160 Results for 'Cancer'
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Metabolically Labeled CAR-T Cells Against Cancer
Through a simple and effective metabolic labeling approach, patient-derived T cells engineered to carry immune-enhancing cytokines on their surfaces could help expand adoptive T cell therapies to treatment of solid tumors and improve blood cancer therapies.
DoriVac: Boosting Antigen-specific Immune Responses with DNA Origami-Based Vaccines
Personalized cancer and infectious disease vaccine platform harnessing DNA nanotechnology to control the co-delivery and co-presentation of tumor antigen and adjuvant ligands to immune cells with nanoscale precision. This approach has potential to trigger enhanced immune responses against tumors and infectious pathogens.
SomaCode: Getting Cell Therapies Where They Need to Go
SomaCode is solving the problem of cell therapy delivery by identifying unique molecular “zip codes” for disease and engineering cells to home to those zip codes, making cell therapies safer and more effective.
Cellular “Backpacks” to Slow Tumor Growth
A cell therapy innovation that keep macrophages activated against cancer. Macrophages are like little soldiers in our bodies that help fend off diseases like cancer. Our cellular “backpacks” are disc-shaped nanoparticles that can stick to a macrophage without being engulfed, and release a steady stream of cytokines into their macrophage “hosts” to help them fight against cancer.
FcMBL: Broad-Spectrum Pathogen Capture for Infectious Disease Diagnosis and Therapy
The Problem Infectious diseases have plagued humanity for millennia, and the pathogens that infect and sicken humans are constantly evolving. Severe infections can cause sepsis, a life-threatening condition in which a patient’s immune system overreacts to the infection. The body starts to attack itself, which can lead to tissue damage, organ failure, and death. Sepsis...
Biomaterial Scaffolds for T Cell Expansion
Immunotherapy, or tweaking the body’s own immune system to treat disease, is attracting significant attention in the medical field for its potential to offer long-lasting cures with fewer side effects than chemotherapy or other drugs. One type of immunotherapy involves isolating T cells (a type of white blood cell) from a patient’s body, sometimes modifying...
Video/AnimationHow can we train the immune system to fight cancer?The implantable cancer vaccine is a biomaterial that recruits and reprograms a patient’s own immune cells on-site to kill cancer cells. This revolutionary immuno-material technology was tested in a Phase I clinical trial with promising results and is currently licensed by Novartis as an immunotherapy to treat specific tumor types. Credit: Wyss Institute at Harvard...
Video/AnimationMetabolic T cell Labeling: simple and effective enhancement of therapeutic T cells with immune-stimulating cytokinesThis animation shows how the surface of patient-derived T cells is metabolically labeled with azido-sugar molecules that then can be used to attach immune-enhancing cytokines with the help of click chemistry. The approach could help expand adoptive T cell therapies to treatment of solid tumors. Credit: Wyss Institute at Harvard University
Video/AnimationDoriVac: Square Block DNA Origami VaccineThis animation explains how DoriVac leverages DNA origami nanotechnology and immune activators to stimulate stronger and long-lasting immune responses against cancer and potentially infectious diseases. Credit: Wyss Institute at Harvard University
Video/AnimationEliminating brain cancer at its source | Natalie Artzi | TEDxMITGlioblastoma is a lethal, aggressive brain cancer with a dismal median overall survival rate of 15 months, a number that has remained unchanged for decades. Treatment for this devastating disease involves surgical resection followed by chemotherapy and radiation therapy; however, tumor recurrence is inevitable as it is impossible to eliminate all tumor cells with current...
Video/AnimationSomaCode: GPS for Cell TherapyJust like zip codes help drivers navigate to specific addresses using a GPS system, the molecular ‘zip codes’ identified via the SomaCode platform can be used to deliver cell therapies to their specific targets in the human body, increasing the therapies’ efficacy and reducing side effects. Credit: Wyss Institute at Harvard University
Audio/PodcastBIOS Podcast – Accelerating Diagnostics Innovation with David Walt – Professor at Harvard, Core Faculty member at the Wyss InstituteDavid Walt is the Hansjörg Wyss Professor of Bioinspired Engineering at Harvard Medical School, Professor of Pathology at Harvard Medical School & Brigham and Women’s Hospital, Core Faculty Member of the Wyss Institute at Harvard University, Associate Member at the Broad Institute, Howard Hughes Medical Institute Professor, and is co-Director of the Mass General Brigham...