Analysis: Large pharma companies do little new drug innovation - STAT

Analysis: Large pharma companies do little new drug innovation - STAT


Analysis: Large pharma companies do little new drug innovation - STAT

Posted: 10 Dec 2019 01:51 AM PST

Large pharmaceutical companies oppose legislation being considered by Congress to lower the prices of prescription drugs. Reducing their revenues, they contend, will reduce their investment in drug development and the discovery of new medicines, and thus lead to a decline in drug innovation.

If that argument is credible, there should be evidence to show that the large pharmaceutical companies are responsible for discovering innovative new drugs.

To test that claim, we examined the provenance of the highest-selling prescription medicines of Pfizer and Johnson & Johnson, the two largest pharmaceutical and biotechnology companies in 2018.

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We found that these large pharmaceutical companies did not actually invent most of the drugs they sell. Indeed, it appears they have already reduced their investment in the discovery of new medicines to the point where the threat of additional reductions rings hollow and is no longer a persuasive reason for opposing legislation to lower drug prices.

Pfizer's and J&J's annual reports identify the medications that account for most of each company's sales of prescription drugs. We gathered information on the discovery and early development of these products from peer-reviewed publications, media reports, and company press releases.

We scoured the companies' 2017 annual reports. A total of 62 products — 44 from Pfizer and 18 from J&J — were listed in them. The discovery and early development work were conducted in house for just 10 of Pfizer's 44 products (23%), as listed in Table 1. Only two of J&J's 18 leading products (11%) were discovered in house, as shown in Table 2.

For example, sildenafil, the phosphodiesterase inhibitor that is the active compound in the erectile dysfunction drug Viagra and the pulmonary hypertension drug Revatio, was synthesized at Pfizer in the 1980s, originally as a cardiovascular medicine. Research leading to the development of risperidone (Risperdal), one of several newer-generation atypical antipsychotic drugs, began at J&J in the 1980s.

The majority (81%) of other products were discovered and initially developed by third parties. Some of them came to Pfizer and J&J from the acquisition of other pharmaceutical companies. For example, Pfizer's highest-selling product, Prevnar 13, a vaccine for pneumococcal disease, was developed at Wyeth, which Pfizer acquired in 2009. Pfizer's palbociclib (Ibrance), used to treat breast cancer, had its origins at Warner-Lambert and Onyx Pharmaceuticals. J&J's rivaroxaban (Xarelto), an anticoagulant, originated at Bayer.

Research leading to the discovery and development of other Pfizer and J&J drugs originated in universities and academic centers. J&J's highest-selling product, infliximab (Remicade), is a monoclonal antibody that was synthesized by researchers at New York University in 1989 in collaboration with the biotechnology company Centocor. The original work showing its efficacy in rheumatoid arthritis was led by Marc Feldmann and Ravinder Maini at Imperial College London.

Etanercept (Enbrel), tofacitinib (Xeljanz), darunavir (Prezista), and daratumumab (Darzalex) are other products for which key discovery or development steps occurred in academic settings.

The 34 Pfizer products discovered by third parties accounted for 86% of the $37.6 billion in revenue that its 44 leading products generated. The 16 J&J products invented elsewhere accounted for 89% of the $31.4 billion that its 18 leading products generated. Clearly, the existence of Pfizer and J&J as profitable pharmaceutical manufacturers is dependent on the acquisition of drugs invented by third parties.

Our finding that few of the top-selling drugs made by Pfizer and J&J had been discovered in-house complements a recent Government Accounting Office report examining where large pharmaceutical companies spend most of their research dollars. It is also consistent with the latest member survey conducted by PhRMA, which indicated that last year only $13 billion was spent on preclinical studies — the basic and translational science that is the foundation for the discovery of innovative drugs.

That is only a fraction of the $39.2 billion taxpayers spent to support the medical research conducted by the National Institutes of Health. More than 80% of the NIH's funding is awarded through almost 50,000 competitive grants to more than 300,000 researchers at 2,500+ universities, medical schools, and other research institutions in every state and around the world. While it is important to give fair consideration to the cost and risk involved in the development of new drugs, Pfizer and J&J were mostly buying drugs that had already been shown to have efficacy.

The lack of in-house innovation at Pfizer and J&J is relevant to current efforts in the Senate (S. 2543) to limit annual drug price increases to the rate of inflation, and in the House of Representatives (H.R. 3) to cap drug price increases and limit prices based on what is charged for the same drug in other developed countries.

Large pharmaceutical manufacturers have claimed that enactment of this legislation would be an "innovation killer" and trigger a "nuclear winter for the U.S. biopharmaceutical ecosystem." And President Trump tweeted late last month that the Pelosi drug pricing bill "doesn't do the trick. FEWER cures! FEWER treatments!"

If our findings are representative of the level of innovation at other large pharmaceutical manufacturers, a reduction in pharmaceutical revenues would not have the supposed devastating impact on the level of biopharmaceutical innovation. Rather, a reduction in revenues as a result of lower drug prices may reduce the astronomical acquisition prices now being paid by the large manufacturers to acquire innovations made by others.

But the biopharmaceutical ecosystem will continue to thrive as long as those who actually innovate are provided with the resources to do so while those who play other roles in bringing new drugs to market are fairly compensated for their contributions to those aspects of the development process.

As a recent report from the National Academies of Medicine concluded, "drugs that are not affordable are of little value and drugs that do not exist are of no value." The problem of affordability will not be solved if Congress continues to succumb to questionable assertions by lobbyists claiming that excessively high drug prices are essential to maintaining biopharmaceutical innovation.

Passage of legislation to curb ridiculously high medication prices and price increases will not only make medicines more accessible to patients but will also reduce government expenditures on drugs by more than $345 billion dollars over 10 years, according to the Congressional Budget Office. That will enable the government to make greater investments in NIH and produce an even more robust biomedical innovation ecosystem than now exists.

Emily H. Jung is a first-year medical student at Emory School of Medicine in Atlanta and a former research assistant at the Program On Regulation, Therapeutics, And Law (PORTAL) in the Division of Pharmacoepidemiology and Pharmacoeconomics at Brigham and Women's Hospital. Alfred Engelberg, J.D., is a retired pharmaceutical intellectual property attorney and philanthropist. Aaron S. Kesselheim, M.D., is a professor of medicine at Harvard Medical School and director of PORTAL. Funding for this work was provided by the Engelberg Foundation, a charitable foundation that focuses on health policy research. Kesselheim's work is also supported by the Harvard-MIT Center for Regulatory Science and Arnold Ventures.


Table 1. Origins of drug products manufactured by Pfizer in 2017*

Product 2017 Revenue Key origins
Pneumococcal 13-valent Conjugate Vaccine (Prevnar 13) $5.6 billion Wyeth Pharmaceuticals, acquired by Pfizer in 2009
Pregabalin (Lyrica) $5.1 billion Northwestern University in the 1980s; later entered into a licensing agreement with Warner-Lambert, which was acquired by Pfizer in 2000
Palbociclib (Ibrance) $3.1 billion Warner-Lambert and Onyx Pharmaceuticals in the 1990s; Warner-Lambert was acquired by Pfizer in 2000
Apixaban (Eliquis) $2.5 billion DuPont Pharmaceuticals in 1995; acquired by Bristol-Myers Squibb in 2001; Bristol-Myers Squibb and Pfizer entered into an agreement to jointly develop apixaban in 2007
Etanercept (Enbrel) $2.5 billion Etanercept synthesized at Massachusetts General Hospital in the 1980s, with private funding from Hoechst AG; entered into a licensing agreement with Immunex Corporation in the late 1990s; Immunex entered into a co-promotion agreement with Wyeth-Ayerst Laboratories; Immunex was acquired by Amgen in 2002; Wyeth Pharmaceuticals was acquired by Pfizer in 2009. Since the expiration of the co-promotion agreement in 2013, Pfizer and Amgen have held marketing rights outside of and in the US and Canada, respectively
Atorvastatin (Lipitor) $1.9 billion Warner-Lambert in the 1980s, acquired by Pfizer in 2000
Tofacitinib (Xeljanz) $1.3 billion National Institutes of Health in the 1990s, which later entered into a collaboration with Pfizer
Sildenafil (Viagra) $1.2 billion Sandwich laboratories of Pfizer (U.K.) in the late 1980s; Pfizer scientists originally tested sildenafil as a treatment for angina, but during clinical trials in the 1990s, saw sildenafil's potential to treat erectile dysfunction; in the late 1990s and early 2000s, discovered evidence demonstrating sildenafil's potential to treat pulmonary hypertension
Sunitinib (Sutent) $1.1 billion Sugen, a biotechnology company founded by kinase researchers at New York University and the Max Planck Institute for Biochemistry; Sugen was acquired by Pharmacia & Upjohn in 1999; which was acquired by Pfizer in 2003
Varenicline (Chantix) $997 million Pfizer in the 1990s
Conjugated estrogens (Premarin) $977 million Ayerst, McKenna & Harrison and McGill University in the 1920s; Ayerst, McKenna & Harrison was acquired by American Home Products in 1943, which acquired Wyeth in 1931 and changed the company name to Wyeth in 2002; Wyeth was acquired by Pfizer in 2009
Amlodipine (Norvasc) $926 million Pfizer in the 1980s
Celecoxib (Celebrex) $775 million G.D. Searle in the 1990s, the pharmaceutical division of Monsanto Company, acquired by Pharmacia & Upjohn in 2000; Pharmacia was acquired by Pfizer in 2003
Coagulation factor IX recombinant, nonacog alfa (BeneFIX) $604 million British Technology Group and Oxford University, which licensed Factor IX technology to Genetics Institute, a biotechnology company found by molecular biologists at Harvard University; the Genetics Institute was acquired by Wyeth in 1996; Wyeth was acquired by Pfizer in 2009
Crizotinib (Xalkori) $594 million Sugen in 1996, a biotechnology company founded by kinase researchers at New York University and the Max Planck Institute for Biochemistry; Sugen was acquired by Pharmacia & Upjohn in 1999; Pharmacia was acquired by Pfizer in 2003
Enzalutamide (Xtandi) $590 million University of California, Los Angeles, in the early 2000s, which later licensed the drug's patent to Medivation, which entered into a global agreement with Astellas to jointly commercialize enzalutamide in 2009; Medivation was acquired by Pfizer in 2016
Antihemophilic factor recombinant, moroctocog alfa (Refacto AF/Xyntha) $551 million Dyax Corporation, which licensed phage display technology to Wyeth; Wyeth was acquired by Pfizer in 2009
Somatropin (Genotropin) $532 million Genentech developed the first recombinant version of pituitary growth hormone, which had been used in treatment for many decades based on research at multiple academic centers. This version originated with Pharmacia Corporation, which was acquired by Pfizer in 2003.
Methylprednisolone (Medrol) $483 million million Pharmacia Corporation, which was acquired by Pfizer in 2003.
Sulbactam/cefoperazone (Sulperazon) $471 million Pfizer in the 1970s
Voriconazole (Vfend) $421 million Pfizer in the 1980s
Infliximab (Inflectra/Remsima) $419 million Pfizer manufactures follow-on biologics to Johnson & Johnson's infliximab (Remicade)
Axitinib (Inlyta) $339 million Pfizer in the 2000s
Latanoprost (Xalatan/Xalacom) $335 million Columbia University in the 1970s, which later entered into a collaboration with Pharmacia, which was acquired by Pfizer in 2003
Dalteparin (Fragmin) $306 million Fresenius Kabi, a pharmaceutical company, in the 1970s, which later entered into a collaboration with Pharmacia, which was acquired by Pfizer in 2003
Desvenlafaxine (Pristiq) $303 million Wyeth, acquired by Pfizer in 2009
Venlafaxine (Effexor) $297 million Wyeth, acquired by Pfizer in 2009
Sertraline (Zoloft) $291 million Pfizer in the 1970s
Epinephrine (EpiPen) $290 million Epinephrine was first marketed in the early 1900s by Parke, Davis & Company, which was acquired by Warner-Lambert in 1970; Warner-Lambert was acquired by Pfizer in 2000. The device was invented in 1970s at Survival Technology, which became Meridian Medical Technologies in 1996; Meridian was acquired by King Pharmaceuticals, which was later acquired by Pfizer in 2010. Pfizer manufactures the EpiPen, which Mylan markets and distributes.
Linezolid (Zyvox) $281 million DuPont in the 1980s, where oxazolidinones were first discovered; Pharmacia (formerly Pharmacia & Upjohn) in the 1990s, which was acquired by Pfizer in 2003
Azithromycin (Zithromax) $270 million Pliva (now a subsidiary of Teva) in the 1970s, a pharmaceutical company, which later entered into a licensing agreement with Pfizer in 1986
Dibotermin alfa (BMP-2) $261 million Genetics Institute, a biotechnology company found by molecular biologists at Harvard; Genetics Institute was acquired by Wyeth in 1996, which was acquired by Pfizer in 2009
Tigecycline (Tygacil) $260 million Lederle Laboratories, the pharmaceutical division of American Cyanamid Company, which was later acquired by American Home Products in 1994, which acquired Wyeth in 1931 and changed the company name to Wyeth in 2002; Wyeth was acquired by Pfizer in 2009
Fesoterodine (Toviaz) $257 million Schwarz BioSciences, a pharmaceutical company, which later licensed fesoterodine to Pfizer in 2006
Pegvisomant (Somavert) $254 million Ohio University in the 1990s, where molecular biologists helped found Sensus Drug Development Corporation and used technology from Genentech; Sensus was acquired by Pharmacia in 2001, which was acquired by Pfizer in 2003
Sildenafil (Revatio) $252 million See Viagra, above
Dexmedetomidine (Precedex) $243 million Orion Pharma in the 1990s, a pharmaceutical manufacturing company which later licensed dexmedetomidine to Hospira, a spin-off of Abbott Laboratories; Hospira was acquired by Pfizer in 2015
Eletriptan (Relpax) $236 million Pfizer
Bosutinib (Bosulif) $233 million Wyeth, which was acquired by Pfizer in 2009
Alprazolam (Xanax) $225 million Hoffman-La Roche in the 1950s, where the first benzodiazepines were discovered; Upjohn in the 1960s, which merged with Pharmacia Corporation in 1995; Pharmacia was acquired by Pfizer in 2003
Piperacillin; tazobactam (Zosyn/Tazocin) $194 million SynPhar Laboratories, a joint venture between a scientist at the University of Alberta (Canada) and Taiho Pharmaceuticals; SynPhar licensed tazobactam/piperacillin to Wyeth, which was acquired by Pfizer in 2009
FSME-IMMUN/TicoVac $134 million Hyland-Immuno in the 1980s, a division of Baxter International; Pfizer acquired Baxter's portfolio of marketed vaccines in 2014
Crisaborole (Eucrisa)</td $67 million Anacor, a biopharmaceutical company founded by researchers at Stanford University and Penn State University; Anacor was acquired by Pfizer in 2016
Sildenafil $56 million Pfizer manufactures a generic version of Viagra

* Origins listed for each drug based on methods described in article and do not exclude the possibility of contributions from other scientists or organizations.


Table 2. Origins of drug products manufactured by J&J in 2017*

Product 2017 Revenue Key origins
Infliximab (Remicade) $6.3 billion Synthesized at New York University in the 1980s in collaboration with Centocor Ortho Biotech, which was acquired by J&J in 1999
Ustekinumab (Stelara) $4.0 billion Centocor, which licensed Medarex's UltiMAb technology to generate ustekinumab in 1997; Centocor was acquired by J&J in 1999
Paliperidone (Invega Sustenna/Xeplion/Trinza/Trevicta) $2.6 billion J&J
Abiraterone (Zytiga) $2.5 billion UK Institute of Cancer Research in the 1990s, which later assigned rights for the development of abiraterone to British Technology Group International, which licensed abiraterone to Ortho Biotech Oncology Research & Development, a unit of Cougar Biotechnology, in 2004. Cougar was acquired by J&J in 2009
Rivaroxaban (Xarelto) $2.5 billion Bayer in the 1990s, which later entered into a collaboration with J&J to jointly develop rivaroxaban
Ibrutinib (Imbruvica) $1.9 billion Celera Genomics in 2005, a company founded by a geneticist as a unit of biotechnology company Applera. Pharmacyclis acquired some of Celera's drug discovery programs, including ibrutinib, and entered into an agreement with J&J to jointly develop and market ibrutinib in 2011
Golimumab (Simponi/Simponi Aria) $1.8 billion Centocor, which licensed Medarex's UltiMAb technology to develop golimumab; Centocor was acquired by J&J in 1999
Darunavir (Prezista/Prezcobix/Rezolsta/Symtuza) $1.8 billion University of Illinois at Chicago, in collaboration with the National Institutes of Health and Purdue University, which later licensed darunavir to Tibotec, a pharmaceutical company founded by researchers at the Rega Institute for Medical Research, which was acquired by J&J in 2002
Daratumumab (Darzalex) $1.2 billion Genmab, a European spinoff of U.S.-based Medarex, in collaboration with the University Hospital in Utrecht; Genmab licensed daratumumab to J&J in 2012
Bortezomib (Velcade) $1.1 billion ProScript, originally founded as MyoGenics by scientists at Harvard; ProScript later collaborated with the National Cancer Institute to further develop the drug. ProScript merged with LeukoSite, which was acquired by Millennium Pharmaceuticals in 1999. Millennium was acquired by Takeda in 2008, which entered into a co-promotion agreement in J&J in 2010
Canagliflozin (Invokana/Invokamet) $1.1 billion Mitsubishi Tanabe Pharm, which later licensed canagliflozin to J&J
Epoetin alfa (Procrit/Eprex) $972 million Amgen, which later assigned rights for non-dialysis indications in the U.S. and for all indications approved outside the U.S. to J&J
Risperidone (Risperdal Consta) $805 million J&J in the 1980s
Methylphenidate (Concerta) $791 million Ciba-Geigy in the 1940s. ALZA Corporation, which developed an alternative formulation of methylphenidate, was acquired by J&J in 2001
Rilpivirine (Edurant) $714 million Tibotec, which was acquired by J&J in 2002
Macitentan (Opsumit) $573 million Actelion in 2002, which was acquired by J&J in 2017
Bosentan (Tracleer) $403 million Hoffman-La Roche, which later licensed bosentan to Actelion, which was acquired by J&J in 2017
Selexipag (Uptravi) $263 million Nippon Shinyaku, which later entered into an agreement with Actelion to jointly develop selexipag in 2008, Actelion was acquired by J&J in 2017

* Origins listed for each drug based on methods described in article and do not exclude the possibility of contributions from other scientists or organizations.

Gene Therapy Takes Center Stage at 2019 NORD Summit - Pulmonary Hypertension News

Posted: 10 Dec 2019 08:00 AM PST

With so much recent publicity surrounding gene therapy, it's no surprise that the topic was a major focus of the recent 2019 NORD Rare Diseases & Orphan Products Breakthrough Summit.

From diagnosis and clinical trial design to manufacturing, pricing strategies, and ethical concerns, gene therapy — both its high costs and limitless potential for curing diseases — generated much discussion at the Washington, D.C., event, which was organized by the National Organization for Rare Disorders (NORD) and attended by more than 900 delegates Oct. 21–22.

Former FDA Commissioner Scott Gottlieb, MD, speaks Oct. 21 at the 2019 NORD Summit in Washington D.C. (Photos by Larry Luxner)

"On one hand, this is a splendid time to be doing what we do," said Scott Gottlieb, MD, former commissioner of the U.S. Food and Drug Administration (FDA), and now a partner at Washington-based New Enterprise Associates. "On the other hand, it's imperative that all patients have access [to these new therapies], regardless of someone's ability to afford them. Many of the treatments are so dramatic, they can quite literally alter the destiny of someone's life.

He regarded his leadership of the agency, from May 2017 to April 2019, as "a wonderful time at the FDA because we had the benefit of cures and new money as a tailwind, but also in large measure because of the opportunities before us — such as gene therapy and CRISPR — to fundamentally alter diseases."

Gottlieb's comments come toward the end of a year that saw the FDA approve the Novartis treatment Zolgensma, the first gene therapy for spinal muscular atrophy (SMA). With a price tag of $2.1 million, it's the most expensive medication in history.

"When it comes to curative therapies, it's not that we can't sustain the cost of a million-dollar therapy if it means curing a pediatric disorder. We can afford that," he said. "But what we can't afford is to let an insurance company determine your child's destiny."

While there's a "real sense of excitement" about gene therapy for illnesses such as hemophilia, SMA, sickle cell disease, and Duchenne muscular dystrophy, these expensive new treatments may actually accentuate rather than reduce disparities among patients, said Steven Pearson, MD, founder and president of the Boston-based Institute for Clinical and Economic Review.

"There's a real anxiety that this wave of innovation will lead to unexpected high costs," he said. "Insurance companies are writing policies today that will exclude gene therapies. That's ridiculous. It doesn't help anybody."

Fair pricing strategies

Fair pricing strategies are badly needed to ensure that all who need future gene therapies will have access to them, regardless of the cost, said Pearson, whose independent, nonpartisan agency objectively evaluates the clinical and economic value of prescription medications.

"We could just give this to the federal government and create risk pools, but I think the private market can sort this out," he said. "A fair price should never mean that a patient should have to repeat their genetic tests every six months to show they still have the same bloody condition."

NORD summit
Banner at 2019 NORD Summit notes that 25 million to 30 million Americans — nearly 1 in 10 people — have rare diseases.

During a panel, titled "Gene Therapy: Overcoming Challenges for Both Patients and Manufacturers," pharmaceutical executives and patient advocates discussed what the coming scientific revolution means for them.

Gene therapy offers the possibility for kids with devastating conditions and severely limited life spans to live long, productive lives and fulfill their potential, said Mark Rothera, president and CEO of London-based Orchard Therapeutics, who moderated the panel.

Rothera said he's worked in rare diseases since the late 1980s, and has launched seven orphan drugs in his career.

"But I joined Orchard a few years ago because I've never seen data like this before. It's taken 20 or 30 years of work to get to this point," he said. "The whole system is geared up for chronic long-term therapy. Now we're talking about one single intervention that will deliver lifelong benefits, so the system has to welcome that and adapt to it."

The panel included Olivier Danos, PhD, senior vice president and chief scientific officer at Regenxbio; Neil Horikoshi, CEO and executive director of the Aplastic Anemia & MDS International Foundation; Stephanie Uder, vice-president of product management at Accredo; and Amy Price, outreach coordinator at the Leukodystrophy Family Forum.

"You can imagine the enormous financial and emotional toll that 24/7 care takes on moms and dads," Rothera said. "Maybe one of the parents has to give up a job to be there. Imagine if that's no longer required, because the parents have a healthy child, and can use that time and energy to look after healthy children."

Gene therapy for ADA

To that end, Orchard is focused solely on treating children with primary immune deficiencies, neurometabolic disorders, and hemoglobinopathies — most of which lack treatments today.

The company's pipeline includes Strimvelis, the first ex vivo autologous gene therapy to treat patients with severe combined immunodeficiency due to adenosine deaminase deficiency (ADA) for whom no suitable stem cell donor is available. Approved by the European Medicines Agency in 2016, Strimvelis was acquired by Orchard from GlaxoSmithKline in March 2018.

NORD summit
NORD's 2019 summit took place Oct. 21–22 in Washington, D.C.

ADA affects about 15 people per year in Europe and 12 per year in the United States. Strimvelis retails for $780,000, compared to $4.25 million for 10 years of weekly enzyme replacement therapy.

"We're building a company on a global scale to bring these medicines to patients around the world as quickly as we can, but we face plenty of challenges with patient identification," Rothera said. "When you're bringing gene therapy for the first time in the world to a community that hasn't had treatment, there's been less of an effort at diagnosis."

"But time also matters," he added. "Some patients, you want to treat as early as possible before symptoms develop — so newborn screening is very important."

Rothera also noted the complicated logistics of bringing patients from all over the world to a specific hospital to receive gene therapy.

"Imagine the case of a child born with a rare disease that has been cured through one single intervention," he said. "Effectively, that child is no longer a patient — yet will need a further 15 years of follow-up. A procedure like this requires exquisite coordination. The patient's own cells become the product."

Flying abroad for gene therapy

Amy Price knows about the complicated logistics of traveling across the ocean to cure a child.

She and her husband, Brad, have three children with metachromatic leukodystrophy (MLD). The disease affects white matter in the brain, causing progressive loss of mobility and sensation as well as intellectual decline.

Amy Price speaks at the NORD Summit about gene therapy treatment for metachromatic leukodystrophy.

Their daughter, Liviana, was born in January 2008 and diagnosed with MLD in December 2010. Giovanni was born in January 2010. After genetic testing revealed that he also had the disease, the boy was accepted into a clinical trial at Italy's San Raffaele Telethon Institute for Gene Therapy in Milan. He was treated in 2011, though it was too late for Liviana, who died in 2013.

The following year, Price gave birth to triplets. One of them, Cecilia, inherited MLD and got the gene therapy in Italy at 9 months old. According to a post in the PLOS Blogs Network, the gene therapy that Giovanni and Cecilia received "adds corrected genes for the enzyme arylsulfatase A to bone marrow stem cells taken from the children. The cells are infused and migrate to the brain, where they give rise to corrected glial cells that make the necessary enzyme. Done early enough, symptoms never begin."

A psychologist, Price recently interviewed 16 families whose children — 12 with MLD — underwent gene therapy treatments, mostly between 2011 and 2016. Half of the children was American and the other half was European. Their ages ranged from 8 months to 11 years, with an average age of 3 years.

She found that the most formidable challenges for families were fear of unknown or long-term treatment outcomes; family separation; having to care for other children at the same time; social isolation; unfamiliar language or customs; and financial well-being.

"It seems like such a small thing, but if you don't have WiFi and nobody speaks your language, it's a cumulative effect," said Price, noting the emotional and physical stress of travel logistics, flying, and general exhaustion on the patients and their families.

Among her suggestions:

  • Bring patient communities into the preclinical planning process.
  • Understand and effectively address cultural challenges with international participants.
  • Identify and work to eliminate the external stressors that impact families (lack of WiFi, social and language barriers).
  • Provide effective psychological support during and after hospitalization, and connect patient to local resources.
  • Provide clinical follow-up at local hospitals to eliminate the challenges of traveling.

"There is so much unknown with a new treatment, and the patients make an immeasurable and priceless sacrifice of hope," said Price. But even so, she added, "it's a life-or-death choice, and 100% [of respondents] said they would do it again."

Total Posts: 329
PatrĂ­cia holds her PhD in Medical Microbiology and Infectious Diseases from the Leiden University Medical Center in Leiden, The Netherlands. She has studied Applied Biology at Universidade do Minho and was a postdoctoral research fellow at Instituto de Medicina Molecular in Lisbon, Portugal. Her work has been focused on molecular genetic traits of infectious agents such as viruses and parasites.
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People Living With Type 2 Diabetes Want Information and Empathy From Their Doctors More Than New Medications - PRNewswire

Posted: 10 Dec 2019 12:11 PM PST

The issue is not a lack of understanding about the importance of lifestyle changes. The gap is in getting practical tips for successfully adopting lifestyle changes -- especially in the context of dealing with the wide-ranging impact diabetes has on daily life. MyHealthTeams identified two key areas in which people living with diabetes know they want to improve - but aren't sure what to do or how to start:

  • Diet: 74% of those surveyed report they understand the importance of a healthy diet, but most do not know how to effectively change their eating habits. They want practical tips on foods to eat, recipes to try and grocery lists to follow. This is rarely offered in the doctor's office.
  • Exercise: 59% understand the importance of exercise, but 46% report their condition makes it hard to exercise and they're not sure how to start. They want specific tips from their doctors on ways to start exercising, even while dealing with the pain and fatigue that often accompanies diabetes.

Quality of Life Impact

Beyond high blood sugar, people with Type 2 Diabetes report experiencing a wide range of symptoms of the disease in the past year, including:

  • Fatigue (65%)
  • Numbness (53%)
  • Frequent Urination (52%)
  • Itching (46%)
  • Dry Feet (44%)
  • Intense Thirst (38%)
  • Neuropathy (31%)

The impact of diabetes on daily life is significant, with survey respondents reporting top challenges including:

  • Hard to sleep at night (51%)
  • Depression / anxiety (45%)
  • Difficult to be sexually active (43%)
  • Hard to do everyday chores (41%)
  • Interferes with social life (33%)

"What's clear is that managing blood sugar is just one piece of the diabetes puzzle, and people living with this condition are juggling a lot," said Eric Peacock, cofounder and CEO of MyHealthTeams. "The call to action across the healthcare ecosystem is to empower consumers with information and support to act as their own health advocates within this context. People need practical advice and emotional empathy. It's about much more than medicine."

This research was conducted among the more than 100,000 registered members of DiabetesTeam. 478 individuals responded to the online survey. Full survey findings are available at https://www.diabetesteam.com/resources/the-results-are-in-what-people-with-type-2-diabetes-want-most-from-their-doctors-is-information-not-new-treatments.

About MyHealthTeams
MyHealthTeams believes that if you are diagnosed with a chronic condition, it should be easy to find and connect with others like you. MyHealthTeams creates social networks for people living with a chronic health condition. Millions of people have joined one of the company's 34 highly engaged communities focusing on the following conditions: Crohn's and colitis, multiple sclerosis, lupus, fibromyalgia, pulmonary hypertension, spondylitis, eczema, myeloma, hyperhidrosis, rheumatoid arthritis, psoriasis, leukemia, lymphoma, irritable bowel syndrome, Parkinson's, Alzheimer's, epilepsy, hemophilia, hidradenitis suppurative, depression, heart disease, type 2 diabetes, osteoporosis, COPD, chronic pain, migraines, food allergies, obesity, HIV, PCOS, endometriosis, breast cancer and autism.  MyHealthTeams' social networks are available in 13 countries.

SOURCE MyHealthTeams

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http://myhealthteams.com

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