A microscopic DNA nanostructure inspired by bacteriophages can deliver therapeutic molecules directly into cells whilst evading endosomal traps that typically render treatments ineffective. The virus-inspired platform, demonstrated in breast cancer cells, could address the longstanding challenge that only one per cent of oligonucleotide therapeutics reach their cellular targets.
New research reveals that FGF21, a hormone under investigation for obesity and metabolic dysfunction-associated steatohepatitis (MASH), works by signalling to the hindbrain rather than the hypothalamus. The discovery of this distinct neural circuit—which increases metabolic rate rather than simply suppressing appetite—could enable development of more precise therapies with fewer adverse effects than current FGF21 analogues.
International researchers have identified a small molecule capable of crossing the blood-brain barrier to prevent pathological protein aggregation in Parkinson’s disease, Lewy body dementia and multiple system atrophy.
Researchers at the University of Geneva have developed a DNA-based drug delivery platform that uses molecular logic gates to identify cancer cells through dual biomarker recognition. The system activates cytotoxic agents only when both tumour markers are present, offering enhanced specificity over current antibody–drug conjugates while enabling deeper tissue penetration and multi-drug combinations.
Researchers at Fisabio Foundation have discovered that dermcidin, an antimicrobial peptide naturally present in human sweat, exhibits antiviral activity against influenza by binding to viral haemagglutinin and preventing cell fusion, opening new possibilities for innate immunity-based therapeutics.
Researchers at Fisabio Foundation have discovered that dermcidin, an antimicrobial peptide naturally present in human sweat, exhibits antiviral activity against influenza by binding to viral haemagglutinin and preventing cell fusion, opening new possibilities for innate immunity-based therapeutics.
Researchers at Kobe University have developed a novel approach to Alzheimer’s disease treatment by engineering right-handed amino acid chains that bind to amyloid-beta proteins. The method, inspired by materials science principles of chirality, demonstrated effective inhibition of toxic protein aggregation in mouse brain cell cultures, maintaining cell viability where amyloid-beta alone reduced it by 50 percent.
Researchers at King’s College London have developed a hybrid neural organoid approach that addresses longstanding limitations in scalability, reproducibility and longitudinal analysis. By dissociating 3D organoids and culturing pooled cells on microelectrode arrays, the team created 2D networks that retain cellular diversity whilst enabling consistent, long-term tracking of neural activity across parallel cultures.
Scientists have developed an implantable device that acts as a ‘living pharmacy’, using engineered cells to continuously produce multiple therapeutic biologics inside the body. The wireless system, which generates its own oxygen supply, maintained stable drug levels for 30 days in preclinical studies.
A $13.9 million UCLA-led research programme will use CRISPR gene editing and ‘cell villages’ to systematically map the molecular differences underlying autism and schizophrenia, addressing the absence of medicines targeting the biological roots of both conditions.
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.
An international research team has identified a previously unknown genetic disease characterised by premature ageing and progressive neurological decline. Using genome sequencing combined with induced pluripotent stem cell technology, scientists traced the condition to a mutation in the IVNS1ABP gene and uncovered disrupted actin dynamics during cell division as the underlying pathological mechanism.
Dutch researchers have demonstrated that IgG autoantibodies from Long COVID patients can induce persistent pain-like hypersensitivity in mice, with effects lasting at least two weeks. The study identifies distinct biological subgroups and suggests that autoimmune mechanisms may drive the condition’s diverse symptomatology, opening avenues for targeted immunotherapies.
Researchers at First Hospital of Jilin University have used machine learning to identify antimicrobial peptides with therapeutic potential for ulcerative colitis. The AI-driven approach screened over 6,000 candidates, identifying a lead peptide that demonstrated superior efficacy to standard treatments in preclinical models by reducing inflammation, restoring gut barrier integrity and selectively modulating the microbiome.
University of Adelaide researchers have discovered that CD47, a protein known for helping cancer cells evade immune detection, also directly promotes glioblastoma growth and invasion through a novel molecular pathway involving ROBO2 stabilisation.
University of South Florida researchers have adapted fluorescent imaging to visualise the cell cycle of Toxoplasma gondii in real time, revealing an unusual branching growth pattern that enables rapid multiplication. The breakthrough could identify new therapeutic targets for toxoplasmosis, which affects one-third of the global population and has limited treatment options once chronic.
Researchers have identified a previously unknown cellular mechanism involving tunnelling nanotubes and the protein SLC4A7 that enables toxic huntingtin to spread directly between neurons, offering new therapeutic targets for Huntington’s disease.
Northwestern University scientists have identified a circulating brain protein biomarker that is significantly reduced in schizophrenia patients and developed a synthetic therapeutic that corrected abnormal brain activity in preclinical models, offering hope for treating the disorder’s debilitating cognitive symptoms.
A newly discovered feedback loop between impaired kidney function and gut bacteria may drive disease progression through toxic compound production. UC Davis researchers have identified a potential therapeutic target to interrupt this damaging cycle.
Biotechnology company Priavoid GmbH has announced proof-of-concept data for PRI-101, an orally available peptide drug targeting neurodegeneration. Preclinical studies demonstrate the experimental therapy reduces toxic α-synuclein aggregates across multiple Parkinson’s disease models, with evidence of blood-brain barrier penetration and improved survival outcomes.
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.
ELRIG has announced the keynote speakers for its 2026 Advances in Cell-based Screening conference in Gothenburg, where scientists will gather to explore how human-first models, advanced cell biology and AI are changing the future of drug discovery.