This application note describes how the TissueScope™ solution provides researchers with the opportunity to effectively map the entire brain, and link detailed cytoarchitectural maps with functional imaging data.

This document provides detailed information about triggering with the Leica TCS SP5, TCS SP5 II and DM6000 CFS systems.

The Morphologi® G3 automated particle characterization system is an analytical tool that provides microscope quality images and delivers statistically significant data through the rapid analysis.

Technological advances in the last couple of years have enabled 3D scaffolds to be engineered that offer a real proxy for the in vivo environment which can be easily and routinely used in a cell culture laboratory.

Alvetex Scaffold enables cells to develop natural, in vivo-like intercellular interactions, providing an ideal environment for real three-dimensional growth and nutrient exchange that is comparable to intra-capillary exchange in living tissues.

Researchers are increasingly turning to 3D cell culture techniques, due to the improved physiological relevance of the cellular environment. 3D cell cultures offer a more in vivo-like response to stimuli more closely resembling the behavior of animal models or the human body.

Culturing of various stable cell lines, including bacterial, yeast, hybridoma, insect and mammalian lines, and stem cells, is an important task in the pharmaceutical industry. The cells need to be maintained and expanded for use in cell-based assays, such as siRNA screening, ADME and high content screening, as well as for clone selection.

Confocal Raman Imaging is a very effective tool for forensic analysis as it provides information on the chemical composition.

Western blotting is a very useful and widely adopted lab technique, but the traditional procedure can be long and tedious. Researchers can assess only whether a blot image is captured at the end of the long procedure and the quality of western blot data is sometimes challenged due to poor loading controls.

Reliable western blot data require detection of the target and loading control proteins in the linear dynamic range. Many published western blot images show saturated protein bands, indicating that they were not measured in the linear dynamic range. Quantitative analysis based on this type of data is not reliable.

ETD is a powerful fragmentation technique that has proved particularly useful for the determination of labile post-translational modifications of peptides and proteins. The technique has been used to determine the site-specific octanoylation of the peptide Ghrelin which could not be determined using Collision Induced Dissociation.