare
disorders,” Acsadi told us. “I think the Orphan Drug Act definitely helped to
promote research and development, as well as fast-tracking clinical trials in
these disorders. Over the last four or five years, the speed of getting things
into clinical trials has really improved, and genetic engineering is expanding
very quickly.”
Gyula Acsadi is an expert in three of the world’s most
expensive rare illnesses to treat: Duchenne muscular dystrophy (DMD), spinal
muscular atrophy (SMA), and Pompe disease.
Acsadi, head of neurology and rehabilitation at Connecticut
Children’s Medical Center in Hartford, said he’s convinced that new therapies
for these inherited neuromuscular disorders are already paying off.
“The last year or so was an amazing year to treat rare
diseases,” he said. “We got approval for two important drugs for SMA and
Duchenne. These drugs are hugely expensive, but they are effective.”
Acsadi, speaking Feb. 28 at Connecticut Rare Disease Day in
Hartford, was referring to the U.S. Food and Drug Administration’s September
2016 approval of Exondys 51 (eteplirsen) to treat the 13 percent of DMD
children who have a confirmed mutation of the dystrophin gene amenable to exon
51 skipping, and the agency’s December 2016 approval of the injectable therapy
Spinraza (nusinersen) for SMA.
While Exondys 51’s manufacturer, Sarepta Therapeutics, says
the treatment costs $300,000 per year per child — based on a child’s weight —
the actual price can be much higher, rising to an average of $750,000 each,
according to an independent analysis cited by The New York Times.
Likewise, Biogen’s Spinraza costs $750,000 for the first
year of treatment, falling to $375,000 in subsequent years for the rest of a
patient’s life. And an enzyme replacement therapy for Pompe, which President
Donald Trump specifically praised in his Feb. 28 State of the Union address,
costs $300,000 a year.
Among the SMA children Acsadi treats are a brother and
sister, both of whom have SMA type 2. He said that before going on Spinraza,
the boy, 7, “was in and out of hospitals,” but since then, he has not been
hospitalized even once.
“His little sister, who was diagnosed at birth, started
getting the medication at four months of age,” Acsadi told BioNews Services,
publisher of this website, on the sidelines of the Rare Disease Day conference.
“Now she’s 1 year old and able to stand and start walking, which was impossible
to imagine.”
Connecticut is home to 40 to 70 SMA patients, says Dr. Gyula
Acsadi.
By coincidence, Acsadi’s presentation came the day before
Minnesota’s Department of Health formally began universal screening of all
newborn babies for SMA — the leading genetic cause of early childhood death in
the United States. Minnesota, home to the Mayo Clinic, already has one of the
nation’s most comprehensive newborn screening programs.
With the March 1 addition of SMA, Minnesota now screens for
61 conditions — including all those on the U.S. Secretary of Health and Human
Services’ recommended uniform screening panel. That makes Minnesota only the
second state in the nation, after Missouri, to screen newborns for SMA.
Missouri began its own SMA screening program in July 2017.
Acsadi and other advocates at the Hartford event urged
Connecticut lawmakers to approve a similar program.
“Nationwide, only two states have approved neonatal
screening for SMA,” Acsadi said. “The reason so far, is that there was no
treatment, so people were reluctant to screen for something you cannot treat.
But now there’s an effective treatment, so it’s time to screen for this disease.”
He added: “This new treatment works best when you start it
shortly after birth, even before symptoms develop. By the time the disease
manifests itself, the patient has already lost a whole bunch of motor neurons.”…
“I think it’s exciting that the gene causing SMA was
discovered in 1995, and that it took some 20 years, but now the research has
brought an effective treatment for SMA,” he said. “This is similar to Duchenne,
whose gene was discovered in 1987. And now, after 30 years, we finally have an
FDA-approved treatment for some forms of Duchenne.”…
“People may get tired just hearing about these diseases —
but now we can give them hope that treatments are coming up for these rare
disorders,” Acsadi told us. “I think the Orphan Drug Act definitely helped to
promote research and development, as well as fast-tracking clinical trials in
these disorders. Over the last four or five years, the speed of getting things
into clinical trials has really improved, and genetic engineering is expanding
very quickly.”
https://musculardystrophynews.com/2018/04/04/connecticut-neurologist-upbeat-on-new-therapies-for-dmd-other-disorders/
See: http://childnervoussystem.blogspot.com/2018/03/nusinersen-story.html
http://childnervoussystem.blogspot.com/2018/02/neonatal-screening-for-sma.html
http://childnervoussystem.blogspot.com/2017/01/nusinersen-for-spinal-muscular-atrophy-2.html
http://childnervoussystem.blogspot.com/2016/11/nusinersen-for-spinal-muscular-atrophy.html
http://childnervoussystem.blogspot.com/2016/09/eteplirsen-revisited.html
http://childnervoussystem.blogspot.com/2016/04/eteplirsen-for-duchenne-muscular.html
http://childnervoussystem.blogspot.com/2015/11/treatment-prospects-for-duchenne.html
See: http://childnervoussystem.blogspot.com/2018/03/nusinersen-story.html
http://childnervoussystem.blogspot.com/2018/02/neonatal-screening-for-sma.html
http://childnervoussystem.blogspot.com/2017/01/nusinersen-for-spinal-muscular-atrophy-2.html
http://childnervoussystem.blogspot.com/2016/11/nusinersen-for-spinal-muscular-atrophy.html
http://childnervoussystem.blogspot.com/2016/09/eteplirsen-revisited.html
http://childnervoussystem.blogspot.com/2016/04/eteplirsen-for-duchenne-muscular.html
http://childnervoussystem.blogspot.com/2015/11/treatment-prospects-for-duchenne.html
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