Dr. Pierre-Henri Ferdinand

Linkedin Facebook X-twitter Instagram High-Throughput vs. High-Precision: Which CLD Strategy Works for You? In cell line development (CLD), speed and precision are often seen as opposing goals, but they don’t have to be. Researchers in biotech, CDMO, and pharma settings are increasingly challenged to generate results quickly while meeting regulatory standards. High-throughput CLD offers rapid […]

Linkedin Facebook X-twitter Instagram Laboratory automation is changing how scientists conduct research and develop new therapies (Holland & Davies, 2020). By providing efficiency and accuracy at virtually all steps of core biomedical research workflows, automation allows researchers to set more ambitious goals and generate more profound insights into cellular behavior and drug activity. Plate washing

Linkedin Facebook X-twitter Instagram Plate washing is a fundamental yet often underestimated step in life science workflows. Effective plate washing is crucial for applications like enzyme-linked immunosorbent assays (ELISAs) and cell-based assays, ensuring the removal of unbound reagents and preventing cross-contamination. Accurate plate washing safeguards the integrity of experiments and optimizes the use of valuable

Linkedin Facebook X-twitter Instagram Cell-based assays are indispensable tools in biological research, offering insights into cell behavior, gene function, and drug activity. Techniques like high-throughput screening for drug discovery and advanced technologies like organ-on-chip and single-cell analyses give researchers unprecedented insights to drive progress in biomedicine. However, challenges such as variability and contamination highlight the

Linkedin Facebook X-twitter Instagram Enzyme-linked immunosorbent assays (ELISAs) are considered the gold standard for immunoassays and offer incredible specificity due to the inherent properties of antibody-antigen binding (Alhajj et al., 2024). Despite their reliability, traditional ELISA workflows can be time-consuming and error-prone when washing and pipetting steps are performed manually. Automation streamlines ELISA processes, enhancing

Linkedin Facebook X-twitter Instagram Microbiome research is transforming how we address global challenges in healthcare, the environment, and industry. The microbiome, a complex community of microorganisms, plays a pivotal role in human health, ecosystem balance, and sustainable innovation. Advances in this broad field enable groundbreaking applications in medicine, eco-friendly agriculture, and renewable energy production. By

Linkedin Facebook X-twitter Instagram From producing lifesaving therapeutics like insulin to creating eco-friendly biofuels, engineered strains of bacteria and yeast offer solutions to pressing global challenges. Advances in synthetic biology and automation are driving this field forward, enabling efficient processes and novel applications. However, challenges like single clone isolation, growth condition optimization, and regulatory hurdles

Linkedin Facebook X-twitter Instagram Rare microbiota isolation has been instrumental in driving groundbreaking innovations in healthcare, biotechnology, and beyond. From the accidental discovery of penicillin to modern breakthroughs like CRISPR, cultivating microorganisms continually revolutionizes many industries. Less than 1% of environmental microbes have been cultured to date, leaving room for even greater discoveries and innovations

Linkedin Facebook X-twitter Instagram Microbiome research is revolutionizing many industries, offering groundbreaking insights into human health, environmental sustainability, and industrial innovation. The microbiome describes the diverse community of microorganisms inhabiting animals, plants, and ecosystems and plays vital roles in human physiology and ecosystem health (Panthee et al., 2022). Applications of microbiome research range from personalized

Linkedin Facebook X-twitter Instagram The Ultimate Guide to Viral Vector Production: Applications, Quality Control, and Efficient Manufacturing Strategies Viral vectors are at the forefront of transformative treatments, enabling advancements in gene therapy and vaccines (Bulcha et al., 2021). These vectors deliver therapeutic genes and antigen-coding sequences, allowing for innovative approaches to treat genetic diseases and

Linkedin Facebook X-twitter Instagram Strategies for Efficient Viral Vector Production for Gene Therapies Viral vectors are essential tools in gene therapy, offering promising treatment options for various genetic diseases (Bulcha et al., 2021). However, scaling up production to meet growing demand introduces several challenges. Complexities in production, low yields, and stringent regulatory requirements make viral

Linkedin Facebook X-twitter Instagram Modern Medicine Transformed: How Viral Vectors Drive Gene Therapy Gene therapy is transforming modern medicine, with viral vectors playing a central role in this advancement. These engineered viruses deliver therapeutic genetic sequences to specific cells, offering potential treatments for genetic disorders, cancers, and neurodegenerative diseases. This article will explore how viral