A FPGA-based Real-Time Volume Rendering System

Award Information
Agency:
Department of Health and Human Services
Amount:
$725,523.00
Program:
SBIR
Contract:
2R44RR019787-02
Solitcitation Year:
2006
Solicitation Number:
PHS2006-2
Branch:
N/A
Award Year:
2006
Phase:
Phase II
Agency Tracking Number:
RR019787
Solicitation Topic Code:
N/A
Small Business Information
BIO-IMAGING RESEARCH, INC.
425 BARCLAY BOULEVARD, LINCOLNSHIRE, IL, 60069
Hubzone Owned:
N
Woman Owned:
N
Socially and Economically Disadvantaged:
N
Duns:
N/A
Principal Investigator
 PETER SULATYCKE
 (847) 279-5105
 psulatycke@birinc.com
Business Contact
 JOHN STANGER
Phone: (847) 279-5105
Email: JSTANGER@BIRINC.COM
Research Institution
N/A
Abstract
DESCRIPTION (provided by applicant): This Small Business Innovation Research Phase II project involves the research and development of a real-time FPGA-based volume rendering system. Medical radiologists face a data overload crisis that is getting worse with each year. This crisis is caused by ongoing advances in diagnostic imaging technologies (i.e. CT, MR and ultrasound) that produce more images with higher resolution each year. Compounding this problem is the fact that the number of imaging studies is also growing each year. Current hardware and software solutions are not up to the challenge. As a result, important data is often overlooked producing inaccurate medial diagnoses. The goal of this project is to develop a low-cost FPGA-based volume render that will alleviate this data overload crisis. By eliminating data that does not contribute to 3D images, the volume Tenderer's performance will far exceed current solutions. By being based on FPGAs, the volume renderer will be upgradeable, allowing for future performance and functionality enhancements. Additionally, the renderer will support very high quality renderings through the use of higher-order gradients. Thus, the volume renderer will appeal to users in many markets, including: medical diagnostic imaging, oil exploration, security inspection and engineering simulations. One very exciting application of the 4D capabilities of the volume renderer will be in multi-slice CT cardiac imaging, enabling non-invasive procedures to be performed in place of current invasive procedures. As a consequence, the nation stands to benefit from productivity increases and improved health care. The volume renderer developed in this project will enable very large 3D and 4D data sets, generated by CT and MR scanners, to be viewed in real-time. This will make medical imaging more accurate and useful, improve the radiological workflow and speed up the discover of drugs. In addition, new high-end application such as 4D cardiac rendering will become possible.

* information listed above is at the time of submission.

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