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/580 in 5 seconds

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

Title: Fluidization of agglomerates of nanoparticles under different force fields
Author: Quevedo, Jose A.
View Online: njit-etd2004-116
(xix, 111 pages ~ 6.6 MB pdf)
Department: Department of Chemical Engineering
Degree: Master of Science
Program: Chemical Engineering
Document Type: Thesis
Advisory Committee: Pfeffer, Robert (Committee chair)
Dave, Rajesh N. (Committee member)
Loney, Norman W. (Committee member)
Date: 2004-08
Keywords: Nanoparticles
Fluidization
Availability: Unrestricted
Abstract:

Nanoparticles are the focus of many research activities, and in the near future they will be handled in large amounts by industry. Fluidization is a very important unit operation which is applied in several industrial processes.

In the present work, fluidization experiments with agglomerates of nanoparticles were done under different force fields: (1) gravity force or conventional fluidization; (2) a magnetic force field, which uses magnetic particles under the influence of a magnetic field; and (3) a centrifugal force, generated by a rotating frame that simulates higher gravity conditions.

Among the significant results with agglomerates of nanoparticles, conventional fluidization was possible by separating out large agglomerates from the bed; the movement of magnetic particles at the bottom of the fluidized bed enhanced the fluidization by increasing the bed expansion and avoiding the bypass of gas through the bed under the form of bubbles; fluidization of the agglomerates in a rotating fluidized bed was accomplished under different simulated gravity conditions, which allowed to fluidize the agglomerates under higher than normal gas flow conditions. Theoretical approaches for the estimation of the agglomerate size and the bed pressure drop were included.


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