Topic: cancer

This EMBO Workshop connects organelle contact sites and cytoskeletal interactions with metabolism, signalling, and trafficking, and examines their relevance to neurodegeneration, cancer, and other diseases.

Fund pilot studies and early research addressing public-health priorities, including infectious disease, AI diagnostics, digital health, cancer, maternal health, mental health and healthy ageing. Proposals should generate evidence useful for health policy and practice. Submit the English EOI, budget and investigator CVs together as one PDF by 2 October 2026, 18:00 EAT. The linked Google submission form requires sign-in.

Support NSW organisations recruiting outstanding health and medical research leaders from overseas. Proposals should establish a strategically important research programme with a clear route to translation. Cardiovascular research and projects exclusively focused on cancer are outside this call.

Pluripotent cells, including embryonic stem (ES) and induced pluripotent stem (iPS) cells, are used to investigate the genetic and epigenetic underpinnings of human diseases such as Parkinson’s, Alzheimer’s, autism, and cancer. Mechanisms of somatic cell reprogramming to an embryonic pluripotent state are explored, utilizing patient-specific pluripotent cells to model and analyze neurodegenerative diseases.

Jarle Breivik discusses cancer as a biological process and critically examines expectations of a universal cure. Conversation in Norwegian.

Cancer-related fatigue is a prominent and debilitating side effect of cancer and its treatment. It can develop prior to diagnosis, generally peaks during cancer treatment, and can persist long after treatment completion. Its mechanisms are multifactorial, and its expression is highly variable. Unfortunately, treatment options are limited. Our research uses syngeneic murine models of cancer and cisplatin-based chemotherapy to better understand these mechanisms. Our data indicate that both peripherally and centrally processes may contribute to the developmental of fatigue. These processes includ

Life of biological molecules spans time and length scales relevant at atomic to cellular time and length scales. Hence, novel molecular modeling approaches are required to be inherently multi-scale. Here we describe multiple methodologies developed in our laboratory: rapid discrete molecular dynamics simulation algorithm, protein design and structural refinement tools. Using these methodologies, we describe therapeutic strategies to combat this HIV and cancer, as well as design novel approaches for controlling proteins in living cells and organisms.