Articles via Databases
Articles via Journals
Online Catalog
E-books
Research & Information Literacy
Interlibrary loan
Theses & Dissertations
Collections
Policies
Services
About / Contact Us
Administration
Littman Architecture Library
This site will be removed in January 2019, please change your bookmarks.
This page will redirect to https://digitalcommons.njit.edu/theses/1910/ in 5 seconds

The New Jersey Institute of Technology's
Electronic Theses & Dissertations Project

Title: Computer simulation of intracranial hemodynamics during the induction phase of anesthesia
Author: Sundaram, Gopinath P.
View Online: njit-etd1993-148
( ix, 62 pages ~ 1.5 MB pdf)
Department: Biomedical Engineering Committee
Degree: Master of Science
Program: Biomedical Engineering
Document Type: Thesis
Advisory Committee: Ritter, Arthur B. (Committee chair)
Bekker, Alex Y. (Committee member)
Kristol, David S. (Committee member)
Date: 1993-05
Keywords: Hemodynamics -- Computer simulation.
Intracranial pressure -- Computer simulation.
Anesthesia.
Brain -- Blood-vessels -- Models.
Availability: Unrestricted
Abstract:

The induction of general anesthesia is associated with severe hemodynamic compromises which, in turn, may cause acute elevation of intracranial pressure (ICP). Quantitative assessment of cerebrovascular responses arising from multiple mechanical and pharmacological interventions occurring in a short time interval require a large number of human studies which are difficult to perform. The purpose of this project is to evaluate the effect of various stimuli on the intracranial hemodynamics during induction using a mathematical model of cerebrovascular circulation.

A five compartmental model of the cerebrovascular system is used for our simulation. Autoregulation is modeled by adjusting arterial-arteriolar resistance in order to change the flow towards its control value. The effect of thiopental on cerebrovascular circulation is simulated by a variable arteriolar resistance which is functionally dependent on the thiopental concentration. Thiopental concentration, in turn, is predicted by a three compartmental pharmacokinetic model. The simulation program was written in TUTSIM dynamic simulation language for an IBM compatible PC. The presented computer simulation permits development of an optimal drug administration schedule to control ICP during various phases of anesthesia. It was demonstrated that if the time interval between the administration of a drug and intubation is more than 2 minutes, an additional dose of thiopental is required to prevent elevation of ICP during laryngoscopy.


If you have any questions please contact the ETD Team, libetd@njit.edu.

 
ETD Information
Digital Commons @ NJIT
Theses and DIssertations
ETD Policies & Procedures
ETD FAQ's
ETD home

Request a Scan
NDLTD

NJIT's ETD project was given an ACRL/NJ Technology Innovation Honorable Mention Award in spring 2003