Genome sequencing fragments DNA for analysis, identifying genetic variations and disease genetics. Crucial for studies, it provides a cost-effective approach to genome understanding.

PacBio's long-read sequencing resolves complex genomic regions, detects structural variations, advancing genome understanding.

Optogenetics manipulates cell activity using light, advancing neuroscience research with precise control and insights into neural circuits.

Cardiac organoids are three-dimensional structures engineered in the laboratory to mimic the architecture and function of the heart. Created through advanced tissue engineering techniques, these miniature organ-like models contain clusters of heart cells that spontaneously organize and beat in a synchronized fashion. Cardiac organoids serve as powerful tools for studying heart development, disease mechanisms, and drug responses in a controlled and physiologically relevant environment. Their potential applications range from unraveling the intricacies of congenital heart defects to screening pharmaceutical compounds for cardiac toxicity. Cardiac organoids represent a promising avenue in cardiovascular research, offering insights that can contribute to the development of personalized medicine and innovative treatments for heart-related conditions.

FLIM (Fluorescence Lifetime Imaging Microscopy) measures fluorescence decay time, advancing research in various fields by revealing molecular dynamics in live cells and tissues.

STED microscopy surpasses the diffraction limit, visualizing structures at the nanoscale, crucial for biological and materials research.

MEA records electrical activity, aiding studies on network dynamics and drug responses in neuroscience, pharmacology, and regenerative medicine.

Single cell sequencing allows researchers to analyze the genetic information of individual cells, uncovering cellular heterogeneity within a population...

Microfluidics revolutionizes biomedical research by enabling accurate preclinical models like organoids for studying disease mechanisms and drug responses.

Micropatterning technologies, such as innovations like Primo Alveole, represent a sophisticated approach in biomedical research.

Spatial transcriptomics integrates RNA sequencing with spatial data, mapping gene expression to understand disease progression, particularly in cancer, for targeted interventions.

Spinning disc confocal microscopy offers high-resolution live-cell imaging, crucial for studying dynamic cellular processes in biology and neuroscience.

TIRF microscopy offers high-resolution imaging near the cell membrane, providing insights into dynamic cellular processes in biology and neuroscience.

Patch clamp is vital in neuroscience, measuring cell electrical activity by sealing a micropipette onto a membrane area for precise analysis.