Early drug discovery has no shortage of genomic data, but confidence remains scarce. This report examines how CRISPR, functional genomics and human-relevant models are being applied to determine which signals matter, how they influence disease biology and which targets and strategies are worth pursuing.
SynGenSys applies computational design strategies to engineer synthetic promoters with predictable performance characteristics for therapeutic and manufacturing applications. Professor David James discusses how tissue-specific regulatory elements are designed from genomic data to enable precise control of gene expression in contexts ranging from NK cell immunotherapy to biologic production.
Australian start-up OmnigeniQ has demonstrated what it describes as the first deterministic, physics-based computation of a human protein in its native state.
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.
This webinar examines the design trade-offs and technical constraints involved in building a high-throughput robotic imaging pipeline for complex biological workflows.
AI in drug discovery is evolving fast. Join the experts behind today’s real progress as they share what works, what doesn’t and what you need to know next.
Discover how a new peptide tool, WRPRFa, is helping researchers better understand pain pathways and accelerate the search for next-generation analgesics.
This expert-led webinar discusses how to break through common bottlenecks in TCR discovery with practical strategies that help teams move faster and smarter.
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.
Early drug discovery has no shortage of genomic data, but confidence remains scarce. This report examines how CRISPR, functional genomics and human-relevant models are being applied to determine which signals matter, how they influence disease biology and which targets and strategies are worth pursuing.
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.
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.
Early drug discovery has no shortage of genomic data, but confidence remains scarce. This report examines how CRISPR, functional genomics and human-relevant models are being applied to determine which signals matter, how they influence disease biology and which targets and strategies are worth pursuing.
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.
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.
Early drug discovery has no shortage of genomic data, but confidence remains scarce. This report examines how CRISPR, functional genomics and human-relevant models are being applied to determine which signals matter, how they influence disease biology and which targets and strategies are worth pursuing.
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.
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.
Early drug discovery has no shortage of genomic data, but confidence remains scarce. This report examines how CRISPR, functional genomics and human-relevant models are being applied to determine which signals matter, how they influence disease biology and which targets and strategies are worth pursuing.
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.
SynGenSys applies computational design strategies to engineer synthetic promoters with predictable performance characteristics for therapeutic and manufacturing applications. Professor David James discusses how tissue-specific regulatory elements are designed from genomic data to enable precise control of gene expression in contexts ranging from NK cell immunotherapy to biologic production.
Australian start-up OmnigeniQ has demonstrated what it describes as the first deterministic, physics-based computation of a human protein in its native state.
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 Clinical Lymphoma, Myeloma and Leukemia identifies Kappa Myeloma Antigen and Lambda Myeloma Antigen as highly selective immunotherapy targets across plasma cell dyscrasias.