In the most general terms biophotonics is the convergence of photonics and the life sciences.
Photonics - the science and technology of generation, manipulation and detection of light - uses photons, quantum-like particles of light, instead of electrons to transmit, process, and store information. The invention of lasers, a concentrated source of monochromatic and highly directional light, revolutionized photonics in the 1960s and brought us technological advancements such as bar code scanners, CD players, and, with fluorescence microscopes, the first taste of the power of biophotonics.
Today, biophotonics is widely regarded as a key science upon which the next generation of biomedical research instrumentation and clinical tools will be based. Although nature has used the principle of biophotonics for millennia (e.g., to harness light for photosynthesis and to create vision), it wasn’t until the recent past that a substantial transfer of photonics technologies to biological applications began to transform medical and life sciences.
Thanks to brighter light-emitting dyes, faster and more sensitive detectors, automation technology and computing capacity that can handle storing vast amounts of image data, it is now possible for scientists to probe the cellular and molecular mechanisms of life at unprecedented resolutions. The convergence of technological advances puts the formerly unthinkable within the grasp of scientific inquiry, offering unparalleled opportunities to understand the physiology of human disease and to find new ways to treat it.
The ability to probe and image (see) tissues is also leading to a wide range of novel diagnostic methods and therapeutic applications. Examples include coherence optical tomography (OCT), which has revolutionized the field of ophthalmology by allowing the early diagnosis of macular degeneration (MD) in the retina, and photodynamic therapy (PDT) approaches for treatment of cancers by retarding the growth of new blood vessels and vasculature.
What is the goal of the biophotonics center? Answer»
The goal of the center is to develop, test and disseminate new technologies that enable groundbreaking biological discoveries. Removing long-standing technical barriers in a field is a prerequisite for transforming the study of biological systems which ultimately helps prevent, detect, diagnose, or treat human disease and disability.
What is the distinction between the biophotonics center and the core?Answer»
The overarching center is made up of a) faculty labs and b) the core.
The faculty labs are engaged in both development and application of new imaging technologies to find solutions to fundamental problems in life sciences.
The core makes commercial technology available to researchers at Salk, collaborators of Salk, and other institutions in the area.
What technologies are available at Salk in the biophotonics core?Answer»
The core is equipped with some of the latest cutting-edge commercial imaging and data analysis technologies, enabling its users the integration of imaging tools into their biological research programs.
Equipment and services available in the core:Super-Resolution Microscopy
Zeiss Elyra PS.1 Super-Resolution Microscope
Zeiss LSM 880 Rear Port Laser Scanning Confocal and Airyscan FAST Microscope
Oxford Nanoimaging 3D STORM and TIRF system
Confocal Microscopy
Zeiss LSM 710 Laser Scanning Confocal Microscope
Zeiss CSU Spinning Disk Confocal Microscope
Yokogawa Cell Voyager 1000 Spinning Disk Confocal Microscope
Lightsheet Microscopy
Zeiss Lightsheet Z.1 Dual Illumination Microscope
Two-photon Microscopy
Olympus FV1000MPE Two-photon / CARS Microscope
TIRF Microscopy
Nikon Ti:E PFS TIRF Microscope
Slide Scanning Microscopy
Olympus VS-120 Virtual Slde Scanning Microscope
Laser Capture Microdissection
Zeiss PALM Microbeam V4 Capture Microdissection System
Basic Wide-field/Epi-fluorescence Microscopy
Zeiss Vivatome Optical Sectioning System
Zeiss StereoLumar V12. Fluorescence Stereoscope
Incucyte ZOOM
Transmission Electron Microscope
Carl Zeiss Libra 120kV PLUS Energy Filtered Transmission Electron Microscope (TEM)
Scanning Electron Microscope
Carl Zeiss SIGMA Variable Pressure Field Emission Gun Scanning Electron Microscope (SEM)
Serial Block Face Scanning Electron Microscope System
The Gatan 3View Fully Automated Serial Block Face Scanning Electron Microscope (SBFSEM) system.
Sample preparation instrumentation and services
The sample preparation instrumentation includes:
Pelco BioWave Pro Microwave
Leica UC7/FC7 ultramicrotome
Leica EM PACT High-Pressure Freezer
Leica AFS Automatic Freeze Substitution
Leica EM GP Automatic Plunge Freezing
Leica EM CPD300 Automated Critical Point Dryer
Leica EM SCD500 Sputter Coater/Evaporator
How can a researcher gain access to this technology?Answer»
How can I support the biophotonics center and its mission?Answer»
If you would like to make a tax-deductible donation to support training of the next generation of cross-disciplinary scientists, or the development of new imaging technologies to advance our understanding of biological processes in health and disease, including viral infection, aging, stroke and cancer, please click on the link below. Under the Donate Now tab in the Special Instructions field please indicate Salk Biophotonics Center and optionally Trainee Fellowships or Technology Innovation Funds.
DONATE TO SALK BIOPHOTONICS CENTER
Contact
Salk Institute for Biological Studies
Waitt Advanced Biophotonics Center
10010 N Torrey Pines Rd
La Jolla, CA 92037
Telephone: (858) 453-4100 x1951
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