CLEMENTE T ROQUE
Medical Practice in Stonybrook, NY

License number
New Jersey 25MA03731300
Expiration Date
Jun 30, 1997
Category
Medical Examiners
Type
Medical Doctor
Address
Address
Stonybrook, NY

Professional information

Clemente T Roque Photo 1

Dr. Clemente T Roque, Stony Brook NY - MD (Doctor of Medicine)

Specialties:
Neuroradiology
Address:
Stony Brook University Hospital RAD
HSC L4 Nicholls Rd, Stony Brook 11794
(631) 444-2420 (Phone)
University Hospital, Stony Brook 11794
(631) 444-6919 (Phone)
Certifications:
Diagnostic Radiology, Neuroradiology, 2008
Awards:
Healthgrades Honor Roll
Languages:
English
Hospitals:
Stony Brook University Hospital RAD
HSC L4 Nicholls Rd, Stony Brook 11794
University Hospital, Stony Brook 11794
Stony Brook University Hospital
101 Nicolls Rd, Stony Brook 11794
Education:
Medical School
University Of The Philippines Manila, College Of Medicine
Graduated: 1971
Philippines Genl Hospital
Chinese Genl Hospital Med Center
Graduated: 1973
St Joseph Hospital
Graduated: 1975
Wayne State University
Graduated: 1979
Thomas Jefferson University Hospital
Graduated: 1984


Clemente Roque Photo 2

Clemente Roque, Northport NY

Work:
Northport Va Medical Center
79 Middleville Rd, Northport, NY 11768 Stony Brook Radiology Pc
Hsc L4, Stony Brook, NY 11794 Stony Brook University
3 Edmund D Pellegrino Rd, Stony Brook, NY 11794 Stony Brook Pathology
225 W Montauk Hwy, Hampton Bays, NY 11946


Clemente Roque Photo 3

Computer Aided Treatment Planning And Visualization With Image Registration And Fusion

US Patent:
2003020, Nov 6, 2003
Filed:
Apr 15, 2003
Appl. No.:
10/297349
Inventors:
Zhengrong Liang - Stony Brook NY, US
Dongqing Chen - Port Jefferson Station NY, US
Bin Li - Centereach NY, US
Clemente Roque - Stony Brook NY, US
Eric Smouha - Northport NY, US
Arie Kaufman - Plainview NY, US
Mark Wax - Greenlawn NY, US
Kevin Kreeger - E Setauket NY, US
International Classification:
A61B005/05
US Classification:
600/407000
Abstract:
A computer based system and method of visualizing a region using multiple image data sets is provided. The method includes acquiring first volumetric image data of a region and acquiring at least second volumetric image data of the region. The first image data is generally selected such that the structural features of the region are readily visualized. At least one control point is determined in the region using an identifiable structural characteristic discernable in the first volumetric image data. The at least one control point is also located in the at least second image data of the region such that the first image data and the at least second image data can be registered to one another using the at least one control point. Once the image data sets are registered, the registered first image data and at least second image data can be fused into a common display data set. The multiple image data sets have different and complimentary information to differentiate the structures and the functions in the region such that image segmentation algorithms and user interactive editing tools can be applied to obtain 3d spatial relations of the components in the region. Methods to correct spatial inhomogeneity in MR image data is also provided.


Clemente Roque Photo 4

Computer Aided Treatment Planning

US Patent:
7630750, Dec 8, 2009
Filed:
Feb 5, 2001
Appl. No.:
10/182217
Inventors:
Zhengrong Liang - Stony Brook NY, US
Bin Li - Centereach NY, US
Dongqing Chen - Port Jefferson Station NY, US
Eric E. Smouha - Northport NY, US
Clemente T. Roque - Stony Brook NY, US
Arie E. Kaufman - Plainview NY, US
Mark R. Wax - Greenlawn NY, US
Kevin Kreeger - East Setauket NY, US
Assignee:
The Research Foundation for The State University of New York - Stony Brook NY
International Classification:
A61B 5/05
US Classification:
600407, 382128, 128922
Abstract:
A method of computer aided treatment planning is performed by generating and manipulating a three dimensional (3D) image of a region which includes at least one anatomical structure for which treatment, such as surgery, biopsy, tissue component analysis, prosthesis implantation, radiation, chemotherapy and the like, is contemplated. A virtual intervention, which simulates at least a portion of the contemplated treatment, is performed in the 3D image. The user can then determine the effect of the intervention and interactively modify the intervention for improved treatment results. Preferably, a warning is automatically provided if the intervention poses a risk of detrimental effect. The user can navigate through the contemplated region in the 3D image and assess the results. The treatment plans can be saved for comparison and post treatment evaluation.