Book chapter
Implementation of biologically inspired components in embedded vision systems
Developing and Applying Biologically-Inspired Vision Systems: Interdisciplinary Concepts, pp.307-345
IGI Global
2013
Abstract
Studies in the area of computational vision have shown the capability of visual attention (VA) processing in aiding various visual tasks by providing a means for simplifying complex data handling and supporting action decisions using readily available low-level features. Due to the inclusion of computational biological vision components to mimic the mechanism of the human visual system, VA processing is computationally complex with heavy memory requirements and is often found implemented in workstations with unapplied resource constraints. In embedded systems, the computational capacity and memory resources are of a primary concern. To allow VA processing in such systems, the chapter presents a low complexity, low memory VA model based on an established mainstream VA model that addresses critical factors in terms of algorithm complexity, memory requirements, computational speed, and salience prediction performance to ensure the reliability of the VA processing in an environment with limited resources. Lastly, a custom softcore microprocessor-based hardware implementation on a Field-Programmable Gate Array (FPGA) is used to verify the implementation feasibility of the presented low complexity, low memory VA model.
Details
- Title
- Implementation of biologically inspired components in embedded vision systems
- Authors
- Christopher Wing Hong Ngau (Author) - University of Nottingham Malaysia CampusLi-Minn Ang (Author) - Edith Cowan UniversityKah Phooi Seng (Author) - Sunway University
- Contributors
- Marc Pomplun (Editor) - University of Massachusetts BostonJunichi Suzuki (Editor) - University of Massachusetts Boston
- Publication details
- Developing and Applying Biologically-Inspired Vision Systems: Interdisciplinary Concepts, pp.307-345
- Publisher
- IGI Global
- Date published
- 2013
- DOI
- 10.4018/978-1-4666-2539-6.ch013; 10.4018/978-1-4666-2539-6
- ISBN
- 9781466625402
- Organisation Unit
- University of the Sunshine Coast, Queensland; School of Science, Technology and Engineering; Engage Research Lab
- Language
- English
- Record Identifier
- 99513795802621
- Output Type
- Book chapter
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