Strategic Funding Accelerates Research
- Created on June 19, 2014
Strategic Funding Accelerates ResearchBy Matt Windsor • Illustrations by Ernie Eldredge
In July 2005, after months of troubling symptoms, inconclusive tests, and incomplete answers, Ken Cater finally received the definitive diagnosis he wanted—and the answer he dreaded. Cater, like actor Michael J. Fox, had early-onset Parkinson’s disease.
“I went into that spot where you don’t like to go and had my moment and cried on the sofa with my dog and family,” says Cater, an executive at SSOE Group, a global engineering firm. “After that I didn’t look back. I’m an engineer. I’m used to having a problem, finding a solution, and moving on.”
Cater arranged a meeting with Ray L. Watts, M.D., an international expert on Parkinson’s disease who was then chair of the UAB Department of Neurology and is now the university’s president. “I said, ‘What can I do to help?’” Cater recalls. Watts said his top priority was recruiting David Standaert, M.D., Ph.D., to UAB from Harvard University. “Dr. Watts said, ‘He’s the best there is, and I want to get him here,’” says Cater. “I responded, ‘What do we have to do to make that happen?’”
Cater’s financial support, along with Watts’s vision for a new kind of research program, helped convince Standaert to come to Birmingham to lead the UAB Center for Neurodegeneration and Experimental Therapeutics, known as CNET. The center’s mission is “to accelerate progress,” Standaert explains. “Dr. Watts and I are both physicians, and we’ve been treating patients with Parkinson’s and other diseases for a long time. We work with patients every day who are desperate for a cure, and we really felt there was a need for a group that would try to move this agenda forward, to take the discoveries going on in the lab and turn them into therapies.”
To attain that goal, Standaert launched his own recruiting drive. In seven years, CNET has grown “from just me to 50 scientists, students, postdocs, and staff,” Standaert says. “And we’re still recruiting.” CNET researchers have contributed to an explosion in Parkinson’s discoveries, says Standaert, who is now chair of the Department of Neurology. “The amount we’ve learned in the past five years exceeds everything we knew from the previous 200 years.”
CNET is a major participant in the Alabama Drug Discovery Alliance (ADDA), a partnership among UAB, Southern Research Institute, and the Birmingham Business Alliance that is designed to speed the translation of UAB discoveries into clinic-ready treatments. CNET researchers already have two promising drug compounds, Standaert says. Andrew West, Ph.D., is testing a compound that inhibits LRRK2, “a molecule closely related to Parkinson’s,” Standaert explains, while Erik Roberson, M.D., Ph.D., is studying several molecules that could impact Alzheimer’s disease. (Roberson and West are now co-directors of CNET.) “Within a matter of months, we have moved these much farther than many places could have done in years,” Standaert says. (For more on new discoveries in the ADDA drug pipeline, see “Discovery Zone" below.)
The Power of Philanthropy
The recruitment of West and Roberson, Standaert emphasizes, would not have been possible without philanthropic giving. “Dr. West is supported by John Jurenko through a very generous gift that not only founded his lab but has endowed his position,” Standaert says. “Dr. Roberson is one of the top Alzheimer’s disease researchers in the country. A lot of places wanted to have him, but Virginia and Bill Spencer created an endowment that helped us land him here.” In fact, “almost all of the major faculty recruitments we have done have been based on philanthropic gifts,” Standaert says.
Philanthropic gifts have become particularly important as the nation’s research funding environment has changed in recent years, Standaert says. “The National Institutes of Health (NIH) has contracted what they are willing to do. They are not taking any risks because they have such limited funds. If you have a new idea and you want it to move quickly, the way you do that is through research acceleration funds—philanthropic gifts that enable us to launch projects, get them moving, and then go out and seek federal or industry funding to carry them forward to the conclusion.”
The Parkinson’s Association of Alabama (PAA), currently led by Cater, has played a role in several major recruitments for CNET, including the next generation of promising researchers, Standaert says. Talene Yacoubian, M.D., Ph.D., came to UAB from Harvard University in 2012 as the first Parkinson’s Association of Alabama Scholar in Parkinson’s Research. The PAA “supported her lab and transition costs and has helped launch her research,” Standaert says.
The PAA’s initial $100,000 investment allowed Yacoubian to receive an $800,000 NIH grant, Cater notes. “That’s an amazing rate of return, any way you look at it,” he says. Funding from the PAA has also helped encourage graduate students to enter the Parkinson’s field. “We have a lot of students at UAB who would like to get involved in this research, but finding support for them is not always that easy,” Standaert says. “So the PAA has stepped up with philanthropic funding that has let us go out and bring in the top students and put them to work on Parkinson’s disease here in the lab.”
“If we change the life and outlook of even one person, it’s worth every dollar,” Cater says. But he is optimistic that CNET research will change many more lives. “I believe we have the tools in place in Alabama and at UAB to solve the problem of Parkinson’s disease.”
With support from Ken Cater (left) and other donors, David Standaert (right) has recruited top research talent to UAB and helped spark an explosion in discoveries related to Parkinson’s disease.
Discovery ZoneThree of a number of promising compounds developed by UAB researchers as part of the Alabama Drug Discovery Alliance:
Most patients with Parkinson’s disease are still treated with a 42-year-old drug called L-dopa, which only temporarily limits tremor, rigidity, and other symptoms. But LRRK2 inhibitors actually counter the inflammation and nerve cell death causing Parkinson’s symptoms. UAB researchers are now working to find the best drugs that inactivate LRRK2. The investigators believe their current version is better on many levels than any other drugs being considered for LRRK2, and that even more effective drug candidates are right around the corner.
The enzyme CD38, which seems to reduce oxidative stress, is overexpressed in several cancers, particularly B cell lymphomas such as leukemia and multiple myeloma that often affect older patients. That’s a problem, because chemotherapy causes oxidative stress in order to damage the DNA of cancer cells and cause them to self-destruct. UAB researchers have been looking for an effective CD38 inhibitor, and they have identified several candidates thanks to screening tests conducted by scientists at Southern Research Institute, UAB’s partner in the ADDA. These compounds are now being tested in UAB labs.
Cytochrome C oxidase inhibitors
The brain cancer known as glioblastoma multiforme is particularly lethal because its cells quickly become resistant to treatment. Previous UAB research found that the enzyme cytochrome C oxidase was abundant in cells resistant to therapy. Patients who have an overactive version of the gene responsible for making cytochrome C oxidase live less than half as long as patients with a less active version. A compound being developed by UAB researchers to inhibit cytochrome C oxidase could increase survival by six months—a significant advance for this patient population.
Track RecordAs of 2013, the UAB Research Foundation has helped create 58 start-up companies and negotiate more than 430 option and license agreements exceeding $68 million in revenues.
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UAB implants responsive neurostimulator for epilepsy seizure control, first in Southeast
- Created on June 19, 2014
It marked the first time in the Southeast the RNS system by NeuroPace had been implanted since the device gained FDA approval in November 2013. The first patient was a 24-year-old woman from central Alabama.
RNS stands for responsive neurostimulation.
“It is designed to record patient’s specific brain activity and recognize patterns that are associated with seizures,” said Kristen Riley, M.D., associate professor in the Department of Neurosurgery. “The RNS system then delivers stimulation in order to help modulate and control the seizures.”
The system consists of electrodes attached by leads to a generator which can communicate with a computer. The generator is curved so that it can be placed within a patient’s skull. It is a little bigger than a flash drive.
“We drill a trough for the device so that it is flush within the skull,” said Riley. “There is not a raised area; it’s basically hidden within the skull.”
|The RNS system is for patients with severe seizures who do not respond to medications and are not candidates for surgery because the location of their seizure onset is at a sensitive part of the brain. It is also only for patients whose seizure onset can be traced to just one or two locations in the brain.|
“This is not a treatment that will cure epilepsy,” he said. “This is a treatment that will help control seizures in a very specific group of patients who are not otherwise candidates for surgery. I don’t expect too many patients to become seizure-free; but if we can decrease their seizures by even half, we can make huge improvements in their lives.”
The RNS system is for patients with severe seizures who do not respond to medications and are not candidates for surgery because the location of their seizure onset is at a sensitive part of the brain. It is also only for patients whose seizure onset can be traced to just one or two locations in the brain.
“We’re very excited to offer this therapy to our patients who are not candidates for more traditional therapies for epilepsy,” said Szaflarski. “We see multiple patients like that every year, and the RNS system could make a huge difference in the lives of those patients. There is already data to show that the quality of life of those patients has improved significantly with RNS.”
For more information on the RNS system, contact the UAB Epilepsy Center or make an appointment via the Kirklin Clinic at 205-801-8986.
UAB Media Relations
UAB launches three initiatives to stimulate personalized medicine care, research
- Created on June 17, 2014
Written by Clinton Colmenares
- The University of Alabama Board of Trustees approved the creation of the Personalized Medicine Institute, the Institute for Informatics and the UAB-HudsonAlpha Center for Genomic Medicine.
Three new initiatives in the University of Alabama at Birmingham School of Medicine are paving the way for significant growth and acceleration of personalized medicine in Alabama, the region and beyond.
“UAB is one of the largest and most productive academic medical centers in the country, and the work accomplished through these initiatives will be transformative for Alabama and the nation. UAB will lead in these three areas.”
“This is the future of medicine, and UAB wants to be on the leading edge,” said Selwyn M. Vickers, senior vice president for Medicine and dean of the School of Medicine at UAB. “UAB is one of the largest and most productive academic medical centers in the country, and the work accomplished through these initiatives will be transformative for Alabama and the nation. UAB will lead in these three areas.”
Genomic MedicineIn the UAB-HudsonAlpha Center for Genomic Medicine, faculty from UAB and HudsonAlpha will work together, on each institution’s campus, to create a platform for using human genome data and applying it to patient care. The Center, co-directed by Bruce Korf, M.D., chair of the UAB Department of Genetics, and Rick Myers, Ph.D., president and science director of HudsonAlpha, combines UAB’s expertise in clinical genetics with HudsonAlpha’s concentration in genome research. Read more about the Center for Genome Medicine here.
Personalized MedicineThe Personalized Medicine Institute, or PMI, directed by Nita Limdi, Pharm. D., Ph.D., associate professor in the UAB Department of Neurology, will enhance the delivery of personalized medicine by using a patient’s own genetic makeup along with their clinical characteristics. This will allow more specific selection and dosing of medications, Limdi said.
Two main initiatives will drive the PMI: fueling discovery through research and improving patient care.
Nita Limdi, Pharm.D., Ph.D.To fuel the research initiative, the PMI will create and manage a “bio bank,” a cache of DNA samples that will pay dividends as a resource for future research. “The BioBank will help speed progress toward personalized medical care and contribute to a better understanding of how genetic factors, lifestyles, behavior and environment can interact to affect a person’s health,” Limdi said. “Moreover, it will provide UAB researchers a tangible advantage when competing for grant funding, especially in areas where UAB serves unique populations.”
UAB’s continued success improving the health of minorities gives the School of Medicine, and Alabama, an advantage in research, Limdi said. For example, kidney transplant rates nationally are disproportionately low for African Americans. At UAB, one of the busiest kidney transplant centers in the country, more than half of all kidney transplants in the past 10 years were in African Americans.
“Most research centers don’t have this wealth of data about minority populations. This puts UAB at a competitive advantage to receive research grants, which will, in turn, improve the health of African Americans and other minorities,” Limdi said.
“The PMI will enhance the management of patients in large populations, create a research framework that will allow us to ask questions regarding racial and ethnic disparities, diabetes, cardiovascular disease, neurosciences and other areas, as well as expand our translational capacity for genomic discovery,” Limdi said. “This program will continually differentiate us from our local and regional peers and make us a national player in the development of new treatment therapies based on our understanding of the human genome.”
The patient care initiative will begin by identifying gene-drug and gene-disease targets for which genomics holds the potential to improve outcomes for patients. “Again, the population we serve allows us to evaluate the effectiveness of interventions in a racially diverse population,” Limdi said.
The School of Medicine will dedicated funds to the PMI to allow UAB to retain faculty and recruit new physicians and scientists, and to build an administrative infrastructure to facilitate more federal and private research grants. Educating physicians, trainees and the broader biomedical community, including bioethicists, is also an important component of the PMI to build partnerships in the general community and improve the overall health of the population, Limdi said.
InformaticsUnderpinning personalized medicine and genomics is informatics – collecting, processing and making massive amounts of data available to researchers and clinicians in relevant, meaningful ways that advances research and improves patient care. According to a 2013 report by the United States Chamber of Commerce about “big data,” 90 percent of the data available in the world was produced in the previous two years. The National Institutes of Health created the “Big Data to Knowledge” initiative in order to “support the research, implementation and training of data science” to make data “a more prominent component of biomedical research.”
|The Personalized Medicine Institute, the Institute for Informatics and the UAB-HudsonAlpha Center for Genomic Medicine will be housed in the School of Medicine, pulling together scientists and physicians from a variety of disciplines to bear on a multitude of diseases and disorders.|
“The UAB Informatics Institute will transform UAB into a learning healthcare system,” Vickers said.
The Institute of Medicine, of which Vickers is a member, began creating the “learning healthcare system” concept several years ago. Such a system is driven by the full gamut of data collected in clinical and research settings, from patient feedback and vital signs, to sequenced DNA of a particular type of tumor, to managing large populations of patients.
“In a learning healthcare system,” Vickers said, “data are continuously collected, shared, analyzed and used to propel clinical care, research and education.”
The School of Medicine will conduct a national search for a director of the Informatics Institute.
LRRK2 inhibitors may be key to combating Parkinson’s disease
- Created on June 16, 2014
“We found that this offered very good protection from over-expression of a protein — alpha synuclein — that is linked to Parkinson’s disease,” said Andrew West, Ph.D., lead author on the paper and the John A. and Ruth R. Jurenko Endowed Professor in Neurology at UAB.
The genetic model used in the UAB study more closely mimics Parkinson’s disease than do other, more frequently used models, which suggests that inhibiting LRRK2 in humans could help more than those with the less-common genetic forms.
“The pool of Parkinson’s patients who might benefit from LRRK2 drugs may be bigger than we originally thought,” West said.
West’s lab is working closely with Birmingham-based Southern Research Institute through the Alabama Drug Discovery Alliance to rapidly develop LRRK2 inhibitors. He hopes to reach human testing as early as 2015.
Parkinson’s disease affects more than a million Americans. Tremors, stiff muscles and slow movement are the most common symptoms of the disease. These symptoms are caused by a massive loss of cells in the substantia nigra, a brain region that helps control movement. The dying cells are filled with clumps of alpha-synuclein, making it the chief suspect in Parkinson’s disease.
Refining the target
The trouble is that researchers have not found a way to control alpha-synuclein levels directly.
“It’s a normal protein — actually one of the most highly abundant proteins in the brain — so it isn’t easy to figure out how to block its progression into aggregates that spread through the brain,” West said.
That is why Parkinson’s researchers are so excited about LRRK2. In 2006, West demonstrated that all known mutations in LRRK2 increase LRRK2 activity. Other studies showed that LRRK2 is biochemically linked with alpha-synuclein in several ways.
|Andrew West’s lab is working closely with Birmingham-based Southern Research Institute through the Alabama Drug Discovery Alliance to rapidly develop LRRK2 inhibitors. He hopes to reach human testing as early as 2015.|
Genetic forms of Parkinson’s that have highlighted LRRK2 involvement in disease are widespread in some populations, including those of Ashkenazi Jewish and North African Berber descent, where inherited Parkinson’s accounts for up to 40 percent of cases.
“But it drops dramatically depending on your ethnic background,” West said. “If you’re from a European, Caucasian population, it’s more on the order of 2 to 3 percent. This may be important in initial first-in-man studies in deciding who should first get LRRK2 drugs.”
Advancing to human trials
Any treatment advance would be welcome in Parkinson’s, which West says has not seen a real breakthrough drug since L-dopa was developed 50 years ago.
“Together with Southern Research Institute, we have a very strong drug pipeline, and we hope to be in first-in-man studies as early as next year,” West said. “But while that work is ongoing, we need to ask a bigger question: What happens if you simply remove all LRRK2 activity? Modern approaches allow us to approximate what a perfect drug would do in rats and mice.”
The results, captured in the PNAS paper, emphasize the importance of LRRK2 and the need for further study, which West is pursuing.
“We think LRRK2 is plugging into Parkinson’s disease in more than one way,” West explained. “It is making the disease more likely to happen and making it progress faster when it does happen. So we think knocking out LRRK2 will do the opposite — slow the disease or make it much less likely to develop.”
Even slowing the disease marginally could have a tremendous effect on patients with Parkinson’s disease, West notes. Drugs like L-dopa are effective at controlling symptoms and making life manageable for patients; but they eventually stop working, and side effects inevitably become as burdensome as the disease itself, West says.
LRRK2 inhibitors could greatly extend the useful window for L-dopa treatment.
“Whereas L-dopa may be effective for 10 years currently, if LRRK2 inhibitors slowed disease progression, we could dramatically extend the effectiveness of existing drugs to 20, 30 or 40 years — basically the rest of the patient’s life.”