Aileen Anderson

Director of the Sue and Bill Gross Stem Cell Research Center UC Irvine

  • Irvine CA

Dr. Anderson is an expert on stem cell research, with a focus on spinal cord and traumatic brain injury.

Contact

UC Irvine

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Biography

Dr. Anderson’s research is focused on two principal goals. First, investigating the interactions of transplanted stem cell populations within the injured niche, including the role of the evolving inflammatory microenvironment in neural stem cell fate and migration decisions. This work has recently revealed a role for novel neuroimmune signaling pathway in glioblastoma stem cell biology. Second, investigating the role of inflammatory mechanisms in degeneration and regeneration in the injured CNS; particularly the role of the innate immune response and application of biomaterials to promote functional regeneration. Research in Dr. Anderson’s laboratory bridges the junction between seeking to understand mechanism at the basic neuroscience level, and identifying translational neuroscience strategies to ameliorate the cellular and histopathological deficits associated with SCI to promote recovery of function.

Areas of Expertise

Glioblastoma
Stem Cell Biology
Stem Cell Research
Spinal Cord Injury

Accomplishments

UCI Chancellor's Award for Excellence in Research Mentorship

2006

Education

University of California, Irvine

PhD

Biology, Neurobiology

1996

University of Illinois, Urbana

BS

Bioengineering

1987

Affiliations

  • Society for Neuroscience
  • American Association for the Advancement of Science
  • International Society for Stem Cell Research

Media Appearances

Advancing regenerative medicine therapies

Newswise  online

2024-06-26

University and community guests recently gathered to celebrate the 7,700 square-foot Good Manufacturing Practice facility’s grand opening in Hewitt Hall’s basement on the UC Irvine campus. … “This facility is not just a building; it is a powerhouse of innovation and hope, meticulously designed and equipped to produce FDA-compliant cell and gene therapies, which are at the forefront of medical science’s promise for the future,” says Dr. Michael J. Stamos, dean of the UC Irvine School of Medicine. … “Our commitment to taking a multidisciplinary approach to integrating groundbreaking research with clinical applications was also recognized and supported by the California Institute for Regenerative Medicine,” says Aileen Anderson, Ph.D., director of the UC Irvine Stem Cell Research Center and professor of physical medicine & rehabilitation.

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Can We Rebuild the Spinal Cord? These Scientists Are Redefining What's Possible

Inverse  online

2023-03-02

After someone experiences a spinal cord injury, doctors set off on a race against the clock. … “The dominant thinking was that you should focus on acute injuries,” Aileen Anderson, a stem cell researcher [and professor] at the University of California, Irvine, tells Inverse. “If you could just hit a magic bullet at that stage and minimize the amount of damage that’s happening because it kind of rolls out over days and a couple of weeks … this was the place to target.” … Some teams, including Anderson and her colleagues, are trying to put specialized materials into people’s spinal cords, such as scaffolds made of hydrogels, as another method to help the spinal cord reconnect itself. It could also help to combine scaffolding and stem cells, Anderson says, an idea currently in the early stages of development.

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$5.5M grant awarded for spinal stem cell research

Becker's Spine Review  online

2021-12-01

"In the U.S., there are about 285,000 individuals living with paralysis due to traumatic spinal cord injury, and there are no FDA-approved treatments," Dr. Anderson said in a Nov. 30 news release. "Integrating transplanted human neural stem cells is likely to direct improved locomotor function, and increasing a single level of spine function can make a significant positive impact on both quality of life and the economic burden of disease for these patients."

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Articles

Polycistronic Delivery of IL-10 and NT-3 Promotes Oligodendrocyte Myelination and Functional Recovery in a Mouse Spinal Cord Injury Model

Tissue Engineering Part A

Dominique R. Smith, Courtney M. Dumont, Jonghyuck Park, Andrew J. Ciciriello, Amina Guo, Ravindra Tatineni, Brian J. Cummings, Aileen J. Anderson, and Lonnie D. Shea

2020

One million estimated cases of spinal cord injury (SCI) have been reported in the United States and repairing an injury has constituted a difficult clinical challenge. The complex, dynamic, inhibitory microenvironment postinjury, which is characterized by proinflammatory signaling from invading leukocytes and lack of sufficient factors that promote axonal survival and elongation, limits regeneration.

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PLG Bridge Implantation in Chronic SCI Promotes Axonal Elongation and Myelination

ACS Biomaterials Science & Engineering

Dominique R. Smith, Courtney M. Dumont, Andrew J. Ciciriello, Amina Guo, Ravindra Tatineni, Mary K. Munsell, Brian J. Cummings, Aileen J. Anderson, and Lonnie D. Shea

2019

Spinal cord injury (SCI) is a devastating condition that may cause permanent functional loss below the level of injury, including paralysis and loss of bladder, bowel, and sexual function. Patients are rarely treated immediately, and this delay is associated with tissue loss and scar formation that can make regeneration at chronic time points more challenging. Herein, we investigated regeneration using a poly(lactide-co-glycolide) multichannel bridge implanted into a chronic SCI following surgical resection of necrotic tissue.

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Intravascular innate immune cells reprogrammed via intravenous nanoparticles to promote functional recovery after spinal cord injury

Proceedings of the National Academy of Sciences

Jonghyuck Park, Yining Zhang, Eiji Saito, Steve J. Gurczynski, Bethany B. Moore, Brian J. Cummings, Aileen J. Anderson, and Lonnie D. Shea

2019

Inflammatory responses, such as those following spinal cord injury (SCI), lead to extensive tissue damage that impairs function. Here, we present nanoparticles that target circulating immune cells acutely, with nanoparticles reprogramming the immune cell response. The polymeric nanoparticles are formed without an active pharmaceutical ingredient that can have off-target effects, and internalization redirects some immune cells to the spleen, with modest numbers at the SCI.

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