AHMED MOHAMED
Radiology at Fannin St, Houston, TX
License number
Texas P9229
Category
Radiology
Type
Vascular Surgery
Address
Address
6565 Fannin St, Houston, TX 77030
Phone
(713) 790-3311
(832) 633-3368
(832) 633-3368
Professional information
Ahmed Mohamed - Houston, TX
Work:
Texas Heart Institute
Cardiovascular Surgery Fellow Ben Sinai Medical Center - Brooklyn, NY
A private clinic externship King Fahd Hospital
General Surgeon King Fahd Hospital
emergency department registrar Health Insurance Hospital
General Surgeon Alexandria University Hospitals
Emergency Department Registrar Alexandria University Hospitals
General Surgery Resident Ministry of Health
Primary Care Physician Alexandria University Hospitals
House Officer
Cardiovascular Surgery Fellow Ben Sinai Medical Center - Brooklyn, NY
A private clinic externship King Fahd Hospital
General Surgeon King Fahd Hospital
emergency department registrar Health Insurance Hospital
General Surgeon Alexandria University Hospitals
Emergency Department Registrar Alexandria University Hospitals
General Surgery Resident Ministry of Health
Primary Care Physician Alexandria University Hospitals
House Officer
Education:
University of Alexandria
Bachelor of Medicine & Surgery in Medicine
Bachelor of Medicine & Surgery in Medicine
Using Polymer Elasticity To Scale Up The Lab Characteristics To Field Application Of Friction Reducers
US Patent:
2013004, Feb 14, 2013
Filed:
Jul 30, 2012
Appl. No.:
13/562030
Inventors:
Ahmed Mohamed Mohamed Gomaa - Houston TX, US
Jia Zhou - , US
Hong Sun - Houston TX, US
Qi Qu - Houston TX, US
Jia Zhou - , US
Hong Sun - Houston TX, US
Qi Qu - Houston TX, US
Assignee:
Baker Hughes Incorporated - Houston TX
International Classification:
G06F 19/00
US Classification:
702 6
Abstract:
A method of determining the friction pressure drop gradient of at least one drag-reducing polymer passing through a tubing in an underground well includes determining the pressure drop, velocity and relaxation time of the drag-reducing polymer as it passes through a length of small diameter straight tubing at multiple injection rates in the lab. For each data set, the variables x=(Relaxation Time×Velocity) and y=(Pressure Drop Gradient×Diameter×(+De)) are calculated, wherein De is the Deborah number. Each x, y data point is plotted on a graph where the x-axis represents (Relaxation Time×Velocity) and the y-axis represents (Pressure Drop Gradient×Diameter×(+De)), wherein the curve formed by the plotted data approximates the x and y data for the drag-reducing polymer as it passes through the tubing in the underground well.