The Top CIRM Blogs of 2019

This year the most widely read blog was actually one we wrote back in 2018. It’s the transcript of a Facebook Live: “Ask the Stem Cell Team” event about strokes and stroke recovery. Because stroke is the third leading cause of death and disability in the US it’s probably no surprise this blog has lasting power. So many people are hoping that stem cells will help them recover from a stroke.

But of the blogs that we wrote and posted this year there’s a really interesting mix of topics.

The most read 2019 blog was about a potential breakthrough in the search for a treatment for type 1 diabetes (T1D).  Two researchers at UC San Francisco, Dr. Matthias Hebrok and Dr. Gopika Nair developed a new method of replacing the insulin-producing cells in the pancreas that are destroyed by type 1 diabetes. 

Dr. Matthias Hebrok
Dr. Gopika Nair

Dr. Hebrok described it as a big advance saying: “We can now generate insulin-producing cells that look and act a lot like the pancreatic beta cells you and I have in our bodies. This is a critical step towards our goal of creating cells that could be transplanted into patients with diabetes.”

It’s not too surprising a blog about type 1 diabetes was at the top. This condition affects around 1.25 million Americans, a huge audience for any potential breakthrough. However, the blog that was the second most read is the exact opposite. It is about a rare disease called cystinosis. How rare? Well, there are only around 500 children and young adults in the US, and just 2,000 worldwide diagnosed with this condition.  

It might be rare but its impact is devastating. A genetic mutation means children with this condition lack the ability to clear an amino acid – cysteine – from their body. The buildup of cysteine leads to damage to the kidneys, eyes, liver, muscles, pancreas and brain.

Dr. Stephanie Cherqui

UC San Diego researcher Dr. Stephanie Cherqui and her team are taking the patient’s own blood stem cells and, in the lab, genetically re-engineering them to correct the mutation, then returning the cells to the patient. It’s hoped this will create a new, healthy blood system free of the disease.

Dr. Cherqui says if it works, this could help not just people with cystinosis but a wide array of other disorders: “We were thrilled that the stem cells and gene therapy worked so well to prevent tissue degeneration in the mouse model of cystinosis. This discovery opened new perspectives in regenerative medicine and in the application to other genetic disorders. Our findings may deliver a completely new paradigm for the treatment of a wide assortment of diseases including kidney and other genetic disorders.”

Sickled cells

The third most read blog was about another rare disease, but one that has been getting a lot of media attention this past year. Sickle cell disease affects around 100,000 Americans, mostly African Americans. In November the Food and Drug Administration (FDA) approved Oxbryta, a new therapy that reduces the likelihood of blood cells becoming sickle shaped and clumping together – causing blockages in blood vessels.

But our blog focused on a stem cell approach that aims to cure the disease altogether. In many ways the researchers in this story are using a very similar approach to the one Dr. Cherqui is using for cystinosis. Genetically correcting the mutation that causes the problem, creating a new, healthy blood system free of the sickle shaped blood cells.

Two other blogs deserve honorable mentions here as well. The first is the story of James O’Brien who lost the sight in his right eye when he was 18 years old and now, 25 years later, has had it restored thanks to stem cells.

The fifth most popular blog of the year was another one about type 1 diabetes. This piece focused on the news that the CIRM Board had awarded more than $11 million to Dr. Peter Stock at UC San Francisco for a clinical trial for T1D. His approach is transplanting donor pancreatic islets and parathyroid glands into patients, hoping this will restore the person’s ability to create their own insulin and control the disease.

2019 was certainly a busy year for CIRM. We are hoping that 2020 will prove equally busy and give us many new advances to write about. You will find them all here, on The Stem Cellar.

CIRM’s Alpha Stem Cell Clinics Given High Profile Role in Clinical Trials Network

Sue and Bill Gross Hall Photo by Hoang Xuan Pham/ UC Irvine

There are a growing number of predatory clinics in California and around the US, offering unproven stem cell therapies. For patients seeking a legitimate therapy it can often be hard finding a reliable clinic, one offering treatments based on the rigorous science required in a clinical trial sanctioned by the US Food and Drug Administration (FDA). That’s one of the reasons why the California Institute for Regenerative Medicine (CIRM) created the CIRM Alpha Stem Cell Clinic Network and we are delighted the clinics have now been chosen as a Core program of the American Society of Hematology (ASH) Sickle Cell Disease (SCD) Collaborative Trials Network. 

The Alpha Clinics are a network of top California medical centers that specialize in delivering stem cell clinical trials to patients. It consists of five leading medical centers throughout California: City of Hope, University of California (UC) San Diego, UC Irvine & UC Los Angeles, UC Davis and UC San Francisco.

The mission of the ASH Research Collaborative SCD Clinical Trials Network is to improve outcomes for individuals with Sickle Cell Disease by promoting innovation in therapy development and clinical trial research.

Like CIRM, the ASH Clinical Trials Network is a member of the National Heart, Lung and Blood Institute’s Cure Sickle Cell Initiative. This is a collaborative partnership to accelerate the development of genetic therapies to cure SCD within five to ten years.

“The key to finding a cure for this crippling disease, and finding it quickly, is to work together”, says Maria T. Millan, MD, President & CEO of CIRM. “That’s why we are delighted to be chosen as a core program for the ASH Sickle Cell Disease Clinical Trials Network. This partnership means we can share data and information about best practices to help us improve the quality of the research being done and the clinical care we can offer patients. We already have 23 clinical stage therapies in cell and gene therapy, including two clinical trials targeting SCD, so we feel we have a lot to bring to the partnership in terms of experience and expertise.”

Sickle Cell disease is a life-threatening blood disorder that affects 100,000 people, mostly African Americans, in the US. It is caused by a single genetic mutation that results in the production of “sickle” shaped red blood cells that can block blood vessels causing intense pain, recurrent hospitalization, multi-organ damage and strokes.    

According to Mark Walters, MD, Director of UCSF Benioff Children’s Hospital Oakland’s Blood and Marrow Transplantation program, ”the currently available drugs treat the symptoms of  sickle cell disease but are not a cure.

“We hear a lot about the moonshot for curing cancer, but a moonshot for curing sickle cell disease should also be possible. Sickle cell disease was the first genetic disease that was discovered, and wouldn’t it be great if it is also one of the first ones we can cure in everyone?”

It is hoped that creating this network of clinical trial sites across the US will better serve an historically under-served population.

  • Establishing links and educational materials across these sites can increase patient engagement and recruitment
  • Standardizing resources across the network can ensure efficiency and coordination
  • Improving the training of clinical research staff can promote patient safety and trust and increase research quality

The CIRM Alpha Clinics Network has a proven track record of creating a faster, more streamlined approach in running clinical trials. It has developed the tools and systems to simultaneously launch clinical trials at multiple sites; created model non-disclosure agreements to make it easier for clinical trial sponsors to sign up; created a system to enable one Institutional Review Board (IRB) to approve a trial to be carried out at multiple sites rather than requiring each site to have its own IRB approval; developed best practices to quickly share experience and expertise across the network; and set up a database of over 20 million Californians to improve patient recruitment.

An Executive Summary prepared for the Western States Sickle Cell Disease Clinical Trials Network said: “the ASCC provides a formidable clinical trial unit uniquely qualified to deliver the next generation of cell and gene therapy products for SCD.”

What would you like to know about stem cell research? This is your chance to ask the experts.

There’s a lot of fiction, a lot of misinformation surrounding stem cells and stem cell research. There are claims that are not based on solid science and clinics that are offering so-called “treatments” that are unproven, even dangerous for patients. Now you have a chance to talk to the experts in the field and get solid answers from them about what’s working, what’s not, and how you can find a therapy that might be appropriate for you.

Do you have questions about the latest in research using stem cells to help people recovering from a stroke? We’ll have someone who can answer them.

Want to know if stem cells can help people battling cancer? Or what’s happening in finding a stem cell treatment for diabetes or sickle cell disease, even autism, Alzheimer’s or Parkinson’s disease? We’ll have experts to answers those.

This is all happening in a special Facebook Live “Ask the Stem Cell Team” event on Thursday, December 12th from 10.30am to 11.30am PDT. To take part all you have to do is tune in on the day and post a question or you can send us one ahead of time at info@cirm.ca.gov

We will do our best to answer as many of them as we can during the Facebook Live event, and those we don’t have time to get to we’ll answer in a blog at a later date.

So join us.

Rare disease meeting at California Capitol stresses importance of advocacy, funding, and new research

Dr. Martin Cadeiras (far left), who specializes in cardiovascular medicine at UC Davis, discusses the rare disease amyloidosis. Next to Dr. Cadeiras is Len Strickland, a patient advocates who shares his perspective on living with the disease.

“By changing policy, we can change lives”

A powerful opening statement by Angela Ramirez Holmes, Founder & President of the California Action Link for Rare Diseases (CAL RARE).

Tuesday of last week, patient advocates, patient advocacy organizations, and members of the public filled a room at the California Capitol for an informational hearing on research related to rare diseases. One of the organizations present was CAL RARE, a non-profit organization that is dedicated to improving the lives of California patients with rare diseases. Angela’s opening statement reflects CAL RARE’s core mission of bringing awareness of rare diseases to the general public and decision makers in order to improve access to physicians, treatments, and social services.

Dr. Martin Cadeiras

One of the first presenters was Dr. Martin Cadeiras from the Department of Cardiovascular Medicine at UC Davis. His presentation focused on a rare disease named amyloidosis, which occurs when a protein called amyloid builds up in the body’s organs and tissues. This can lead to problems in the heart, skin, kidneys, liver, and digestive tract. There are several different types of amyloidosis, one of which is hereditary and another form that can occur after chronic infection. Dr. Cadeiras spoke in detail about the scientific complexities behind amyloidosis and shared images of patients affected with the disease as well as the complications associated with their condition.

Len Strickland

To elaborate more on the patient perspective of this disease, patient advocate Len Strickland shared his journey living with amyloidosis. In addition to living with the disease, Len also has the sickle cell trait, meaning he has one copy of the sickle cell disease gene but one normal copy.

In his early life, Len was a typical young adult with no health problems. Unfortunately for him that changed in 2006, when he started having problems with shortness of breath and heart palpitations almost overnight. He visited many doctors, all of which were perplexed by his condition and were unable to diagnose him.

“My normal life was gone, and I was very concerned.” said Strickland.

One year later, after multiple tests and specialists, he was finally diagnosed with the hereditary version of amyloidosis. As a result of his condition, he was in dire need of a heart transplant. On March 4, 2008 he was placed on the transplant list. Because he was relatively lower on the priority list, he was told to keep hope to a minimum. Fortunately, on June 10, 2008 a matching donor heart was found and by the next day, Len had successfully received the heart transplant.

Len wrote a thank you letter to the mother of the deceased donor and regularly keeps in touch with her. She hopes to one day meet Len in person so that she can hug Len and hear her son’s heartbeat.

Although the amyloid deposits have spread to Len’s hand and feet, he is still able to live his life.

Len ended his speech by telling the crowd,

“Make the best of the time you have, if I can do it, so can you.”

Dr. Lauge Farnaes

The challenges Len faced with getting a proper diagnosis brought up the need for technology that can better screen rare diseases. The next presenter, Dr. Lauge Farnaes of Rady Children’s Institute for Genomic Medicine, discussed a project that focused on just that. Under a two million dollar Medi-Cal program titled Project Baby Bear, Dr. Farnaes and his team have used genome sequencing as a diagnostic test for critically ill newborns. The ultimate goal is to get this screening as a Medi-Cal covered benefit.

Comprehensive early testing enables physicians to make early decisions about and minimize the damage accumulated before diagnosis. “We have a chance to go in early on and make a difference in the life of patients.” said Farnaes.

Dr. Farnaes told stories of some of the children enrolled in the screening program. One was a young girl that had problems related to the heart. She was enrolled February 6th and diagnosed two days later with Timothy Syndrome, making her one of the youngest patients ever diagnosed. She was implanted with a defibrillator to help with her heart problems. Dr. Farnaes had stated that without the screening, she would have likely just been prescribed beta blockers, which would only have worsened her condition.

Another child enrolled in the program had difficulty breathing as a result of bone fractures. Because of the bone fractures, it was thought that the child had undergone abuse at the hands of the parents. However, thanks to the screening technology, it was found to be the result of a genetic condition. Dr. Farnaes talked about how this technology vindicated the parents, who were already going through the difficult process of having a sick child without throwing other problems into the mix.

To date, 116 children have been diagnosed with genetic conditions early on using this technology and the number is expected to eventually approach 150.

Last, but not least, Assemblymember Mike Gipson shared an update on the work that the rare disease caucus has made with relation to sickle cell disease. He mentioned how the legislative black caucus had successfully advocated for allocating $15 million for sickle cell disease. This money will be used to open seven new sickle cell centers across California.

The meeting in the California Capitol highlighted the impact that patient stories have on policy, as well as the ongoing need of funding and new technologies to address the disparities in rare disease.

From bench to bedside: a Q&A with stem cell expert Jan Nolta

At CIRM we are privileged to work with many remarkable people who combine brilliance, compassion and commitment to their search for new therapies to help people in need. One of those who certainly fits that description is UC Davis’ Jan Nolta.

This week the UC Davis Newsroom posted a great interview with Jan. Rather than try and summarize what she says I thought it would be better to let her talk for herself.

Jan Nolta
Jan Nolta

Talking research, unscrupulous clinics, and sustaining the momentum

(SACRAMENTO) —

In 2007, Jan Nolta returned to Northern California from St. Louis to lead what was at the time UC Davis’ brand-new stem cell program. As director of the UC Davis Stem Cell Program and the Institute for Regenerative Cures, she has overseen the opening of the institute, more than $140 million in research grants, and dozens upon dozens of research studies. She recently sat down to answer some questions about regenerative medicine and all the work taking place at UC Davis Health.

Q: Turning stem cells into cures has been your mission and mantra since you founded the program. Can you give us some examples of the most promising research?

I am so excited about our research. We have about 20 different disease-focused teams. That includes physicians, nurses, health care staff, researchers and faculty members, all working to go from the laboratory bench to patient’s bedside with therapies.

Perhaps the most promising and exciting research right now comes from combining blood-forming

stem cells with gene therapy. We’re working in about eight areas right now, and the first cure, something that we definitely can call a stem cell “cure,” is coming from this combined approach.

Soon, doctors will be able to prescribe this type of stem cell therapy. Patients will use their own bone marrow or umbilical cord stem cells. Teams such as ours, working in good manufacturing practice facilities, will make vectors, essentially “biological delivery vehicles,” carrying a good copy of the broken gene. They will be reinserted into a patient’s cells and then infused back into the patient, much like a bone marrow transplant.

“Perhaps the most promising and exciting research right now comes from combining blood-forming stem cells with gene therapy.”

Along with treating the famous bubble baby disease, where I had started my career, this approach looks very promising for sickle cell anemia. We’re hoping to use it to treat several different inherited metabolic diseases. These are conditions characterized by an abnormal build-up of toxic materials in the body’s cells. They interfere with organ and brain function. It’s caused by just a single enzyme. Using the combined stem cell gene therapy, we can effectively put a good copy of the gene for that enzyme back into a patient’s bone marrow stem cells. Then we do a bone marrow transplantation and bring back a person’s normal functioning cells.

The beauty of this therapy is that it can work for the lifetime of a patient. All of the blood cells circulating in a person’s system would be repaired. It’s the number one stem cell cure happening right now. Plus, it’s a therapy that won’t be rejected. These are a patient’s own stem cells. It is just one type of stem cell, and the first that’s being commercialized to change cells throughout the body.

Q: Let’s step back for a moment. In 2004, voters approved Proposition 71. It has funded a majority of the stem cell research here at UC Davis and throughout California. What’s been the impact of that ballot measure and how is it benefiting patients?

We have learned so much about different types of stem cells, and which stem cell will be most appropriate to treat each type of disease. That’s huge. We had to first do that before being able to start actual stem cell therapies. CIRM [California Institute for Regenerative Medicine] has funded Alpha Stem Cell Clinics. We have one of them here at UC Davis and there are only five in the entire state. These are clinics where the patients can go for high-quality clinical stem cell trials approved by the FDA [U.S. Food and Drug Administration]. They don’t need to go to “unapproved clinics” and spend a lot of money. And they actually shouldn’t.

“By the end of this year, we’ll have 50 clinical trials.”

By the end of this year, we’ll have 50 clinical trials [here at UC Davis Health]. There are that many in the works.

Our Alpha Clinic is right next to the hospital. It’s where we’ll be delivering a lot of the immunotherapies, gene therapies and other treatments. In fact, I might even get to personally deliver stem cells to the operating room for a patient. It will be for a clinical trial involving people who have broken their hip. It’s exciting because it feels full circle, from working in the laboratory to bringing stem cells right to the patient’s bedside.

We have ongoing clinical trials for critical limb ischemia, leukemia and, as I mentioned, sickle cell disease. Our disease teams are conducting stem cell clinical trials targeting sarcoma, cellular carcinoma, and treatments for dysphasia [a swallowing disorder], retinopathy [eye condition], Duchenne muscular dystrophy and HIV. It’s all in the works here at UC Davis Health.

There’s also great potential for therapies to help with renal disease and kidney transplants. The latter is really exciting because it’s like a mini bone marrow transplant. A kidney recipient would also get some blood-forming stem cells from the kidney donor so that they can better accept the organ and not reject it. It’s a type of stem cell therapy that could help address the burden of being on a lifelong regime of immunosuppressant drugs after transplantation.

Q: You and your colleagues get calls from family members and patients all the time. They frequently ask about stem cell “miracle” cures. What should people know about unproven treatments and unregulated stem cell clinics?

That’s a great question.The number one rule is that if you’re asked to pay money for a stem cell treatment, don’t do it. It’s a big red flag.

When it comes to advertised therapies: “The number one rule is that if you’re asked to pay money for a stem cell treatment, don’t do it. It’s a big red flag.”

Unfortunately, there are unscrupulous people out there in “unapproved clinics” who prey on desperate people. What they are delivering are probably not even stem cells. They might inject you with your own fat cells, which contain very few stem cells. Or they might use treatments that are not matched to the patient and will be immediately rejected. That’s dangerous. The FDA is shutting these unregulated clinics down one at a time. But it’s like “whack-a-mole”: shut one down and another one pops right up.

On the other hand, the Alpha Clinic is part of our mission is to help the public get to the right therapy, treatment or clinical trial. The big difference between those who make patients pay huge sums of money for unregulated and unproven treatments and UC Davis is that we’re actually using stem cells. We produce them in rigorously regulated cleanroom facilities. They are certified to contain at least 99% stem cells.

Patients and family members can always call us here. We can refer them to a genuine and approved clinical trial. If you don’t get stem cells at the beginning [of the clinical trial] because you’re part of the placebo group, you can get them later. So it’s not risky. The placebo is just saline. I know people are very, very desperate. But there are no miracle cures…yet. Clinical trials, approved by the FDA, are the only way we’re going to develop effective treatments and cures.

Q: Scientific breakthroughs take a lot of patience and time. How do you and your colleagues measure progress and stay motivated?   

Motivation?  “It’s all for the patients.”

It’s all for the patients. There are not good therapies yet for many disorders. But we’re developing them. Every day brings a triumph. Measuring progress means treating a patient in a clinical trial, or developing something in the laboratory, or getting FDA approval. The big one will be getting biological license approval from the FDA, which means a doctor can prescribe a stem cell or gene therapy treatment. Then it can be covered by a patient’s health insurance.

I’m a cancer survivor myself, and I’m also a heart patient. Our amazing team here at UC Davis has kept me alive and in great health. So I understand it from both sides. I understand the desperation of “Where do I go?” and “What do I do right now?” questions. I also understand the science side of things. Progress can feel very, very slow. But everything we do here at the Institute for Regenerative Cures is done with patients in mind, and safety.

We know that each day is so important when you’re watching a loved one suffer. We attend patient events and are part of things like Facebook groups, where people really pour their hearts out. We say to ourselves, “Okay, we must work harder and faster.” That’s our motivation: It’s all the patients and families that we’re going to help who keep us working hard.

Breaking bad news to stem cell researchers

It’s never easy to tell someone that they are too late, that they missed the deadline. It’s particularly hard when you know that the person you are telling that to has spent years working on a project and now needs money to take it to the next level. But in science, as in life, it’s always better to tell people what they need to know rather than what they would like to hear.

And so, we have posted a notice on our website for researchers thinking about applying for funding that, except in a very few cases, they are too late, that there is no money available for new projects, whether it’s Discovery, Translational or Clinical.

Here’s that notice:

CIRM anticipates that the budget allocation of funds for new awards under the CIRM clinical program (CLIN1, CLIN2 and CLIN3) may be depleted within the next two to three months. CIRM will accept applications for the monthly deadline on June 28, 2019 but will suspend application submissions after that date until further notice. All applicants should note that the review of submitted applications may be halted at any point in the process if funds are depleted prior to completion of the 3-month review cycle. CIRM will notify applicants of such an occurrence. Therefore, submission and acceptance of an application to CIRM does not guarantee the availability of funds or completion of a review cycle.

The submission of applications for the CIRM/NHLBI Cure Sickle Cell Initiative (CLIN1 SCD, CLIN2 SCD) are unaffected and application submissions for this program will remain open.

We do, of course, have enough money set aside to continue funding all the projects our Board has already approved, but we don’t have money for new projects (except for some sickle cell disease projects).

In truth our funding has lasted a lot longer than anyone anticipated. When Proposition 71 was approved the plan was to give CIRM $300 million a year for ten years. That was back in 2004. So what happened?

Well, in the early years stem cell science was still very much in its infancy with most of the work being done at a basic or Discovery level. Those typically don’t require very large sums so we were able to fund many projects without hitting our $300m target. As the field progressed, however, more and more projects were at the clinical trial stage and those need multiple millions of dollars to be completed. So, the money went out faster.

To date we have funded 55 clinical trials and our early support has helped more than a dozen other projects get into clinical trials. This includes everything from cancer and stroke, to vision loss and diabetes. It’s a good start, but we feel there is so much more to do.

Followers of news about CIRM know there is talk about a possible ballot initiative next year that would provide another $5.5 billion in funding for us to help complete the mission we have started.

Over the years we have built a pipeline of promising projects and without continued support many of those projects face a difficult future. Funding at the federal level is under threat and without CIRM there will be a limited number of funding alternatives for them to turn to.

Telling researchers we don’t have any money to support their work is hard. Telling patients we don’t have any money to support work that could lead to new treatments for them, that’s hardest of all.

CIRM & NHLBI Create Landmark Agreement on Curing Sickle Cell Disease

CIRM Board approves first program eligible for co-funding under the agreement

Adrienne Shapiro, co-founder of Axis Advocacy, with her daughter Marissa Cors, who has Sickle Cell Disease.

Sickle Cell disease (SCD) is a painful, life-threatening blood disorder that affects around 100,000 people, mostly African Americans, in the US. Even with optimal medical care, SCD shortens expected lifespan by decades.  It is caused by a single genetic mutation that results in the production of “sickle” shaped red blood cells.  Under a variety of environmental conditions, stress or viral illness, these abnormal red blood cells cause severe anemia and blockage of blood vessels leading to painful crisis episodes, recurrent hospitalization, multi-organ damage and mini-strokes.    

On April 29th the governing Board of the California Institute for Regenerative Medicine (CIRM) approved $4.49 million to Dr. Mark Walters at UCSF Benioff Children’s Hospital in Oakland to pursue a gene therapy cure for this devastating disease. The gene therapy approach uses CRISPR-Cas9 technology to correct the genetic mutation that leads to sickle cell disease. This program will be eligible for co-funding under the landmark agreement between CIRM and the National Heart, Lung and Blood Institute (NHLBI) of the NIH.

This CIRM-NHLBI agreement was finalized this month to co-fund cell and gene therapy programs under the NIH “Cure Sickle Cell” initiative.  The goal is to markedly accelerate the development of cell and gene therapies for SCD. It will deploy CIRM’s resources and expertise that has led to a portfolio of over 50 clinical trials in stem cell and regenerative medicine.     

“CIRM currently has 23 clinical stage programs in cell and gene therapy.  Given the advancements in these approaches for a variety of unmet medical needs, we are excited about the prospect of leveraging this to NIH-NHLBI’s Cure Sickle Cell Initiative,” says Maria T. Millan, M.D., the President and CEO of CIRM. “We are pleased the NHLBI sees value in CIRM’s acceleration and funding program and look forward to the partnership to accelerate cures for sickle cell disease.”

“There is a real need for a new approach to treating SCD and making life easier for people with SCD and their families,” says Adrienne Shapiro, the mother of a daughter with SCD and the co-founder of Axis Advocacy, a sickle cell advocacy and education organization. “Finding a cure for Sickle Cell would mean that people like my daughter would no longer have to live their life in short spurts, constantly having their hopes and dreams derailed by ER visits and hospital stays.  It would mean they get a chance to live a long life, a healthy life, a normal life.”

CIRM is currently funding two other clinical trials for SCD using different approaches.  One of these trials is being conducted at City of Hope and the other trial is being conducted at UCLA.

Mending Stem Cells: The Past, Present & Future of Regenerative Medicine

UCSF’s Mission Bay Campus

For years we have talked about the “promise” and the “potential” of stem cells to cure patients. But more and more we are seeing firsthand how stem cells can change a patient’s life, even saving it in some cases. That’s the theme of the 4th Annual CIRM Alpha Stem Cell Clinics Network Symposium.

It’s not your usual symposium because this brings together all the key players in the field – the scientists who do the research, the nurses and doctors who deliver the therapies, and the patients who get or need those therapies. And, of course, we’ll be there; because without CIRM’s funding to support that research and therapies none of this happens.

We are going to look at some of the exciting progress being made, and what is on the horizon. But along the way we’ll also tackle many of the questions that people pose to us every day. Questions such as:

  • How can you distinguish between a good clinical trial offering legitimate treatments vs a stem cell clinic offering sham treatments?
  • What about the Right to Try, can’t I just demand I get access to stem cell therapies?
  • How do I sign up for a clinical trial, and how much will it cost me?
  • What is the experience of patients that have participated in a stem cell clinical trial?

World class researchers will also talk about the real possibility of curing diseases like sickle cell disease on a national scale, which affect around 100,000 Americans, mostly African Americans and Hispanics. They’ll discuss the use of gene editing to battle hereditary diseases like Huntington’s. And they’ll highlight how they can engineer a patient’s own immune system cells to battle deadly cancers.

So, join us for what promises to be a fascinating day. It’s the cutting edge of science. And it’s all FREE.

Here’s where you can go to find out more information and to sign up for the event.

CRISPR-Cas9 101: an overview and the role it plays in developing therapies

Illustration courtesy of TED website

There has been a lot of conversation surrounding CRISPR-Cas9 in these recent months as well as many sensational news stories. Some of these stories highlight the promise this technology holds, while others emphasize a word of caution. But what exactly does this technology do and how does it work? Here is a breakdown that will help you better understand.

To start off, CRISPR is a naturally occurring process found in bacteria used as an immune system to defend against viruses. CRISPR simply put, are strands of DNA segments that contain repeating patterns. There are “scissor like” CRISPR proteins that have the ability to cut DNA segments. When a copy of a virus enters the bacteria, these “scissor like” proteins cut a segment of DNA from the virus and insert it into CRISPR. A copy of the viral DNA is made and another “attack” protein known as Cas9 attaches to it. By binding to the viral copy, Cas9 is able to sense that virus. When the same virus tries to enter the bacteria, Cas9 is able to seek and destroy it.

You can view a more detailed video explaining this concept below.

Many scientists analyzed this process in detail and it was eventually discovered that this CRISPR-Cas9 complex could be used to removed unwanted genes and insert a corrected copy, revolutionizing the way that we view the approach towards treating a wide variety of genetic diseases.

In fact, researchers at the Dana-Farber/Boston Children’s Cancer and Blood Disorders Center and the University of Massachusetts Medical School have developed a strategy using this complex to treat two inherited, lethal blood disorders, sickle cell disease (SCD) and beta thalassemia. Both of these diseases involve a mutation that effects production of red blood cells, which are produced by blood stem cells. In beta-thalassemia, the mutation prevent red blood cells from being able to carry enough oxygen, leading to anemia. In SCD, the mutations cause red blood cells to take on a “sickle” shape which can block blood vessels.

By using CRISPR-Cas9 to insert a corrected copy of the gene into a patient’s own blood stem cells, this team demonstrated that functional red blood cells can then be produced. These results pay the way for other blood disorders as well.

In a press release , Dr. Daniel Bauer, an attending physician with Dana-Farber and a senior author on both of these studies stated that,

“Combining gene editing with an autologous stem-cell transplant could be a therapy for sickle-cell disease, beta-thalassemia and other blood disorders.”

In a separate study, scientists at University of Massachusetts Medical School have developed a strategy that could be used to treat genetic disorders associated with unintentional repeats or copies of small DNA segments. These problematic small segments of DNA are called microduplications and cause as many as 143 different diseases, including limb-girdle muscular dystrophy, Hermansky-Pudlak syndrome, and Tay-Sachs.

Because these are issues caused by repeats or copies of small DNA segments, the CRISPR-Cas9 complex can be used to remove microduplications without having to insert any additional genetic material.

Dr. Scot A. Wolfe, a co-investigator of this study, stated that,

“It’s like hitting the reset button. We don’t have to add any corrective genetic material, instead the cell stitches the DNA back together minus the duplication. It’s a shortcut for gene correction with potential therapeutic appeal.”

Although there has been a lot progress made with this technology, there are still concerns that need to be addressed. An article in Science mentions how two studies have shown that CRISPR can still make unintended changes to DNA, which can be potentially dangerous. In the article, Dr. Jin-Soo Kim, a CRISPR researcher at Seoul National University is quoted as saying,

“It is now important to determine which component is responsible for the collateral mutations and how to reduce or avoid them.”

Overall, CRISPR-Cas9 has revolutionized the approach of precision medicine. A wide variety of diseases are caused by small, unexpected segments of DNA. By applying this approach found in bacteria to humans, we have uncovered a way to correct these segments at the microscopic level. However, there is still much that needs to be learned and perfected before it can be utilized in patients.

Facebook Live – Ask the Stem Cell Team about Patient Advocacy

How often do you get to ask an expert a question about something that matters deeply to you and get an answer right away? Not very often I’m guessing. That’s why CIRM’s Facebook Live “Ask the Stem Cell Team About Patient Advocacy” gives you a chance to do just that this Thursday, March 14th from noon till 1pm PST.

We have three amazing individuals who will share their experiences, their expertise and advice as Patient Advocates, and answer your questions about how to be an effective advocate for your cause.

The three are:

Gigi McMillan became a Patient Advocate when her 5-year-old son was diagnosed with a brain tumor. That led her to helping develop support systems for families going through the same ordeal, to help researchers develop appropriate consent processes and to campaign for the rights of children and their families in research.

Adrienne Shapiro comes from a family with a long history of Sickle Cell Disease (SCD) and has fought to help people with SCD have access to compassionate care. She is the co-founder of Axis Advocacy, an organization dedicated to raising awareness about SCD and support for those with it. In addition she is now on the FDA’s Patient Engagement Collaborative, a new group helping the FDA ensure the voice of the patient is heard at the highest levels.

David Higgins is a CIRM Board member and a Patient Advocate for Parkinson’s Disease. David has a family history of the disease and in 2011 was diagnosed with Parkinson’s. As a scientist and advocate he has championed research into the disease and worked to raise greater awareness about the needs of people with Parkinson’s.

Also, make sure to “like” our FaceBook page before the event to receive a notification when we’ve gone live for this and future events. If you miss the broadcast, not to worry. We’ll be posting it on our Facebook video page, our website, and YouTube channel shortly afterwards.

We want to answer your most pressing questions, so please email them directly to us beforehand at info@cirm.ca.gov.

And, of course, feel free to share this information with anyone you think might be interested.