For childhood cancer survivors, treatment helps them to live, but often that survival comes at a cost. But what are these costs? And how big is the problem? That’s what St. Baldrick’s Fellow Dr. Nickhill Bhakta wanted to figure out. And as it turns out, that data could be a lifesaver.
St. Baldrick’s Fellow Dr. Nickhill Bhakta works at his desk in St. Jude Children’s Research Hospital. With a portion of the grant supported by the St. Baldrick’s Friends for Hope Fund, he developed a special statistical tool to help capture the true volume and complexity of chronic health conditions faced by childhood cancer survivors because of the long-term consequences of their treatment — something that hadn’t been done before. Photos courtesy of St. Jude Children’s Research Hospital
Susan L. Cohn, M.D., chair of the St. Baldrick’s Scientific Advisory Committee and world renowned neuroblastoma expert, explains what neuroblastoma is and how St. Baldrick’s research is contributing to better outcomes for patients.
When the St. Baldrick’s Foundation announced its latest grant recipients today – via a press release that you can see here: Press Release – we were pleased to report that more than $17 million was awarded to a total of 55 recipients.
To put that into perspective, we award $27 million toward grants and advocacy efforts this year, so this represents the largest of our funding cycles during the year. (A complete list of the institutions that were awarded grants can be found at the end of this blog post. )
The St. Baldrick’s Foundation has announced its 2018 Infrastructure Grant recipients. In total, the grants amount to more than $1.7 million and will be spread across 29 US-based institutions.
Just mentioning herpes might make some people a little nervous, but in this story, herpes is the good guy. Read on for more about St. Baldrick’s Scholar Dr. Gregory Friedman’s work on a genetically altered version of the virus that could be the next targeted therapy for kids with brain tumors.
BREAKING NEWS: An innovative therapeutic tool developed by Dr. Friedman has proven to be safe in kids with high-grade gliomas, according to recently released clinical trial findings. Crafted from the herpes virus that causes cold sores, the genetically modified virus has already shown promise in killing cancer cells and stimulating the immune system to attack the brain tumor – with one patient still showing progress more than a year after treatment! In the next phase of research, Dr. Friedman will study how safe the viral tool is when combined with one low dose of radiation, which is expected to boost the immune system and help the virus replicate.
Dr. Friedman smiles with a young patient in an exam room at Children’s of Alabama.
St. Baldrick’s Scholar Dr. Gregory Friedman discovered that the herpes simplex virus, with a few modifications, will kill pediatric brain cancer cells — without causing cold sores.
1. Each year, more children diagnosed with cancer will be cured, joining the growing population of long-term childhood cancer survivors.
Thanks to advances in chemotherapy, radiation and surgical techniques, more children and adolescents are being cured of cancer every year. Today, there are over 420,000 survivors of childhood cancer in the United States, representing approximately 1 in 750 young adults, and that number is expected to exceed 500,000 by the year 2020.
With its recent commitment of $500,000 for the Target Pediatric AML initiative, the St. Baldrick’s Foundation adds another chapter to its long story of support for innovative and impactful research in childhood acute myeloid leukemia (AML).
While great progress has been made over many decades to help children survive the most common childhood cancer – acute lymphoblastic leukemia (ALL) – the same has not held true for children with AML.
St. Baldrick’s is helping change that.
Jason Yustein, M.D., Ph.D., a St. Baldrick’s Scholar at Baylor College of Medicine in Houston, Texas, explains Ewing sarcoma symptoms, treatment options, and research opportunities.
What is Ewing sarcoma?
Ewing sarcoma is a type of childhood cancer that is most frequently found in children and adolescents between the ages of 10 and 20 years old.
Ewing sarcoma — the second most common bone cancer after osteosarcoma — often originates in the long, large bones of the body, including the hip, thigh, shin, chest, and arm bones.
It is said that to defeat an enemy, you must know them — and that’s exactly what St. Baldrick’s Scholar Dr. Grzegorz Nalepa is doing. The enemy? Childhood cancer. His weapon? Genomics — the study of all the genes within an organism, like a human child with cancer for instance. Who is winning? Read on to find out. (Hint, hint…it’s the good guy.)
St. Baldrick’s Scholar Dr. Grzegorz Nalepa amuses a young patient by making her the doctor, instead of him.
For St. Baldrick’s Scholar Dr. Grzegorz Nalepa, childhood cancer treatment can’t be one-size-fits-all. To be successful, it needs to be personal.
That’s why this physician-scientist studies what makes everyone unique, including kids with cancer – genes.
With support from St. Baldrick’s and a deep passion for the field of genomics, Dr. Nalepa is studying how the genetic changes, or mutations, present in kids with leukemia can be exploited to create targeted therapies against that cancer, with few side effects.
St. Baldrick’s Scholar Dr. David Barrett gives us an inside look at immunotherapy, and we meet the first pediatric patient to ever receive this new cancer treatment.
Emily Whitehead, the first pediatric patient to be treated with immunotherapy, 18 months post-treatment and starting third grade.
For most of us, our immune systems fight off disease every day. A healthy immune system can even fight off life-threatening diseases like cancer. And when we do get sick, a healthy immune system attacks sickness and help us get back to feeling like ourselves again.
It is a different story for kids with cancer. A child with cancer has a suppressed immune system. It’s as if a blindfold has been pulled down, and the body is unable to target invasive cells. You might say the immune system is asleep.
What if doctors could wake up a sleeping immune system?
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