Providing a comprehensive panel of large animal disease models across multiple species, including NHP, mini-pig, dog, and rabbit. Models for a wide range of indications, including autoimmune and inflammatory diseases Covering healthy animals, disease models, and animal biobank Multi-disciplinary read-outs (including clinical and pathology scoring, and medical imaging via MRI, X-ray, and endoscopy) Druggability assessment …Read More >

We offer an extensive panel of inflammatory bowel disease models in mice and rats, including genetically modified, chemically induced, and adoptive transfer-related IBD models. Let our experts help you choose the best IBD animal models to advance your research programs. Learn more about our platform of inflammation models  

This webinar will focus on aspects related to PROTAC discovery and chemistry workflows, such as ligand finding strategies, synthesis optimization, and linker design. Successful development of bifunctional molecules requires a deep understanding of multiple processes, including biophysical events which dictate induced proximity and how technologies such as DNA-encoded libraries (DEL) can be leveraged to identify …Read More >

This webinar will focus on PROTAC biology workflows, such as in vitro screening assays, in vivo testing, and optimization of DMPK properties. Topics will include the best use of biochemical assays to measure binary/ternary complex formation, cell-based assays to assess target engagement and degradation, strategies for enhancing drug delivery and formulation, and PK/PD evaluation of …Read More >

This week’s episode of our “How Does It Work?” series features Peptide-Oligonucleotide Conjugates. Peptide-oligonucleotide conjugates are made up of peptide and oligonucleotide components. These cutting-edge molecules have many applications in biomedicine. The oligonucleotide component can interact with mRNA to alter gene expression within diseased cells but oligonucleotides are easily degraded in the body and have …Read More >

In this week’s episode of our “How Does It Work?” video series, we explore Individualized Oligonucleotide Therapies. Around 6 billion letters form the genetic code that makes each person’s biology unique. Genomic sequencing allows us to read this code to find defects that cause disease, enabling us to tailor therapies for individual patients. This was …Read More >

In this week’s installment of our “How Does It Work?” video series, we’ll explore Antisense Oligonucleotide Therapy. Errors in DNA, known as gene mutations, can originate harmful proteins that cause disease. However, we can target the mRNA involved in the formation of specific disease associated proteins by using drugs called antisense oligonucleotides. They work by …Read More >