We are excited to announce that Hua Wang, Ph.D. from @UofIllinois is our third DSA recipient of 2024! His project is titled 'New-Generation Exosome Vaccines for Treating Glioblastoma.' https://t.co/yzr4N5OD2m
#TheSontagFoundation#DSA2024#DSAGrantee@WangLabUIUC
#ILLINOIS researchers earned a $946K American Cancer Society grant to develop a vaccine for solid tumors like triple-negative breast cancer and glioblastoma.
“It affirms our critical cancer research,” said Carle Cancer Institute's Hau Wang.
▶️https://t.co/4TNb11rhGI
Excited and humbled to receive the 2024 Sontag Distinguished Scientist Award. My group and I are grateful for the tremendous support from the Sontag Foundation and @IllinoisMatSE@CancerCenterIL ! We will continue our quest for therapeutic cancer vaccines and immunotherapies!
Congratulations to Assistant Professor Hua Wang, whose critical work to fight back against deadly brain cancer by developing vaccines has earned the Distinguished Scientist Award from The Sontag Foundation. His team earned $750K for research support.
https://t.co/rAwF7c7qzt
@cm_tringides@RiceMSNE Thanks so much for inviting and hosting me! Rice MSNE is a wonderful Department with great people and research environment. I’m so happy for you!
Thanks for the shout-out! This grant will allow us to further develop our mRNA-based cancer vaccines for treating solid tumors including glioblastoma and breast cancer. Looking forward to continuing to collaborate with Shuming (BioE), Joseph (BioE), Xing (BioE), Wael (Carle)
Congratulations to Assistant Professor Hua Wang, who has earned $946,000 in funding as part of the American Cancer Society Research Scholar Award.
Wang's team is innovating in the medical space by developing mRNA-based cancer vaccines for treating solid tumors.
Han et al. @JHElisseeff find that the signatures of inflammation and interleukin-17 signaling (sign of type-3 immune activation) increase with injury and treatment in aged animals, providing new insight on the immune-regeneration axis.
https://t.co/xzumBguZ3I
For Immunomaterials, Park et al. @fischbcl17 @ Paszek Lab report the ability of tumor cells to utilize the mineralization of collagen in the extracellular matrix to evade the attack of natural killer cells.
https://t.co/vXCzsARTor
In this special issue, we highlight four areas – mechanically active biomaterials, materials that actively direct the host immune response (immunomaterials), materials designed to promote tissue repair and regeneration, and dynamic materials.
Bo et al. discuss how immunomaterials have enabled one to skip the lengthy and costly process of identifying tumor-specific antigens, by making use of the in situ generated tumor antigens to provoke potent effector T cell response.
https://t.co/4eG6JtDQ6d
Pirozzi et al. provide a nice review of another class of mechanically active materials - artificial muscles - with a specific use case of cardiac assistance.
https://t.co/lHlz3BC9at
Mendez et al. @ellentroche describe a hybrid hydrogel actuator that can elicit tunable mechanoresponsive release of drug from a hydrogel layer through pneumatic actuation. https://t.co/cCmMfw4O1I
Mendez et al. @ellentroche describe a hybrid hydrogel actuator that can elicit tunable mechanoresponsive release of drug from a hydrogel layer through pneumatic actuation. https://t.co/cCmMfw4O1I
Roy et al. @ClaudiaLoebel describe a bilayer hydrogel folding system that can generate folding patterns, similar to the mucosal tissue in the epithelium of the upper respiratory airways.
https://t.co/u0MhNyDrQk
Roy et al. @ClaudiaLoebel describe a bilayer hydrogel folding system that can generate folding patterns, similar to the mucosal tissue in the epithelium of the upper respiratory airways.
https://t.co/u0MhNyDrQk
For mechanically active materials, Nie et al. from the Rogers Group provide a nice review on using such materials for bio-interfaced sensors for continuous monitoring. @ProfJohnARogers
https://t.co/plk2Vdogz9
For mechanically active materials, Nie et al. from the Rogers Group provide a nice review on using such materials for bio-interfaced sensors for continuous monitoring. @ProfJohnARogers
https://t.co/plk2Vdogz9
We are thrilled to share the Special Issue "Engineering Active Materials for Biomedical Applications" in Advanced Materials, guest edited by David Mooney, Patricia Dankers, Ellen Roche, and me @ellentroche@IllinoisMatSE@BIOENGatIL
https://t.co/ZdjLUgvoKE
In this special issue, we highlight four areas – mechanically active biomaterials, materials that actively direct the host immune response (immunomaterials), materials designed to promote tissue repair and regeneration, and dynamic materials.
We are thrilled to share the Special Issue "Engineering Active Materials for Biomedical Applications" in Advanced Materials, guest edited by David Mooney, Patricia Dankers, Ellen Roche, and me @ellentroche@IllinoisMatSE@BIOENGatIL
https://t.co/ZdjLUgvoKE