TIL Therapy Is Reshaping How We Fight Solid Tumors With Your Own Immune Cells
Tumor-infiltrating lymphocyte therapies are emerging as a powerful cancer treatment. Here's what the science says and why it matters for longevity.
Stem cells, exosomes, gene therapy, peptides, hyperbaric oxygen, and epigenetic reprogramming
420 articles
Tumor-infiltrating lymphocyte therapies are emerging as a powerful cancer treatment. Here's what the science says and why it matters for longevity.
A landmark clinical trial transplanted iPSC-derived dopamine neurons into Parkinson's patients using only tacrolimus — with no significant immune rejection.
Researchers 3D-printed silicone scaffolds seeded with human iPSC-derived spinal neural progenitor cells, transplanted them into transected rat spinal cords, and observed significant functional recovery at 12 weeks.
Adding methylene blue to ropivacaine in a serratus anterior plane block significantly prolongs pain relief up to 72 hours post-op.
Researchers erased imprinting marks in mouse sperm using dCas9-TET1, then traced how methylation partially recovered — fingering H3K9me3 as the key mediator.
Master the cutting-edge science of exosome engineering, delivery pharmacokinetics, and clinical translation — from CRISPR-loaded nanoparticles to the molecular logic of next-generation regenerative therapies.
Eli Lilly suggests lower doses of tirzepatide may safely sustain weight loss at potentially lower cost, opening new options for long-term obesity management.
A Phase 1/2 trial tests four rounds of intrathecal MSC injections in ALS patients, targeting both safety and disease progression.
New research in Nature Aging suggests tissue mechanical softness is a critical factor enabling cellular regeneration, with major implications for aging biology.
Go deeper into how exosomes are built, what they carry, and how their molecular cargo rewires receiving cells — with implications for regeneration, aging, and emerging therapies.
Harvard's CellCartographer uses machine learning to identify optimal transcription factor combinations for rapid, high-efficiency cell reprogramming.
Kyoto researchers created jawbone-like organoids from human iPSCs, recapitulating mandibular development and modeling fragile bone disease.