Research published in Nature Communications shows how generative AI can be used to design complex dual-action cancer drug candidates. Insilico Medicine has developed a PKMYT1 degrader that both eliminates the target protein and blocks its activity, demonstrating the growing role of AI in advanced drug discovery.
Promatix Biosciences is developing a new generation of bispecific antibody–drug conjugates using proprietary membrane proteomics data to identify highly selective target pairings. CEO Dr Michael Hunter explains how the company’s TXPro database enables discovery of previously unexplored tumour biology to improve therapeutic index and reduce on-target/off-tumour toxicities in solid tumours.
Eli Lilly has acquired CrossBridge Bio, advancing a dual-payload antibody-drug conjugate platform developed at UTHealth Houston. The technology aims to deliver chemotherapy more precisely to tumour cells whilst minimising damage to healthy tissue, with lead candidate CBB-120 now positioned for accelerated clinical development.
Research published in Nature Communications shows how generative AI can be used to design complex dual-action cancer drug candidates. Insilico Medicine has developed a PKMYT1 degrader that both eliminates the target protein and blocks its activity, demonstrating the growing role of AI in advanced drug discovery.
Promatix Biosciences is developing a new generation of bispecific antibody–drug conjugates using proprietary membrane proteomics data to identify highly selective target pairings. CEO Dr Michael Hunter explains how the company’s TXPro database enables discovery of previously unexplored tumour biology to improve therapeutic index and reduce on-target/off-tumour toxicities in solid tumours.
Neil Bhowmick explores how understanding the mechanisms of cancer drug resistance has reframed our approach to treatment, revealing containment and control as realistic goals for therapeutic strategies.
Research published in Nature Communications shows how generative AI can be used to design complex dual-action cancer drug candidates. Insilico Medicine has developed a PKMYT1 degrader that both eliminates the target protein and blocks its activity, demonstrating the growing role of AI in advanced drug discovery.
Promatix Biosciences is developing a new generation of bispecific antibody–drug conjugates using proprietary membrane proteomics data to identify highly selective target pairings. CEO Dr Michael Hunter explains how the company’s TXPro database enables discovery of previously unexplored tumour biology to improve therapeutic index and reduce on-target/off-tumour toxicities in solid tumours.
Eli Lilly has acquired CrossBridge Bio, advancing a dual-payload antibody-drug conjugate platform developed at UTHealth Houston. The technology aims to deliver chemotherapy more precisely to tumour cells whilst minimising damage to healthy tissue, with lead candidate CBB-120 now positioned for accelerated clinical development.
University College Dublin researchers have discovered that cells use nanoparticle-based courier systems coated with proteins and RNA to exchange biological information. The findings detail how natural cellular gateways could be exploited to deliver therapeutic molecules to previously inaccessible locations, potentially changing the way RNA, gene and protein-based therapies work.
The Ontario Institute for Cancer Research has awarded $3.1 million to four provincial research teams developing novel cancer therapies designed to overcome drug resistance and reduce treatment-related toxicity.
Champions Oncology will present eight studies at AACR 2026 spanning KRAS-mutant tumours, ovarian cancer, glioblastoma and emerging therapies including radiopharmaceuticals and CAR-T, using patient-derived models to improve early-stage decision-making in oncology drug development.
Insilico Medicine has nominated ISM6200, a preclinical drug candidate designed using generative AI to target NR3C1, a receptor involved in cortisol regulation.
New research from Shanghai Pulmonary Hospital outlines how lactate-driven lactylation acts as a metabolic switch controlling epigenetic regulation in lung cancer. The findings reveal self-reinforcing feedback loops that sustain drug resistance and suggest novel therapeutic strategies targeting the enzymes and pathways that maintain this process.
Novel FRESH 3D printing technology enables fabrication of nanoscale spanlastic carriers for localised anticancer drug delivery. Early in vitro studies have demonstrated enhanced cellular uptake and tumour cell killing whilst potentially minimising systemic toxicity associated with conventional chemotherapy administration.
Oregon State University researchers have developed engineered lipid nanoparticles that deliver follistatin mRNA directly to lung tumours, simultaneously targeting cancer growth and muscle-wasting cachexia in preclinical studies.
Neil Bhowmick explores how understanding the mechanisms of cancer drug resistance has reframed our approach to treatment, revealing containment and control as realistic goals for therapeutic strategies.
University of Lausanne researchers have identified a molecular mechanism explaining how cancer-fighting T cells become exhausted in tumours, offering a potential route to improve CAR T therapies through proteasome modulation during cell manufacturing.
University of Colorado Anschutz Cancer Center scientists have uncovered how metastatic breast cancer cells exploit pulmonary repair pathways to establish tumours in the lungs.
LabGenius Therapeutics will present preclinical data for LGTX-101, its AI-designed Nectin-4 x CD3 T-cell engager, at AACR 2026 in San Diego.
Engineered probiotic bacteria that can deliver cancer-fighting drugs directly to tumours have shown promising results in mice, offering a potential new approach to targeted cancer therapy.
A new ultrasound-based technique developed by researchers at Duke University uses microbubbles to deliver cancer drugs directly into tumour cells, showing promise for highly targeted treatments that cause minimal damage to healthy tissue.