The Ultraviolet-Visible Light Spectrophotometer is useful for determining the concentration of cells in solution, the concentration and purity of nucleic acids, and the absorption profile of unknown substances.
The atomic absorbance spectrometer uses the absorption of light to determine how much of a metallic element is in a sample. When we burn our sample in a flame, it breaks down into atoms. We can shine a special light, specific to each metal, through the flame in order to measure the amount of light absorbed by that metal in the sample. The more atoms of a metal in the sample, the more light will be absorbed.
Atomic Absorption Spectroscopy is used to determine concentrations of metals in samples obtained from the following fields:
The FTIR measures the infrared absorptions for chemical compounds, and the data from this instrument can be used to help identify what functional groups, i.e. alcohols and caboxylic acids, are present in a particular molecule. This information is invaluable in determining the structure of organic compounds.
Gel electrophoresis using a multi-channel pipette of various DNA samples.
In the photo, Dr. Fabich is loading the flow cell to the MiSeq DNA Sequencer. He is holding a cartridge containing all of the reagents that the microfluidics uses in the flow cell. The first run on the DNA Sequencer generated 11 billion base pairs (the human genome is 3 billion base pairs).
The PowerLabs Advanced Teaching System is a versatile data capturing device adapted for animal and human physiological studies with capabilities like electrocardiogram (heart studies), electroencephalogram (brain/sleep studies), electromyelogram (muscle studies), and electroculogram (eye studies). These are combined with real-life clinical cases giving students an optimized and exciting learning experience in Anatomy, Physiology and Pharmacology labs.