Terminal cancer patients in complete remission after one gene therapy treatment – Telegraph.co.uk

"The numbers are fantastic," said Dr Fred Locke, a blood cancer expert at Moffitt Cancer Center in Tampa who co-led the study.

"These are heavily treated patients who have no other options."

The treatment, which has been dubbed 'a living drug' by doctors, works by filtering a patient's blood to remove key immune system cells called T-cells, which are then genetically engineered in the lab to recognise cancer cells.

Cancer cells are very good a evading the immune system, but the new therapy essentially cuts the brakes, allowing immune cells to do their job properly.

Martin Ledwick, Cancer Research UKs head cancer information nurse, said: These results are promising and suggest that one day CAR-T cells could become a treatment option for some patients with certain types of lymphoma.

"But, we need to know more about the side effects of the treatment and long term benefits.

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Terminal cancer patients in complete remission after one gene therapy treatment - Telegraph.co.uk

Possible U | Abeona Therapeutics using gene therapy to see the … – WKYC-TV

Local company trying to save lives of those fighting rare disease

Monica Robins, WKYC 7:08 PM. EST March 03, 2017

(Photo: Monica Robins, WKYC)

CLEVELAND - Earlier this week, AbeonaTherapeutics, a local biotech company, rang the closing bell on the stock market.

Tuesday was Rare Disease Awareness Day and the company was chosen because of its work. They are giving hope to families fighting diseases that have no treatments or cures.

Inside Abeona Therapeutics, scientists don't have to look far for inspiration. They just have to look on the wall, especially in a little corner of the office meant for visiting kids with a deadly rare disease called Sanfilippo.

"They are usually diagnosed between the ages of two and six and that leads to profound neurological and neuromuscular deficits," according to Abeona Theraputics President and CEO Dr. Timothy Miller. "70 percent don't live to 18."

They're working on gene therapy, using a virus to deliver the correct DNA into each cell with a simple injection.

"We are the only trial in the world right now enrolling patients in this type of disease category," says Dr. Miller.

There are 7,000 rare diseases of which 95% have no treatment or cure. While Sanfilippo is their main focus, the science could one day be a breakthrough.

"Gene therapy is all about delivery and trying to demonstrate that these are actual ways to treat some of these diseases, " explains Dr. Miller. "These will be applicable to many other diseases."

And business is booming. Abeonais looking for more employees to fill these desks. And they just look out their window for possible expansion sites to house a 20,000 square foot manufacturing facility.

Says Dr. Miller, "We're helping people see the possible by bringing jobs to Northeast Ohio, and bringing science into clinical projects. We're hoping to be one of the first gene therapy products in the world."

When Abeona went public in 2015, the company grew 500%. This year, they're looking to expand and have openings for highly skilled people with advanced degrees in biology or chemistry for medical manufacturing positions, clinic trial operations, and program management.

They often recruit from across the country so they're helping Northeast Ohio experience the brain gain.

( 2017 WKYC)

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Possible U | Abeona Therapeutics using gene therapy to see the ... - WKYC-TV

Icahn hires on gene therapy legendand big biotech disruptor … – Endpoints News

Richard Mulligan

Back in 2010, when Carl Icahn was spooking Henri Termeer and the management of Genzyme, the heavyweight activist investor sent over a list of hand-picked names for new board members that could help shake things up at the company at the time it was grappling with some severe manufacturing problems.

One of those names: Richard Mulligan, a legend in the gene therapy field whose Harvard lab in the 80s included pioneers like James Wilson and Olivier Danos. Mulligan and another of Icahns favorites at the time, Alex Denner, had already vaulted on to the board at Biogen in 2009 to push for changes at the top. And they got it, bringing in George Scangos in a management coup in 2010.

Sanofi wound up buying Genzyme for $20 billion in 2011.

Now, Mulligan, a professor emeritus at Harvard and visiting scientist at MIT, is going to work for Icahn full time as a portfolio manager, with a special focus on biotech.Technically, hes working at Icahn Capital, a subsidiary of Icahn Enterprises $IEP, after joining Denner at Sarissa for the past three years.

Now cue the rampant speculation.

Icahn has sent a shock wave through Bristol-Myers Squibb, arriving to take a piece of equity just as rumors were taking hold that the big biotech damaged by a series of setbacks on Opdivo was ripe for a megamerger. Now that one of Icahns favorite disruptors has come on board full time, could a proxy fight over the board and future direction at Bristol-Myers Squibb be far behind?

I dont know, but who can resist talking about it?

In the meantime, look for Icahn to start making waves in biotech again as Mulligan spearheads new plays in the field.

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Icahn hires on gene therapy legendand big biotech disruptor ... - Endpoints News

Sickle cell anemia patient ‘cured’ by gene therapy, doctors say – CNN

"Since therapy was applied, he hasn't had any pain, any complications. He is free of any transfusions. He plays sports and goes to school," said Dr. Philippe Leboulch, an author of the new research and a professor of medicine at the University of Paris. "So we are quite pleased with the results."

This success provides proof of concept for human patients, Leboulch said.

According to Dr. Marina Cavazzana, senior author of the study and head of the biotherapy department at Necker, "all the biological tests we perform lead us to think he is cured." Yet, she added, the answer to the question of whether he is truly cured "can be provided only by the longer follow-up."

Still, hopes are running high that patients with this very devastating disease can receive this therapy "in the next five years," Cavazzana said. "This is our hope, and we work very hard to attain it."

Worldwide, more than 275,000 infants are born with sickle cell disease each year. In the United States, approximately 100,000 people, most of African ancestry or identifying as black, currently have it. About one in every 365 black children in the US is born with sickle cell disease, for which the life expectancy is now about 40 to 60 years.

Sickle cell disease is one of the most common gene disorders in the world, explained Leboulch. A genetic mutation causes hemoglobin, the main constituent of red blood cells, to distort the shape of the cell, and this causes the blood to aggregate or clog.

This leads to "tremendous pain, anemia and also lesions of organs that ultimately result in shortness of life expectancy," Leboulch said. "So what we did here was, we tried to inhibit the process of aggregation."

Essentially, researchers extracted bone marrow from the patient, harvested the stem cells and altered the genetic instructions so that they would make normal hemoglobin. Next, they treated the patient with chemotherapy for four days to eliminate his diseased stem cells. Finally, they returned the treated stem cells via an IV into his bloodstream.

"At that point, the new cells that were modified outside the body started to make new blood cells, and we hope this will be stable for the life of the patient," Leboulch said.

Before receiving treatment, the teen had terrible pain and needed blood transfusions, which required twice-yearly hospitalizations, Leboulch explained. His many complications included necrosis of the hip, which necessitated hip replacement surgery.

Going forward, the plan is to proceed through clinical trials and, if results are promising, make the treatment available to patients. Leboulch and his colleagues are using the same genetic therapy to treat a similar disease called thalassemia, another inherited blood disorder in which patients have less hemoglobin and fewer red blood cells than normal. Severe forms require regular blood transfusions.

Leboulch and his colleagues have global phase 2 and phase 3 trials for the thalassemia treatment underway in France, the US, Australia and Thailand.

For sickle cell disease, a companion trial in the US is underway. "I understand that seven (sickle cell) patients have been treated already. Of course, the outcome is much shorter, and we don't have the results just yet, but it's coming along," Leboulch said.

"To apply this to a baby or a very young child should be at least as effective or more," he said. "Doing it with older patients, who have had years of complications, could be more challenging."

According to Dr. Alexis Thompson, president-elect of the American Society of Hematology, the majority of sickle cell disease patients do not have a sibling who would be an appropriate match for bone marrow donation.

"Gene therapy holds promise because a patient serves as his own donor," and the "risks are much reduced" since there's no possibility of a mismatch, said Thompson, who was not involved in this research but is an investigator on a related gene therapy study.

"I think this is a really very exciting advancement," she said, adding that if the results seen in France can be duplicated, this would provide "for a new direction for patients who need a curative option."

"Gene therapy offers hope for all patients with sickle cell disease, regardless of whether they have a bone marrow match or not," Wong wrote in an email.

"Time is still needed" to assess the success of this treatment and the possibility of later side effects, said Wong. "But any patient with severe sickle cell disease will tell you that being able to live a life for even a year without medications or fear of pain or hospitalization is substantial."

Leboulch also feels very hopeful.

"Now, we want to be cautious, of course, and we don't want to say that this is the cure for tomorrow or the next day for everybody," he said. "At the same time, what we've observed is really convincing, and we just hope that we can move this along to make it available to patients."

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Sickle cell anemia patient 'cured' by gene therapy, doctors say - CNN

Gene Therapy Shows Promise for Aggressive Lymphoma – WebMD

By Margaret Farley Steele

HealthDay Reporter

TUESDAY, Feb. 28, 2017 (HealthDay News) -- An experimental gene therapy for aggressive non-Hodgkin lymphoma beat back more than a third of cancers that seemed untreatable, the therapy's developers report.

Thirty-six percent of over 100 very ill lymphoma patients appeared disease-free six months after a single treatment, according to results released by the treatment's maker, Kite Pharma of Santa Monica, Calif.

These patients had not responded to usual treatments and had no other options, Kite said Tuesday in a news release.

Overall, more than four out of five patients with the blood cancer saw their cancer reduced by more than half for at least part of the study, the company said.

"This seems extraordinary ... extremely encouraging," one cancer specialist, Dr. Roy Herbst, told the Associated Press.

But Herbst, who is chief of medical oncology at Yale Cancer Center in New Haven, Conn., said longer follow-up is needed to see if the benefit continues.

Still, he said, "This certainly is something I would want to have available." Side effects, which had been a concern, seemed manageable in this study, he said.

The therapy -- called CAR-T cell therapy -- enables the patient's own blood cells to kill the cancer cells.

Lymphoma is a general term for cancers that begin in the lymph system. The lymph system is part of the immune system, which helps the body fight disease.

Here's how the treatment works: A patient's blood is filtered so immune cells called T-cells can be altered to contain a cancer-fighting gene. The cells are returned to the patient intravenously, and the cancer-targeting cells then multiply in the patient's body.

The U.S. National Cancer Institute developed the gene approach and licensed it to Kite. Now, Kite and another pharmaceutical giant, Novartis AG, are competing to gain approval of the treatment, according to the AP.

Kite reportedly intends to seek U.S. Food and Drug Administration approval this spring and approval in Europe later this year. It could be the first gene therapy approved in the United States, the news report noted.

Although the therapy appears to benefit a significant number of patients, it is not risk-free. Researchers believe two patients died of treatment-related causes, the AP reported.

Other side effects included anemia or other blood problems that were treated, and neurological problems such as sleepiness, confusion, tremor or difficulty speaking, which typically lasted only a few days, the wire service reported.

Overall, however, the therapy seems safe, according to Dr. Steven Rosenberg, chief of surgery branch at the National Cancer Institute. He was not involved with the study.

"It's a safe treatment, certainly a lot safer than having progressive lymphoma," Rosenberg told the AP. He said he has a patient who was treated this way who is still in remission seven years later.

The cost of such treatment hasn't been reported yet, but immune system therapies tend to be very expensive.

The results are scheduled for presentation at the American Association for Cancer Research conference in April. Until published in a peer-reviewed medical journal, the data and conclusions should be considered preliminary.

WebMD News from HealthDay

SOURCES: Associated Press, Feb. 28, 2017; Kite Pharma Inc., news release, Feb. 28, 2017

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Gene Therapy Shows Promise for Aggressive Lymphoma - WebMD

Gene therapy offers hope for newborns with severe immune disorder – University of California

Infants born with a type of the devastating immune disorder SCID, or bubble boy disease, may have the option of a novel gene therapy treatment, thanks to a clinical trial atUCSF Benioff Childrens Hospital San Francisco.

The trial is funded by a five-year, $11.9-million grant from theCalifornia Institute for Regenerative Medicine (CIRM)to test technology developed by St. Jude Childrens Research Hospital that delivers a functional gene into the patients blood-producing stem cells. If successful, the gene therapy could provide an alternative to stem cell transplants using donor cells, which can result in serious infection.

The trial expects to treat up to 15 children over the next five years and is open to patients with X-linked severe combined immunodeficiency disease (X-linked SCID), which affects only males. This is the most common form of SCID, which occurs in 1 in every 60,000 newborns, and is caused by defects in the functioning of lymphocytes the white blood cells that are the advanced fighting forces of the immune system. Babies born with SCID appear normal at birth but become sick from infections, skin rashes and failure to gain weight at 3-to-6 months of age. Without a stem cell transplant, they may die before their first birthday.

What is unique about this trial is that the patients own bone marrow stem cells are collected and corrected with the gene therapy, and the corrected cells are then reinfused into the patient, saidMorton Cowan, M.D., of theUCSF Division of Allergy, Immunology, and Blood and Marrow Transplant, and principal investigator of the trial at UCSF.

In stem cell transplants from a donor other than the patient, up to 20 percent of patients with SCID will develop graft-versus-host disease, in which the donor cells attack the recipients tissues. In addition, there is always a risk of the recipient rejecting the donor cells, Cowan said. Using the patients own stem cells means no rejection and no graft-versus-host disease.

The bone marrow transplant program at UCSF is among the largest SCID transplant centers in North America. UCSF pediatric immunologistJennifer Puck, M.D., is known for pioneering the SCID screening method and for nominating SCID to a federal advisory committee for inclusion in the newborn screening panel. Since the screen became available in California in 2010, UCSF has treated more than 30 infants diagnosed with SCID by newborn screening.

UCSF also played an instrumental role in the St. Jude treatment protocol by including a targeted chemotherapy agent, busulfan, along with the gene therapy, which is expected to optimize immune correction. While previous trials have tested gene therapy for this condition, they did not combine it with chemotherapy and had only partial immune correction. Since a low dose of the medication is used, short- and long-term effects are expected to be minimized.

Three patients already have been treated with this lentiviral gene therapy vector two at St. Jude and one at UCSF. The transduction process, in which genetic material is transferred via vector, currently takes place at St. Jude, which freezes the transduced cells and returns them to UCSF for infusion into the patient. The CIRM funding will enable UCSF to begin doing transductions using the St. Jude vector at theUCSF Pediatric Cell Therapy Laboratory, as well as covering the cost of treating patients in the trial.

We believe this trial will not only help us understand more about how lentiviral gene therapy works, but how the use of low-dose busulfan potentially will be effective in treating other non-malignant diseases like sickle-cell anemia, chronic granulomatous disease, marrow failure syndromes and even some cancers in which the patient is too ill to undergo the more toxic traditional treatments, said Cowan.

It will also give us a better idea of what toxicities may be associated with the use of these new vectors, in particular whether they are indeed safer than the older, gamma-retroviral vectors that were associated with a high risk of leukemia, seen in early gene therapy trials for X-linked SCID and other primary immune deficiencies.

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Gene therapy offers hope for newborns with severe immune disorder - University of California

In world-first breakthrough, French doctors use gene therapy to treat rare blood disease – RFI

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In world-first breakthrough, French doctors use gene therapy to treat rare blood disease - RFI

Bluebird’s star gene therapy patient still doing well after 15 months-plus; Takeda, Arix partner on biotech startups – Endpoints News

Every biotech enjoys a good success story, and bluebird bio $BLUE got their writeup in the New England Journal of Medicine. Patient 1204 in bluebirds program for LentiGlobin gene therapy program has had more than 15 months of followup, and his physicians say that the teenager has been free of the painful symptoms of sickle cell disease, able to lead a normal life and stop painful transfusions. Thats all a positive, but bluebirds gene therapy has also proven to be somewhat variable among patients. One success story does not make for a successful therapy, but its still a plus.

Right on the heels of raising 100 million in an IPO, the UKs Arix has struck a deal to partner with Takeda in fostering new biotech startups. The Japanese company has been scaling way back on R&D in the country as Takeda revamps its approach to drug development.

You make hay while the sun shines, and you sell stock right after good data arrives. So its not a big surprise to see Kite line up a sale of 4.75 million shares at $75.00. Its stock $KITE, buoyed by recent 6-month data on its lead CAR-T, is down 5% in morning trading.

The UKs Adaptimmune has opened up its US headquarters in Philadelphias Navy Yard. The cancer company has 92 staffers in the area and plans to boost that figure to 120. Adaptimmune is closely tied to GSK, which also has extensive R&D operations in the area.

News reports for those who discover, develop, and market drugs. Join 13,500+ biopharma pros who read Endpoints News articles by email every day. Free subscription.

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Bluebird's star gene therapy patient still doing well after 15 months-plus; Takeda, Arix partner on biotech startups - Endpoints News

Gene therapy ‘cures’ boy of blood disease that affects millions – New Scientist

Many rely on blood transfusions

Joe Amon/The Denver Post via Getty

By Andy Coghlan

A TEENAGE boy with an inherited disease that affects millions worldwide seems to have been cured using gene therapy. The treatment appears to have stopped the painful symptoms of sickle cell disease, demonstrating the potential for gene therapy to treat common genetic diseases.

All the blood tests we performed show that the teenager has been cured of sickle cell disease

The idea of gene therapy using strands of DNA to compensate for a persons malfunctioning genes is almost three decades old. However, the approach has so far mostly been used to treat very rare diseases (see Long road to success). In contrast, sickle cell disease affects 100,000 people in the US alone. If the treatment proves successful in larger trials, it could bring gene therapy into widespread use.

It could be a game changer, says Deborah Gill at the University of Oxford. The fact the team has a patient with real clinical benefit, and biological markers to prove it, is a very big deal.

People with sickle cell disease make abnormal versions of haemoglobin, the blood protein that carries oxygen around the body. This can be caused by mutations in the gene that makes a subunit of haemoglobin, called beta-globin. The mutations cause haemoglobin to clump together, distorting red blood cells into a sickle-shape that can get stuck in blood vessels around the body.

People with the disorder are given blood transfusions to clear these painful blockages and prevent new ones. Bone marrow transplants can treat the disease, but matching donors can only be found for around 10 per cent of people with the condition.

Now a team in France seems to have developed a treatment that would work for everyone with the disorder. First, the team took bone marrow stem cells from the boy when he was 13, and gave them extra, mutated versions of the gene that codes for beta-globin. These were designed to make beta-globin that would interfere with the boys faulty proteins, stopping them from clumping together.

The researchers then put these stem cells back into the boys body. After around three months, he began producing large quantities of haemoglobin that behaves normally (New England Journal of Medicine, DOI: 10.1056/NEJMoa1609677). The patient is now 15 years old and free of all previous medication, says Marina Cavazzana at the Necker Childrens Hospital in Paris, who led the team. He has been free of pain from blood vessel blockages, and has given up taking opioid painkillers.

Cavazzana is confident these benefits will last. All the tests we performed on his blood show that hes been cured, but more certainty can only come from long-term follow-up. She says her team has treated seven other patients, who are showing promising progress.

We are all very excited by the work, and this success provides support for this and other genetic strategies targeting this horrible disease, says John Tisdale at the US National Heart, Lung, and Blood Institute in Maryland.

David Williams, at Boston Childrens Hospital in Massachusetts, suggests that the boy may still occasionally experience blockages, because his own original genes are still able to produce faulty haemoglobin. Its important to see what happens over time, and how many other patients see similar benefits.

However, should the gene therapy prove to be effective in larger trials, its expense may limit its use to richer nations. We should be realistic in remembering that there are hundreds of thousands of sickle cell patients in less developed countries, and that the therapy is not easily exportable or adaptable to countries with less well-developed health systems, says Stuart Orkin at Harvard Medical School.

Twenty years ago, gene therapy was touted as a cure for everything from cancer to cystic fibrosis. Now it is finally starting to fulfil its promise.

In 2012, Glybera became the first gene therapy to be approved, for people with a rare disorder that makes them unable to process dietary fat. Last year, the first commercial gene therapy that alters a persons DNA was approved for children with a severe immune disorder. Gene therapies for rare forms of blindness are also showing promise.

But these conditions all affect very small numbers of people. Research into sickle cell disease (see main story), beta thalassaemia, haemophilia and cystic fibrosis mean gene therapy may not be too far from becoming mainstream medicine for the most common genetic diseases.

This article appeared in print under the headline Gene therapy breakthrough

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Gene therapy 'cures' boy of blood disease that affects millions - New Scientist

Gene therapy product shows early promise in sickle cell disease – Healio

A 13-year-old boy with sickle cell disease showed no signs of the disease and resumed normal activities 15 months after an infusion of LentiGlobin BB305, according to a study conducted in France and published in The New England Journal of Medicine.

Outcomes in this patient provide further supportive evidence to our previously reported results of patients who underwent a similar ex-vivo gene therapy procedure for beta thalassemia with the same BB305 vector or the previous HPV569 vector, Jean-Antoine Ribeil, MD, PhD, of the department of biotherapy at Necker Childrens Hospital in Paris, and colleagues wrote. In addition to the patient with sickle cell disease described here, under this same clinical protocol, four patients with transfusion-dependent beta thalassemia have received LentiGlobin BB305 [Bluebird Bio] and had no clinically significant complications and no longer require regular transfusions.

Approximately 90,000 people in the United States have sickle cell disease, and more than 275,000 infants worldwide are born with the disease each year.

Granted breakthrough therapy designation by the FDA in 2015, LentiGlobin BB305, is a self-inactivating lentiviral vector that encodes the human HBB variant BetaA-T87Q. This lentiviral vector mediates the addition of an antisickling beta-globin gene into autologous hematopoietic stem cells.

Ribeil and colleagues obtained bone marrow twice from the patient to collect sufficient stem cells for gene transfer and backup. Anemia was the only grade 3 adverse event reported during these procedures.

Researchers then transduced bone marrowenriched CD34positive cells with the LentiGlobin BB305 vector. The mean vector copy numbers for the two batches of transduced cells were 1 and 1.2 copies per cell.

The patient underwent myeloablation with IV busulfan (total busulfan area under the curve, 19,363 mol/minute). After a 2-day washout period, transduced CD34positive cells were infused and red-cell transfusions continued after transplantation until a large proportion of beta-globin chain of adult hemoglobin (HbA)T87Q was detected.

Neutrophil engraftment was achieved on day 38 after transplantation, and platelet engraftment was achieved on day 91 after transplantation. Within 3 months, gene markings in whole blood, CD15 cells, B cells and monocytes had stabilized. Researchers observed more gradual increases in levels of vector-bearing T cells.

HbAT87Q cells increased steadily to 5.5g/dL at month 9 and 5.7 g/dL at month 15 and red-cell transfusions were discontinued on day 88.

The patient was discharged on day 50. By more than 15 months after transplantation, no sickle cell diseaserelated clinical events or hospitalization had occurred, and all medications, including for pain management, were discontinued.

The patient experienced expected grade 3 to grade 4 adverse events of neutropenia, anemia, thrombocytopenia and infection with Staphylococcus epidermidis.

The patient reported full participation in normal academic and physical activities, Ribeil and colleagues wrote.

Researchers noted their finding were consistent with early results reported with 18 other patients with thalassemia who received LentiGlobin BB305 and that longer follow-up is required to confirm the efficacy, durability and safety observed in the study.

In an accompanying perspective, Keith Wailoo, PhD, Townsend Martin professor of history and public affairs at Woodrow Wilson School of Public and International Affairs in Princeton, New Jersey, wrote that findings on the benefits of crizanlizumab (SEG101, Novartis) and gene therapy represent new chapters in treating sickle cell disease.

Patients with sickle cell disease have come a long way from their clinical obscurity 100 years ago, Wailoo wrote. The search for a magic bullet continues, though most clinicians acknowledge that therapies wont cure the disease but merely enhance long-term management. by Chuck Gormley

Disclosure: Bluebird Bio funded the study. Ribeil reports personal fees from Bluebird Bio during the conduct of the study, grant support from AddMedica, and nonfinancial support from Novartis and Vitalaire outside the submitted work. The researchers report no relevant financial disclosures. Wailoo reports no relevant financial disclosures.

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Gene therapy product shows early promise in sickle cell disease - Healio

Gene Therapy Offers Hope for Newborns with Severe Immune Disorder – Bioscience Technology

Infants born with a type of the devastating immune disorder SCID, or bubble boy disease, may have the option of a novel gene therapy treatment, thanks to a clinical trial at UCSF Benioff Childrens Hospital San Francisco.

The trial is funded by a five-year, $11.9-million grant from the California Institute for Regenerative Medicine (CIRM) to test technology developed by St. Jude Childrens Research Hospital that delivers a functional gene into the patients blood-producing stem cells. If successful, the gene therapy could provide an alternative to stem cell transplants using donor cells, which can result in serious infection.

The trial expects to treat up to 15 children over the next five years and is open to patients with X-linked severe combined immunodeficiency disease (X-linked SCID), which affects only males. This is the most common form of SCID, which occurs in 1 in every 60,000 newborns, and is caused by defects in the functioning of lymphocytes the white blood cells that are the advanced fighting forces of the immune system. Babies born with SCID appear normal at birth but become sick from infections, skin rashes and failure to gain weight at 3-to-6 months of age. Without a stem cell transplant, they may die before their first birthday.

What is unique about this trial is that the patients own bone marrow stem cells are collected and corrected with the gene therapy, and the corrected cells are then reinfused into the patient, said Morton Cowan, M.D., of the UCSF Division of Allergy, Immunology, and Blood and Marrow Transplant, and principal investigator of the trial at UCSF.

In stem cell transplants from a donor other than the patient, up to 20 percent of patients with SCID will develop graft-versus-host disease, in which the donor cells attack the recipients tissues. In addition, there is always a risk of the recipient rejecting the donor cells, Cowan said. Using the patients own stem cells means no rejection and no graft-versus-host disease.

The bone marrow transplant program at UCSF is among the largest SCID transplant centers in North America. UCSF pediatric immunologist Jennifer Puck, M.D., is known for pioneering the SCID screening method and for nominating SCID to a federal advisory committee for inclusion in the newborn screening panel. Since the screen became available in California in 2010, UCSF has treated more than 30 infants diagnosed with SCID by newborn screening.

UCSF also played an instrumental role in the St. Jude treatment protocol by including a targeted chemotherapy agent, busulfan, along with the gene therapy, which is expected to optimize immune correction. While previous trials have tested gene therapy for this condition, they did not combine it with chemotherapy and had only partial immune correction. Since a low dose of the medication is used, short- and long-term effects are expected to be minimized.

Three patients already have been treated with this lentiviral gene therapy vector two at St. Jude and one at UCSF. The transduction process, in which genetic material is transferred via vector, currently takes place at St. Jude, which freezes the transduced cells and returns them to UCSF for infusion into the patient. The CIRM funding will enable UCSF to begin doing transductions using the St. Jude vector at the UCSF Pediatric Cell Therapy Laboratory, as well as covering the cost of treating patients in the trial.

We believe this trial will not only help us understand more about how lentiviral gene therapy works, but how the use of low-dose busulfan potentially will be effective in treating other non-malignant diseases like sickle-cell anemia, chronic granulomatous disease, marrow failure syndromes and even some cancers in which the patient is too ill to undergo the more toxic traditional treatments, said Cowan.

It will also give us a better idea of what toxicities may be associated with the use of these new vectors, in particular whether they are indeed safer than the older, gamma-retroviral vectors that were associated with a high risk of leukemia, seen in early gene therapy trials for X-linked SCID and other primary immune deficiencies.

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Gene Therapy Offers Hope for Newborns with Severe Immune Disorder - Bioscience Technology

Gene therapy to fight a blood cancer succeeds in major study – Fox News

An experimental gene therapy that turns a patient's own blood cells into cancer killers worked in a major study, with more than one-third of very sick lymphoma patients showing no sign of disease six months after a single treatment, its maker said Tuesday.

In all, 82 percent of patients had their cancer shrink at least by half at some point in the study.

Its sponsor, California-based Kite Pharma, is racing Novartis AG to become the first to win approval of the treatment, called CAR-T cell therapy, in the U.S. It could become the nation's first approved gene therapy.

A hopeful sign: the number in complete remission at six months 36 percent is barely changed from partial results released after three months, suggesting this one-time treatment might give lasting benefits for those who do respond well.

"This seems extraordinary ... extremely encouraging," said one independent expert, Dr. Roy Herbst, cancer medicines chief at the Yale Cancer Center.

The worry has been how long Kite's treatment would last and its side effects, which he said seem manageable in the study. Follow-up beyond six months is still needed to see if the benefit wanes, Herbst said, but added, "this certainly is something I would want to have available."

The therapy is not without risk. Three of the 101 patients in the study died of causes unrelated to worsening of their cancer, and two of those deaths were deemed due to the treatment.

It was developed at the government's National Cancer Institute and then licensed to Kite. The Leukemia and Lymphoma Society helped sponsor the study.

Results were released by the company and have not been published or reviewed by other experts. Full results will be presented at the American Association for Cancer Research conference in April.

The company plans to seek approval from the U.S. Food and Drug Administration by the end of March and in Europe later this year.

The treatment involves filtering a patient's blood to remove key immune system soldiers called T-cells, altering them in the lab to contain a gene that targets cancer, and giving them back intravenously. Doctors call it a "living drug" permanently altered cells that multiply in the body into an army to fight the disease.

Patients in the study had one of three types of non-Hodgkin lymphoma, a blood cancer, and had failed all other treatments. Median survival for such patients has been about six months.

Kite study patients seem to be living longer, but median survival isn't yet known. With nearly nine months of follow-up, more than half are still alive.

Six months after treatment, 41 percent still had a partial response (cancer shrunk at least in half) and 36 percent were in complete remission (no sign of disease).

"The numbers are fantastic," said Dr. Fred Locke, a blood cancer expert at Moffitt Cancer Center in Tampa who co-led the study and has been a paid adviser to Kite. "These are heavily treated patients who have no other options."

One of his patients, 43-year-old Dimas Padilla of Orlando, was driving when he got a call saying his cancer was worsening, chemotherapy was no longer working, and there was no match to enable a second try at a stem cell transplant.

"I actually needed to park ... I was thinking how am I going to tell this to my mother, my wife, my children," he said. But after CAR-T therapy last August, he saw his tumors "shrink like ice cubes" and is now in complete remission.

"They were able to save my life," Padilla said.

Of the study participants, 13 percent developed a dangerous condition where the immune system overreacts in fighting the cancer, but that rate is lower than in some other tests of CAR-T therapy. The rate fell during the study as doctors got better at detecting and treating it sooner.

Roughly a third of patients developed anemia or other blood-count-related problems, which Locke said were easily treated. And 28 percent had neurological problems such as sleepiness, confusion, tremor or difficulty speaking, but these typically lasted just a few days, Locke said.

"It's a safe treatment, certainly a lot safer than having progressive lymphoma," and comparable to combination chemotherapy in terms of side effects, said the cancer institute's Dr. Steven Rosenberg, who had no role in Kite's study. The first lymphoma patient Rosenberg treated this way, a Florida man, is still in remission seven years later.

There were no cases of swelling and fluid in the brain in this or any other study testing Kite's treatment, company officials said. That contrasts with Juno Therapeutics, which has had a CAR-T study put on hold twice after five patient deaths due to this problem.

Company officials would not say what the treatment might cost, but other types of immune system therapies have been very expensive. It's also being tested for some other types of blood cancer.

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Gene therapy to fight a blood cancer succeeds in major study - Fox News

Pfizer commits $4M to NC Biotechnology Center gene therapy … – WRAL Tech Wire

Posted Feb. 28, 2017 at 3:39 p.m.

Published: 2017-02-28 15:39:55 Updated: 2017-02-28 15:39:55

By JIM SHAMP, NCBiotech Writer

Raleigh, N.C. The North Carolina Biotechnology Center has announced that Pfizer has committed to providing funding in the amount of $4 million which will enable the Center to establish and administer a multi-year academic fellowship program to help advance North Carolinas fast-growing expertise in gene therapy.

The new program, to be managed by NCBiotech, will support distinguished postdoctoral fellowships in North Carolina university research laboratories providing advanced scientific training in gene therapy-related research.

Absent or faulty proteins linked to genetic mutations cause numerous devastating diseases, making gene therapy an increasingly important treatment strategy.

Pfizers portfolio in North Carolina has grown in recent years. The company already operates a pharmaceutical manufacturing facility in the Lee County community of Sanford, and in August 2016, it acquired leading-edge gene therapy company Bamboo Therapeutics, Inc. in Chapel Hill.

With that acquisition, Pfizer gained the expertise of Bamboos world-renowned co-founder, R. Jude Samulski, Ph.D., director of the Gene Therapy Centerat the University of North Carolina at Chapel Hill. The deal also included an 11,000-square-foot facility for the highly specialized manufacturing of recombinant adeno-associated viral vectors.

Pfizer is one of several biopharmaceutical companies that have added high-profile gene therapy acquisitions, and several partnerships with biotechnology companies and leading academic institutions, to its R&D portfolio. Numerous other North Carolina scientists and companies are also making significant inroads into gene therapy, gene editing and related applications, many with NCBiotech support. For example, Samulski was recruited to UNC in 1993 as part of a $430,000 NCBiotech grant. Additionally, Bamboos former parent company received more than $700,000 in Biotech Center grants and loans.

Gene therapy advances require specific skills in addition to deep scientific knowledge. The fellowship program being established with Pfizers funding aims to boost that talent pipeline, with talent that has already proven to be exceptional in North Carolina. Such funding will enable NCBiotech to provide two-year fellowship support to postdoctoral scientists. The funding will afford the Center the ability to cover salaries, benefits, materials, professional development and travel for such postdoctoral scientists. The Center will encourage competitive applications from scientists interested in establishing research careers in gene therapy and related research activities.

The Biotech Center will also create and manage a related gene therapy Exchange Group. It will join some 25 other exchange groups designed to unite North Carolina-based academic and industry scientists with shared professional interests. The Gene Therapy EG will include these new postdoctoral fellows, their mentors, and others interested in the burgeoning gene therapy sector.

The field of gene therapy research has made tremendous strides in recent years, and we are pleased to be able to further enhance our leadership position in this area through this unique fellowship program, said Mikael Dolsten, M.D., Ph.D., president of worldwide research and development at Pfizer. We believe that gene therapy may hold the promise of bringing true disease modification for patients suffering from devastating diseases, and North Carolina is uniquely positioned to help us take advantage of collaborative opportunities that can develop the specialized talent well need.

Doug Edgeton, president and CEO of the Biotech Center, said he was deeply honored that Pfizer targeted North Carolina, and the Center, for the groundbreaking fellowship program.

Pfizer embraced the opportunity to work with us given weve proven for more than 30 years that we have the expertise and success metrics to maximize impact, said Edgeton. We not only have outstanding research institutions across our state, but we also have a well-respected culture of partnering and collaboration that allows us to be nimble and responsive. This is a wonderful example.

(C) N.C. Biotechnology Center

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Pfizer commits $4M to NC Biotechnology Center gene therapy ... - WRAL Tech Wire

BioMarin building gene therapy plant to support hemophilia A … – BioPharma-Reporter.com

A Californian manufacturing facility to support clinical development of a haemophilia A gene therapy will be completed this year, says BioMarin.

Last year , BioMarin Pharmaceutical released proof-of-concept data to support BMN 270, a gene therapy candidate using an AAV-Factor VIII vector intended to treat patients deficient in the blood clotting protein Factor VIII.

And with plans to begin a Phase IIb study later this year, the firm has said it is constructing a facility in California to manufacture clinical batches.

Our new gene therapy manufacturing facility is expected to be completed by mid-year, enabling us to move the BMN 270 program forward, without constraints on materials needed for the Phase 2b registration enabling study in the third quarter, CEO Jean-Jacques Bienaim told investors on a call Friday.

Henry Fuchs, president of worldwide R&D, added making the investment in-house ensures has control of its supply chain for the upcoming trials, heading towards a commercial launch.

The facility design was recently reviewed with US health authorities and the feedback was consistent with our plans for construction and operational control. The approach laid out was well received and discussed in depth with industry, academic and health authority representatives.

Yet while the design of the facility gave consideration to the potential for use with other gene therapies in BioMarins pipeline, management did not want to get the cart before the horse, and wanted to await BMN 270s success before making any decisions, according to EVP Jeff Ajer.

The investment made in the site was not divulged, but capital expenditure for 2016 stood at $168m (159m), though this included the buildout of a manufacturing facility in Shanbally, Ireland , to support commercial supply of the firms enzyme replacement drug Vimizim (elosulfase alfa).

For the full year, the firm saw revenues of $1.12bn up 26% on 2015 though reported a net loss of $630m (up from $155m) attributed in part to higher operating expenses.

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BioMarin building gene therapy plant to support hemophilia A ... - BioPharma-Reporter.com

BioMarin building CA plant to support Factor VIII gene therapy candidate – BioPharma-Reporter.com

A Californian manufacturing facility to support clinical development of a haemophilia A gene therapy will be completed this year, says BioMarin.

Last year , BioMarin Pharmaceutical released proof-of-concept data to support BMN 270, a gene therapy candidate using an AAV-Factor VIII vector intended to treat patients deficient in the blood clotting protein Factor VIII.

And with plans to begin a Phase IIb study later this year, the firm has said it is constructing a facility in California to manufacture clinical batches.

Our new gene therapy manufacturing facility is expected to be completed by mid-year, enabling us to move the BMN 270 program forward, without constraints on materials needed for the Phase 2b registration enabling study in the third quarter, CEO Jean-Jacques Bienaim told investors on a call Friday.

Henry Fuchs, president of worldwide R&D, added making the investment in-house ensures has control of its supply chain for the upcoming trials, heading towards a commercial launch.

The facility design was recently reviewed with US health authorities and the feedback was consistent with our plans for construction and operational control. The approach laid out was well received and discussed in depth with industry, academic and health authority representatives.

Yet while the design of the facility gave consideration to the potential for use with other gene therapies in BioMarins pipeline, management did not want to get the cart before the horse, and wanted to await BMN 270s success before making any decisions, according to EVP Jeff Ajer.

The investment made in the site was not divulged, but capital expenditure for 2016 stood at $168m (159m), though this included the buildout of a manufacturing facility in Shanbally, Ireland , to support commercial supply of the firms enzyme replacement drug Vimizim (elosulfase alfa).

For the full year, the firm saw revenues of $1.12bn up 26% on 2015 though reported a net loss of $630m (up from $155m) attributed in part to higher operating expenses.

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BioMarin building CA plant to support Factor VIII gene therapy candidate - BioPharma-Reporter.com

Muscle-wasting disease in dogs cured using gene therapy, offering hope to suffering boys – Genetic Literacy Project

For decades, some unluckydog lovers have [witnessed their puppies] seemingly healthy muscles literally waste awayuntil they could no longer stand and breathe.

[T]he genetic cause of this specific muscle-wasting disease[is] a single mutation that left them unable to produce an essential protein known asmyotubularin.Whats more, it was the exact kind of mutation and disease also long found in male human babies, too.

[Researchers gave 10-week-old puppies]a treatment that repaired their defectivemyotubularin gene, [causing them to avoid] the crippling muscle degeneration that killed the placebo-treated dogs by week 17. And by the ninth month of study, the saved puppies muscle and neurological function continued to match readings from healthy dogs, particularly forthose that got the highest doses.

The findingssignal that a scaled-up treatment could save the lives of boys with the same sort of genetic flaw.

The changes seen after a single treatment have lasted for several years in the small sample of dogs the team has raised. So its possible that people wont need repeated doses or they would be infrequent, said Dr. Martin Childers of the University of Washington a big positive, given how expensive gene therapy is today.

[The study can be found here.]

The GLP aggregated and excerpted this blog/article to reflect the diversity of news, opinion, and analysis. Read full, original post:Gene Therapy Saves Puppies From A Fatal DiseaseAnd Maybe Us Next

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Muscle-wasting disease in dogs cured using gene therapy, offering hope to suffering boys - Genetic Literacy Project

Mice Glowing Like Fireflies Show That New Gene Therapy Process … – Scope (blog)

Glowing thighs were reason for a celebration recently among Stanford researchers working on a new process for gene therapy. Through a collaborative effort led by Christopher Contag, PhD, professor of pediatrics and of microbiology and immunology;Robert Waymouth, PhD, professor of chemistry; and Paul Wender, PhD, professor of chemistry, the researchers developed a new way to deliver a type of RNA into cells to instruct the creation of proteins.

Their technique, detailed in a paper in Proceedings of the National Academy of Sciences, led to successful expression in mice of the proteins that make a firefly glow and may bring us one step closer to the creation of individualized therapeutics from a persons own cells.

Waymouth, in a Stanford press release, characterized their excitement:

Its almost a childlike enthusiasm we have for this. The code for an insect protein is put into an animal and that protein is not only synthesized in the cells but its folded and it becomes fully functional, capable of emitting light.

Accomplishing this feat involved two distinct challenges: getting a type of RNA called mRNA from a firefly into a mouses cells and giving it the freedom to create proteins once inside. Already, the researchers knew that positively charged transport molecules, polycations, can carry mRNA, which is negatively charged, across the cell membrane. The problem with past attempts to use polycations is they dont let go of the mRNA after the crossing, limiting its ability to lead to protein production.

The Stanford technique, called charge-altering releasable transporters (CARTs), avoids this issue with a clever transformation, explained Wender:

What distinguishes this polycation approach from the others, which often fail, is the others dont change from polycations to anything else. Whereas, the ones that were working with will change from polycations to neutral small molecules. That mechanism is really unprecedented.

The change to neutral small molecules means their creation biodegrades inside the cell, detaches from the mRNA, and is eventually excreted from the body. This, along with the fact that mRNAs effects are temporary, makes this technique especially appealing for vaccination, where it could instruct our bodies to put up an immune response and then dissolve, leaving no trace of foreign materials. The researchers are also hoping to apply CARTs to another genetic messenger that could lead to more permanent effects.

Previously: Stanford researcher details structure of sugar transporter called SWEETand Special delivery: Discovery of viral receptor bodes better gene therapy Photo by L.A. Cicero

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Mice Glowing Like Fireflies Show That New Gene Therapy Process ... - Scope (blog)

Why Spark’s CEO says 2017 may be a ‘historic year’ for his gene therapy company – Philadelphia Business Journal


Philadelphia Business Journal
Why Spark's CEO says 2017 may be a 'historic year' for his gene therapy company
Philadelphia Business Journal
Philadelphia gene therapy company Spark Therapeutics said it is in the final stages of completing its rolling biologics license application for its lead product: a one-time treatment for an inherited retinal disease that causes blindness in children ...
Spark Therapeutics Reports 2016 Financial Results and Business HighlightsGlobeNewswire (press release)
Spark Therapeutics Inc. (ONCE) Plunges 5.15% on February 22Equities.com
Spark Therapeutics, Inc.'s (ONCE) CEO Jeffrey Marrazzo on Q4 2016 Results - Earnings Call TranscriptSeeking Alpha
Highland Mirror -The Cerbat Gem
all 22 news articles »

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Why Spark's CEO says 2017 may be a 'historic year' for his gene therapy company - Philadelphia Business Journal

Gene therapy tried in dogs with muscle disease could prove useful for people – FierceBiotech

Theres a rare disorder that occurs when a gene mutation halts the production of myotubularina protein that facilitates normal muscle function. The disease, called myotubular myopathy (MTM), only affects males, and its ultimately fatal because it causes breathing difficulties.

Dogs get MTM, tooand that spelled opportunity for scientists at the University of Washington Medicine Institute for Stem Cell and Regenerative Medicine. In collaboration with five other academic institutions, they found a way to replace the faulty MTM gene with a functioning gene in dogs with the disease, they reported in the journal Molecular Therapy.

It worked: After a single infusion of genes, muscle strength was restored in the dogs, according to a press release. One year later, the dogs were indistinguishable from healthy animals, they said. "This regenerative technology allowed dogs that otherwise would have perished to complete restoration of normal health," said Dr. Martin K. "Casey" Childers, UW Medicine researcher and physician.

The researchers used a viral vector called adeno-associated virus serotype 8 (rAAV8) to deliver a healthy canine version of the MTM gene in dogs that were 10 weeks old and already showing symptoms. They believe a similar trial could be designed in people.

Gene therapy is under investigation for a wide range of disorders, though much of the progress to date has occurred outside the realm of muscular disorders. BioMarin Pharmaceutical, for example, is in mid-stage trials of a gene therapy treatment for hemophilia A. UniQure is working on several gene therapy products to treat diseases including Huntingtons and congestive heart failure. Its most advanced project, a gene therapy product to treat hemophilia B, received breakthrough designation status from the FDA in January.

One company that has achieved some success with gene therapy in inherited muscle disorders is AveXis, which is gearing up for a pivotal trial of its treatment for spinal muscular atrophy. AveXis won breakthrough therapy designation for its gene product last year, and high hopes for the product have prompted its stock to more than triple since the company went public early last year.

UW Medicine-led team that worked on the canine MTM trial observed that as they increased the dosage of genes, survival rates improved, they reported. They believe the study proves the potential utility of gene therapy in a wide range of diseases that are linked to mutated genes.

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Gene therapy tried in dogs with muscle disease could prove useful for people - FierceBiotech

Global logistics strategies for cell and gene therapies – BioPharma Dive

In the past two decades, gene-based clinical trials have increased by almost 500%. The global market for regenerative medicines including cell therapies, gene/gene-modified cell therapy and tissue engineering is poised to reach $67 billion in 2020.

While the majority of cell and gene therapies are still experimental aimed at rare single-gene disorders researchers hope to build on their successes to develop treatments for multi-gene disorders, including heart disease, hypertension, diabetes, arthritis and Alzheimers disease.

That makes the success of clinical trials now underway vitally important. To make those treatments possible, another industry has to evolve: logistics.

Therapies that contain live materials are produced and packaged under strictly controlled conditions. They must be transported around the world and delivered on time, at optimum temperature, so they arrive in perfect condition.

Researchers dealing with cell and gene therapies already face many obstacles given the novelty and unpredictability of the science, the small size of patient pools and a typical single-dosing model, said Sam Herbert, Chief Operating Officer at World Courier.

In delivering cell and gene therapies to the patient whether during a trial or as part of a treatment plan it is critical that the therapies are delivered on time and in pristine condition.

For clinical trial results to be accurate and replicable, biological samples must arrive at investigator sites in the same condition that they left the lab.Compliance in the lab, the production facility, and the hospital or treatment site is fairly easy to assure. Compliance in the outside world, where the unpredictable happens every day, is not as easy.

Even small cell and gene therapy trials are immensely complex, with many moving parts and no room for error.In this research environment, not only the science, but the entire process from start to finish must be flawless.Researchers, sponsors, clinical teams and supply chain providers supporting the project can settle for nothing less than perfection.

Cell and gene therapies are produced one-by-one under strictly controlled conditions, using live bio-materials. Time and temperature variation could destroy them, so they must arrive at the clinical site on time and in pristine condition.

In theory, thats a tough job.

In the real world, its much harder.

Weather, air traffic, road conditions, climate zones, customs regulations and processing times cant be allowed to delay delivery, or affect the temperature-controlled packaging of the samples and therapeutic materials.

To ensure success, World Courier starts working with study sponsors years in advance.

Our dedicated project team plans a personalized supply chain, develops customized operating procedures, trains all personnel who come in contact with the shipments from lab to clinic, and works with airline personnel and international customs agents to make sure everyone knows what is at stake and how to handle the shipments.

World Courier planned and executed all logistics for a developer of immuno-oncology products during a Phase II clinical trial.Under evaluation was an autologous, dendritic cell-based therapy for cancer patients, to extend remission time and possibly overall survival.The therapy was granted an orphan drug designation by the FDA and EMA, and received fast track designation by the FDA after the Phase II trial.

The therapy owners manufacturing sites were in Europe and in Australia. Shipments of starting cell material had 24 hours to travel from the clinical sites in Europe and Asia to the central manufacturing sites. Over a period of 20 months, World Courier delivered 245 shipments containing more than 2,000 kilograms of materials to treat 63 patients.Therapeutic materials travelled by air freight and road, and were hand carried to their final destination.

Our clinical sample delivery success rate was 100%.

The best logistics partner for your clinical trial is one who has been down that road. Download World Couriers e-book Tomorrows Medicine: Curing One Patient at a Time to find out more.

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Global logistics strategies for cell and gene therapies - BioPharma Dive