Revolutionary Scientists Honored for Advancements in Gene Therapy for Neuromuscular Diseases and RNA Discoveries: King Faisal Prize Laureates in Medicine, Professor Jerry Mendell, and in Science, Professor Howard Chang, Awarded

Riyadh, Saudi Arabia, April 22, 2024 (GLOBE NEWSWIRE) — During the 46th session of King Faisal Prize on April 22, exceptional accomplishments in the fields of gene therapy for neuromuscular diseases and groundbreaking RNA discoveries were acknowledged. Professor Jerry Mendell was awarded the Medicine Prize for his groundbreaking contributions to the screening, early diagnosis, and treatment of neuromuscular disorders, notably spinal muscular atrophy (SMA) and Duchenne muscular dystrophy (DMD). Professor Howard Chang received the Science Prize for unveiling the intrinsic role of long non–coding RNAs in gene regulation and function, a previously overlooked area of study.

Through innovative gene therapy approaches, Professor Mendell, the Director of Gene Therapy Center at Nationwide Children’s Hospital and Curran Peters Chair in Pediatric Research, has revolutionized treatment strategies, offering hope to countless patients worldwide.

Spinal muscular atrophy (SMA), once considered a leading genetic cause of infant mortality, has seen a paradigm shift in treatment due to Professor Mendell's pioneering efforts. By utilizing gene therapy to deliver crucial genes to affected cells, he has significantly improved outcomes for patients, leading in 2019 to the first–ever FDA–approved gene therapy treatment for pediatric SMA patients (Zolgensma®).

In addition to his work in SMA, Professor Mendell's research has extended to Duchenne muscular dystrophy and limb–girdle muscular dystrophy, showcasing the versatility and efficacy of gene therapy in addressing a spectrum of neuromuscular conditions. Genetic mutations in Duchenne muscular dystrophy (DMD) patients hinder the production of dystrophin, a crucial protein for muscle health. While initial symptoms primarily affect skeletal muscles, DMD progresses to impact cardiac and respiratory functions. Gene therapy offers a solution by addressing this genetic anomaly, allowing the body to produce dystrophin and halt muscle degeneration. In June 2023, the U.S. Food and Drug Administration approved the first treatment for pediatric DMD patients aged 4–5, utilizing a pioneering gene therapy co–developed by Professor Mendell and Professor Louise Rodino–Klapac, a former post–doctoral researcher in Mendell's lab. This therapy involves a single injection, delivering a micro–dystrophin gene within an adeno–associated virus serotype (AAVrh74), facilitating the transfer of missing or corrected genes to cells.

He has played a significant role in clinical trials targeting different forms of Limb–Girdle Muscular Dystrophy (LGMD), characterized by muscle weakness affecting the shoulders, upper arms, hips, and upper legs. One study particularly concentrated on LGMD2B, demonstrating that a single injection of a gene therapy vector effectively restored damaged muscle fibers, mitigating degeneration, and improving muscle function.

Professor Mendell boasts a portfolio of more than 400 published papers, a testament to his prolific contributions to the field. In acknowledgment of his achievements, he was honored with election to the National Academy of Medicine in 2021. The American Society of Gene and Cell Therapy bestowed upon him the prestigious Translational Science Award named in his honor. Furthermore, in 2017, Science Magazine recognized his groundbreaking work in SMA Gene Therapy with the esteemed Breakthrough Achievement Award. His accolades also include numerous other awards and invitations to deliver honorary lectures at esteemed institutions.

In his acceptance speech during the ceremony, Professor Mendell said, “The principles of the award that reflect King Faisal’s intent to relieve human suffering are consistent with my own views and lifetime achievements. I have done everything I could do to improve the quality and prolong life for patients afflicted with neuromuscular diseases.

On the frontier of molecular biology, Professor Howard Chang, a physician–scientist and Professor of Dermatology and Genetics, and Virginia and D.K. Ludwig Professor of Cancer Research at Stanford University, has been awarded King Faisal Prize for Science in Biology. Professor Chang's elucidation of the role of long non–coding RNAs (lncRNAs) in gene regulation has revolutionized our understanding of cellular processes and disease mechanisms.

Through innovative genome–wide methodologies, Professor Chang has uncovered the intricate interplay between lncRNAs and gene expression, shedding light on fundamental biological processes underlying development, cancer, and aging. Despite not encoding proteins, lncRNAs are crucial for controlling the timing and amount of protein production, impacting the overall function and behavior of cells.

Within each human cell, a remarkable feat of organization unfolds: 2 meters of DNA are tightly packed into a nucleus merely 10 microns in size. This dense packaging renders most of the DNA inaccessible, except for the active DNA elements crucial to the cell’s functioning and reading. Identifying these accessible elements unveils invaluable insights into the cellular “software.” His groundbreaking techniques lie in mapping chromatin—the substance constituting chromosomes, comprised of DNA and associated proteins governing genome structure and gene expression. This has provided unprecedented insights into the regulatory mechanisms governing gene expression, paving the way for novel therapeutic interventions and precision medicine approaches. One technique is the Assay of Transposase Accessible Chromatin, employing the Tn5 transposase enzyme to efficiently copy and paste DNA. This revolutionary technique has yielded a million–fold enhancement in sensitivity and a hundred–fold improvement in mapping speed for regulatory DNA—the epigenome—in human cells.

As the founder of the RNA Medicine Program at Stanford University, Professor Chang continues to spearhead efforts to translate RNA science into tangible clinical applications, furthering the promise of RNA–based therapeutics in treating a wide range of diseases. Prof. Chang’s honors include the NAS Award for Molecular Biology, Outstanding Investigator Award of the National Cancer Institute, Paul Marks Prize for Cancer Research, Judson Daland Prize of the American Philosophical Society, and the Vilcek Prize for Creative Promise. His work was honored by the journal Cell as a Landmark paper over the last 40 years and by Science as “Insight of the decade”.

In his acceptance speech during the ceremony, Professor Chang said, “Our research asked a basic question: how do cells decide when and where to switch different genes on? How do these decisions get passed over time? Our studies led us to a new class of RNAs, called long noncoding RNAs, that help cells remember their cell fates. Our understanding of the gene switches led to an understanding of how inherited genetic differences cause disease, especially immune diseases. This understanding also helped to tackle mutations that arise in cancer.”

In addition to honoring advancements in medicine and science, King Faisal Prize also recognized exemplary contributions in Islamic Studies and Service to Islam.  Professor Wael Hallaq, among the top 500 scholars in Islamic Studies globally, was awarded the Islamic Studies prize for his groundbreaking contributions in guiding the development of Islamic legislation and challenging the narrative of closing of the gate of ijtihad – interpreting Islamic texts – gained prominence, reshaping accepted paradigms in the field.

The Japan Muslim Association and Mr. Mohammad El Sammak were honored for their exemplary leadership in serving Islam and humanity. The Japan Muslim Association is a pioneering Islamic organization for Japanese Muslims, renowned for its historic translation of the Holy Quran into Japanese, and its defense of Muslims’ affairs in Japan. And, Mr. Mohammad El Sammak, a pioneer in dialogue and bridge–building between different faiths, has made a lasting impact in interfaith dialogue over five decades. He was awarded for his effective contributions to conferences exploring Islam's relationship with other beliefs and his leadership in institutions dedicated to tolerance and peace.

King Faisal Prize for Arabic Language & Literature for 2024 on the topic of “Non–Arab Institutions and their Endeavors to Promote Arabic” was withheld due to nominated works not elevating to the criteria of the prize.

Since 1979, King Faisal Prize in its 5 different categories has awarded 295 laureates who have made distinguished contributions to different sciences and causes. Each prize laureate is endowed with USD 200 thousand; a 24–carat gold medal weighing 200 grams, and a Certificate inscribed with the Laureate’s name and a summary of their work which qualified them for the prize.

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Distinguished Scientists with Breakthroughs in Gene Therapy for Neuromuscular Diseases, and Revolutionary RNA Discoveries , Announced as King Faisal Prize Laureates in Medicine & Science

Riyadh, Saudi Arabia, Jan. 10, 2024 (GLOBE NEWSWIRE) — Professor Jerry Mendell was announced this year’s laureate in King Faisal Prize for Medicine for his groundbreaking contributions to screening, early diagnosis, and treatment of neuromuscular disorders, and Professor Howard Chang was announced this year’s laureate in King Faisal Prize for Science in the field of Biology for his pioneering work in uncovering the significance of long non–coding RNAs in gene regulation and function and his collaborative efforts in advancing genome–wide methodologies to identify DNA regulatory regions. Other laureates’ names were announced to win King Faisal Prize in 2024 for enriching humanity with invaluable achievements and discoveries, and excelling in the fields of Islamic Studies and Serving Islam.   

Professor Jerry Mendell’s work lies in the screening, early diagnosis, and treatment of patients with spinal muscular atrophy (SMA), Duchenne muscular dystrophy (DMD), and limb girdle muscular dystrophies. The Prize’s Medicine topic for 2024 was “Management of Peripheral Disabilities”.

Spinal muscular atrophy (SMA) used to be considered the primary genetic contributor to infant mortality. Around 95% of infants that were diagnosed with SMA, did not survive beyond the age of two. Babies with SMA type 1 are missing a gene called survival motor neuron gene 1 (SMN1) which is vital for their development and its absence prevents them from moving, talking, swallowing, and eventually breathing. Professor Mendell, the Director of Gene Therapy Center at Nationwide Children’s Hospital and Curran Peters Chair in Pediatric Research, used gene–therapy to deliver a healthy gene (SMN1) to patients’ cells. He was the first to demonstrate the safety and efficacy of high doses of AAV–mediated gene transfer therapy for individuals diagnosed with SMA type 1. Adeno–associated viral vectors (AAV) are engineered viruses specifically designed to deliver DNA, and in the context of SMA treatment, they carry the genetic encoding of the healthy SMN gene. His therapeutic approach has garnered worldwide approval, and in 2019 the U.S. Food and Drug Administration granted approval for the first–ever gene therapy treatment for pediatric patients under 2 years of age diagnosed with SMA.

Gene–therapy has also been used by Professor Mendell to correct the genetic mutations for patients suffering from the most common form of muscular dystrophy; Duchenne muscular dystrophy (DMD), a progressive neuromuscular disease. In patients with DMD, genetic mutations prevent cells from making dystrophin; a protein responsible for developing and maintaining healthy muscle tissue. While initial symptoms in DMD patients manifest in skeletal muscles, the condition progresses to impact the heart and respiratory functions. Gene therapy serves to rectify this genetic abnormality, enabling the body to generate dystrophin and impede the ongoing degeneration of muscle tissue. In June 2023, the U.S. Food and Drug Administration approved the first treatment for pediatric patients 4–5 years old with DMD using the novel gene–therapy co–invented by Professor Mendell and Professor Louise Rodino–Klapac; a post–doctoral fellow in Mendell’s lab at the time. A single injection treatment involves administering a micro–dystrophin gene into an adeno–associated virus serotype (AAVrh74), facilitating the delivery of missing or corrected genes to cells.

Professor Mendell has been involved in clinical trials for gene therapy for limb–girdle muscular dystrophy (LGMD) including types 2E, 2B, and 2D. LGMD is an umbrella term that represents several rare types of muscular dystrophy that cause muscle weakness in shoulders, upper arms, hips, and upper legs. It is a chronic condition that affects people of all ages. In one of his studies, Prof. Mendell and his team used a single injection of a low dose of a gene therapy vector to address the primary cellular deficit associated with LGMD2B. The approach repaired the injured muscle fibers, reducing degeneration, and enhancing muscle function.

As author of over 400 papers, Prof. Mendell was elected to the National Academy of Medicine in 2021. He was also recognized by the American Society of Gene and Cell Therapy (ASGCT) with a Translational Science Award in his Name. Science Magazine awarded him the Breakthrough Achievement Award in 2017 for SMA Gene Therapy.

As for this year’s Science Prize in the field of Biology, Professor Howard Chang was announced the laureate, for unveiling the intrinsic role of long non–coding RNAs in gene regulation and function, and for his collaborative endeavors in advancing genome–wide methodologies identifying DNA regulatory regions. Such findings are significantly influencing the realms of molecular biology and genetics, contributing to a deeper understanding of intricate human diseases. His research addresses how large sets of genes are turned on or off together, a key point that helps understand normal development, cancer, and aging.

Professor Howard Chang, a physician–scientist, Professor of Dermatology and Genetics, and Virginia and D.K. Ludwig Professor of Cancer Research at Stanford University, has made significant contributions to the field of RNA medicines. His lab’s work has focused on understanding the roles of long noncoding RNAs (a genetic material found in cells) in biological regulation and their potential therapeutic applications. He discovered long sequences of RNA that, in contrast to the better–known messenger (mRNAs) responsible for protein synthesis, do not encode proteins. Prof. Chang discovered that these sequences play a role in influencing DNA accessibility. They act like a magnet for other RNA molecules and alter mRNA splicing, to affect gene expression, among other duties. Despite not encoding proteins, lncRNAs are crucial for controlling the timing and amount of protein production, impacting the overall function and behavior of cells.

In every human cell, 2 meters of DNA are packed in a 10–micron nucleus, so most of the DNA is highly compacted making most of it inaccessible except for the active DNA elements that the cell is using and reading. Discovering the location of these accessible elements provides insights into the cell's “software”. Prof. Chang’s lab has pioneered techniques to map the landscape of chromatin; the substance that forms chromosomes and consists of DNA and proteins that structure the genome and control gene expression. One groundbreaking technique innovated by Chang’s lab was the Assay of Transposase Accessible Chromatin, which used an enzyme called Tn5 transposase which copies and pastes DNA. This technique led to a million–fold improvement in the sensitivity and hundred–fold improvement in the speed of mapping regulatory DNA – the epigenome– in human cells.

His work unraveled mechanisms and targets in various human diseases, notably cancer, immunity, and development. His recent investigations into extrachromosomal DNA in cancer revealed key findings. Prof. Chang also established the RNA Medicine Program at Stanford, which works to accelerate the discovery and translation of RNA science into human therapeutics.

Prof. Chang’s honors include the NAS Award for Molecular Biology, Outstanding Investigator Award of the National Cancer Institute, Paul Marks Prize for Cancer Research, Judson Daland Prize of the American Philosophical Society, and the Vilcek Prize for Creative Promise. His work was honored by the journal Cell as a Landmark paper over the last 40 years and by Science as “Insight of the decade”.

In addition to Medicine and Science, King Faisal Prize recognized this year the achievements of an outstanding thinker and scholar in the field of Islamic Studies and exemplary leaders who played a pivotal role in serving Islam, Muslims, and humanity at large.

Professor Wael Hallaq, the Avalon Foundation Professor in the Humanities at Columbia University, was selected to receive the “Islamic Studies” prize in “Islamic Legislations and their Contemporary Applications” for 2024. He has provided an academic reference, parallel to the traditional Orientalist writings, that influenced universities around the world. This was evident in his numerous works that were translated into many languages, and his success in establishing a guideline for the development of Islamic legislation.

As for the Service to Islam Prize, the Japan Muslim Association and Dr. Mohammad Sammak, were announced as co–laureates for this year’s 2024 prize.

King Faisal Prize for Arabic Language & Literature for 2024 on the topic of “Non–Arab Institutions and their Endeavors to Promote Arabic” was withheld due to nominated works not elevating to the criteria of the prize.

King Faisal Prize's laureates names for 2024 were announced today in Riyadh Saudi Arabia, by HRH Prince Turki Alfaisal and the Prize's Secretary General Dr. Abdulaziz Alsebail. Since 1979, King Faisal Prize in its 5 different categories has awarded 295 laureates who have made distinguished contributions to different sciences and causes. Each prize laureate is endowed with USD 200 thousand; a 24–carat gold medal weighing 200 grams, and a Certificate inscribed with the Laureate’s name and a summary of their work which qualified them for the prize. 

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