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In-Vivo Applications of SI-BF-100 Using Voltage Sensitive Dyes
●● Monitor electrical activity over large areas of intact brain without the limitations of microelectrode arrays ●● Simultaneously monitor electrical activity and calcium concentration ●● Genetically-encoded fluorescent probes make it possible to monitor neurotransmitter behavior over entire regions of intact tissue ●● Integration with miniature fiber optic arrays or micro-scale endoscopes allow for measurements on animals while conscious and mobile The new SI-BF-100 is an LED-based fluorometer for life science applications. With up to seven LED modules (wavelengths), the SI-BF-100 covers many fluorometric applications in both Neuroscience and Cell Biology. This technology significantly cuts the cost of fluorescent imaging without sacrificing resolution or quality. Using the SI-BF-100 Biofluorometer equipped with high intensity LED modules and an appropriate fiber-optic probe, a researcher can perform many different types of analysis on intact tissue in vivo. Some potential applications include simultaneous measurement of membrane potential and calcium concentrations. With the use of genetically-encoded fluorescence probes, the applications are limited only by the imagination of the researcher. The use of a probe allows for the measurement of entire areas of the intact brain without the limitations presented by the placement of arrays of microelectrodes. By removing these limitations, the researcher is able to collect data over larger groups of neurons without placing a single electrode. Miniature fiber-optic arrays and microscale endoscopes have already been developed for use in Neuroscience. Coupling this technology with the SI-BF-100 allows the research to be conducted on conscious and mobile animals. By not requiring the animal to be attached to a traditional light source, more accurate results can be obtained. The SI-BF-100 eliminates the need for expensive and complicated arrays of microelectrodes to conduct studies in vivo. Larger areas can now be completely analyzed at a fraction of the cost with a significant reduction in experimental complexity.
MUSCLE PHYSIOLOGY
WPI's SI-BF-100 Biofluorometer probes include both the excitation and emission light fibers. See page 199.
Microscopic Imaging Applications Using Voltage Sensitive Dyes
●● Monitor membrane potential over small networks in cell culture ●● Monitor surface membrane potential in a single cell ●● Simultaneously monitor electrical activity and calcium concentration ●● Integration of fluorescence microscopy onto existing patch-clamp setups ●● Genetically-encoded fluorescence probes make it possible to monitor neurotransmitter behavior between cells in cell culture samples ●● With the addition of a CCD, traditional spatial imaging can be conducted The new SI-BF-100 Biofluorometer is an LED-based fluorometer for life science applications. With up to seven LED wavelength modules (three when using the high power Biofluorometer), the SI-BF-100 covers many fluorometric applications in both Neuroscience and Cell Biology. This technology significantly cuts the cost of fluorescence imaging without sacrificing resolution or quality. Using the SI-BF-100 Biofluorometer equipped with high intensity LED modules and coupling to an inverted microscope, a researcher can perform many different types of analysis on both single cells and small cell cultures. Some potential applications include simultaneous measurement of membrane potential and calcium concentration. With the use of genetically-encoded fluorescence probes, the applications are limited only by the imagination of the researcher.
Emission Fiber
The SI-BF-100 uses LED technology, eliminating the need for expensive secondary external light sources and project-specific filter cubes. With the potential for seven different LED modules inside every Biofluorometer, more fluorophores can be analyzed simultaneously, without the need for expensive filter wheels and external timing devices.
Epifluoresence Port
Excitation Fiber
The Biofluorometer can connect to the epifluoresence port of a microscope, and its high intensity LED light source is used for the illumination.
UK: Tel: +44 (0)1462 424700 • wpiuk@wpi-europe.com
World Precision Instruments
www.wpiinc.com Germany: Tel: +49 (0)30-6188845 • wpide@wpi-europe.com US: Tel: 941-371-1003 • sales@wpiinc.com
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