Scientists from University of Galway have uncovered a surprising link between commonly used anti-cancer drugs and antibiotics that could offer a potential new approach to tackling notorious superbug infections.

New study identifies hundreds of previously overlooked micropeptides linked to cancer progression. Hebrew University researchers have discovered that long non-coding RNAs (lncRNAs)—genetic material once thought not to produce proteins—can encode hundreds of tiny proteins collectively called micropeptides. By analyzing nearly 10,000 tumours across 17 cancer types, the team identified hundreds of micropeptides associated with different stages of cancer progression, revealing a previously underexplored layer of cancer biology that could improve understanding of how tumours develop and help identify future biomarkers.

Digital pathology relies on high-resolution imaging for accurate cancer diagnosis, yet high-magnification systems remain slow and costly for large-scale screening. Meanwhile, standard AI super-resolution often generates hallucinated cellular artifacts that risk diagnostic accuracy. To overcome this, researchers developed a hybrid bright-dark field computational framework using fast LED illumination to provide physical guidance. This physics-guided approach doubles spatial resolution, reduces reconstruction artifacts by 84%, and boosts AI cancer screening sensitivity by 11.14%.

On 05 – 06 November 2026, the Josep Carreras Leukaemia Research Institute will host its 2026 Scientific Symposium: "Immunity in Haematological Malignancies: From Molecular Mechanisms to Transformative Therapies". Held at the headquarters of the Institute in Badalona, Barcelona, the Symposium will foster scientific exchange and collaboration to accelerate the translation of discoveries into new treatments for patients with blood cancers.

Developing radiosensitizing agents to amplify tumor-eradicating effects on primary, regional recurrence, and distant metastases plays a transformative role in modern cancer care. Here, we report the de novo design of biocatalytic artificial metalloenzymes with an IrMn-cluster-based redox center (IMM) to achieve radiosensitized systemic antitumor responses for preventing malignant tumor metastasis and recurrence. Notably, our findings indicate that Mn-organic ligands substantially enrich the electron density of Ir clusters, thereby optimizing their interaction with oxygen species and markedly enhancing the production of both reactive oxygen species and molecular oxygen. When combined with radiotherapy, the IMM effectively amplifies DNA damage and induces pronounced apoptosis by alleviating intratumoral hypoxia. This shift reprograms the tumor microenvironment, enhancing radiosensitivity and facilitating the infiltration and activation of intratumoral CD8⁺ T cells and dendritic cells. Moreover, when integrated with anti-PD-1 therapy, this coordinated therapeutic regimen elicits potent systemic immune responses and durable antitumor memory, effectively suppressing tumor recurrence and metastasis while markedly improving therapeutic efficacy and long-term survival. We anticipate that this conceptual design could offer a promising and translationally relevant nanomedicine platform for radiotherapies.

Pushing the accelerator and the brake at the same time is rarely a good idea. But researchers at the University of Gothenburg are using this approach to treat leukemia. A new drug forces cancer cells to keep working hard even though they have run out of energy. The first study in mice shows very promising results.