Upcoming OSA Technical Group Events
23 – 25 March 2020, Prague Congress Centre, Prague, Czech Republic
OSA Lasers in Manufacturing Technical Group Panel Discussion
When: Monday, 23 March 2020, 12:45 - 13:45
Where: Club E
Join the OSA Lasers in Manufacturing Technical Group for a panel discussion on Monday. The panel will feature brief talks from Pavel Honzátko, Michal Kamrádek, and Martin Smrž. Following their talks Filip Todorov, who serves as the vice chair of the Lasers in Manufacturing Technical Group, will lead a discussion bringing together the different topics and opening the conversation to participation from attendees. Please RSVP online at http://bit.ly/HBTGEvent to let us know you will be joining us for this event.
20 - 23 Apr 2020, Fort Lauderdale Marriott Harbor Beach Resort, Fort Lauderdale, Florida, United States
The Role of BioPhotonics in OpenData and OpenScience
When: Tuesday, 21 April 2020, 12:45 – 13:45
Where: Grand Salon C
Join the OSA NonImaging Optical Design Technical Group for this special event exploring the role of open data and open science within the field of biophotonics. This event will include a number of panelists from government agencies, publishing, academia and industry sharing their thoughts on open data in a moderated question and answer session. Please RSVP at https://forms.gle/t2j5DBPEuJn2Lc2Q9 if you will be able to join us for this event.
OSA Technical Groups Poster Award
OSA offers several technical groups for members working in biomedical optics, which provides them with the chance to connect with colleagues working in their area of specialization. As part of this congress, several of these technical groups are supporting an award for Best Poster Presentation for students and recent graduates. Individuals interested in being considered for this award should complete the application form at https://forms.gle/bJXvUEBrgDWVLXW68. Participating technical groups include:
Therapeutic Laser Applications
This group focuses on the use of lasers in surgery or in other treatments of disease. This includes the use of lasers as surgical tools for tissue cutting, welding, and coagulation, as well as the use of optics to initiate cell-damaging photochemical reactions for the treatment of diseases such as cancer. In addition, optics, spectroscopy, and imaging provide unique tools that may allow real-time diagnostics of the efficacy of clinical procedures. For many of these applications, the development of optical tools for appropriate light delivery, especially for fiber-based or endoscopic delivery to tissues that are not directly accessible, is critical. In addition, this group emphasizes basic science studies of the mechanisms by which light can affect tissue in adverse or therapeutic ways.
Tissue Imaging and Spectroscopy
A variety of techniques are being applied to in vivo optical imaging and spectroscopy in the case where the light is scattered many times as it passes through the sample. This group focuses on the use light to form images of tissue using diffusely scattered light or to determine tissue properties through spectroscopic measurements. Optical techniques used for both imaging and spectroscopy include reflection, absorption, fluorescence, phosphorescence, Raman, and the photo-acoustic effect. Such techniques are an essential tool for biomedical research involving small animals and hold great promise for clinical tasks such as breast cancer imaging, brain mapping, endoscopic imaging, and real-time feedback on efficacy during therapeutic procedures.
Microscopy and Optical Coherence Tomography
Optical tools are well suited to the study of biology because the attainable spatial resolution matches so closely to the length scale of cells and sub-cellular features: the spatial scale over which many events in normal and disease-state biology are occurring. Microscopic imaging continues to play a dominant role in medicine and biology, driven by the continuous advances in terms of imaging capabilities and contrast mechanisms. This group emphasizes the development and application of new techniques for micrometer-scale structural and functional imaging of biological systems. Among the efforts of this group are the development and application of methods that optimize the optical examination of cellular and tissue biology through increased spatial resolution, higher acquisition speeds, improved penetration depths and maximized contrast. Directions of interest include super-resolution microscopy, multimodal approaches, linear and nonlinear quantitative imaging, phase-sensitive detection of optical signatures and the integration of microscopy and OCT with endoscopic applications.
Imaging Optical Design
This group encompasses the design and characterization of traditional optical systems utilizing lens design, geometric ray-tracing, and physical optics modeling. The evolution and development of design codes and software to assist in designing components and systems are included here. Typical applications include astronomical telescopes, microscopes, cameras, stray light, and adaptive optics.
NonImaging Optical Design
This group encompasses the design and characterization of illumination systems using modeling techniques. Non-sequential design techniques, including both software and tailoring methods provide the tools to design efficient optical components that provide the desired distribution at the target. Typical applications include solar energy, lighting, and displays.