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Lecture 2 files (Advanced fundamentals II:
Ignition)
Lecture 3 files (Advanced fundamentals III:
Pollutant formation)
Lecture 7 files (Prof. Prakash's fuel cell
presentation)
Lecture
8 files (Turbulent combustion I:
basics of turbulence, premixed turbulent flames)
Lecture 9 files (Turbulent combustion II: premixed
turbulent flames continued)
Lecture 10 files (Turbulent combustion III: non-premixed turbulent
flames, edge flames)
Lecture 11 files (Hypersonic propulsion I: introduction, thrust, compressible
flow)
Lecture 13 files (Emerging technologies:
application of combustion knowledge to other fields)
Lecture 14 files (New research fields; future
needs)
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Problem set #1: On-line version .pdf version
Problem set #2: On-line version .pdf version
Problem set #3: On-line version .pdf version
Problem set #4: On-line version .pdf version
Problem set #5: On-line version .pdf version
Final exam from 2 years ago: On-line version .pdf version
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Excel
spreadsheets:
Website to
download GASEQ chemical thermodynamics program for Windows (written by Dr.
Chris Morely)
On-line chemical thermodynamics calculator (from
Colorado State University)
On-line chemical kinetics calculator (also from
Colorado State University)
On-line
thermodynamic reference data (from National Institute of Standard and
Technology)
PDR's tips for successful analysis and research in general
Getting
copies of articles cited in the lecture notes (and other related or interesting
papers, or even property data, for example thermal diffusivity):
1.
Many
of the papers cited in the lecture notes are available in the folders
containing the lecture notes themselves.
2.
You
can search for them on-line using your favorite search engine, e.g.
Google. Remember, in todayÕs world
search is your friend!
3.
USC
subscribes to many on-line journals.
You can access these via
http://was.usc.edu/eresources/isd/lists/journal_A.php
4.
Also,
you can search for any imaginable author and subject via the ISI web of
knowledge:
http://isi1.isiknowledge.com/portal.cgi?DestApp=WOS&Func=Frame
But
these are paid services that USC subscribes to and so are only available from
USC IP addresses. You can access
these services from home, however, if you set up a "Virtual Private
Network" (VPN) connection to USC; to see how to do that, check out
5.
Finally, if USC does not have a subscription to a journal that you're
looking for, you can ask the USC libraries to find a copy of the article you're
looking for in some other library with which USC has a loan agreement. If they can find the article, they will
have the host library scan a copy of it and they will send it to you as a
.pdf. This process is reported to
be very efficient; they get you the article within a couple of days.
-----------------------------
Instructor: Prof. Paul Ronney, Department of Aerospace and Mechanical
Engineering, USC
Office:
OHE 430J
Phone:
(213) 740-0490
Email: ronney@usc.edu
Website: http://ronney.usc.edu
Grader: David Clayton, davidcla@usc.edu
Purpose: The
objective of the course is to enable students to apply fundamental
understanding gained in AME 513 (Principles of Combustion) to new and rapidly
evolving science and technology areas including microscale reacting flows,
microgravity combustion, supersonic and hypersonic propulsion, and turbulent
combustion.
Textbook: None
required; course will be taught from lecture notes and handouts. However, a good general combustion
textbook is S. R. Turns, An Introduction to Combustion:
http://catalogs.mhhe.com/mhhe/viewProductDetails.do?isbn=007235044X)
Schedule:
1 lecture per week, 9:00 -
11:50 am Fridays, OHE 100D.
Midterm exams: None
Final exam date: Monday, December 11, 11:00 am to 1:00
pm, VKC 102,
Distance learning: Lectures and course credit are also
available through the USC Distance
Education Network
Credit: 3 units
Prerequisite: AME 513 (Principles of Combustion) or
equivalent or permission of instructor
Grading: 5 homework assignments (60%), final
exam (40%)
Further information: http://ronney.usc.edu/AME514F06/
1)
Advanced fundamental
topics (3 lectures)
i)
Flame ignition,
extinction, flammability, stabilization
ii)
Emissions formation
and remediation
2)
Microscale reacting
flows and power generation (4 lectures)
i)
Scaling
considerations
ii)
Microscale internal
combustion engines
iii)
Microscale gas
turbine and rocket propulsion
iv)
Thermoelectrics
v)
Fuel cells –
PEM, solid oxide
vi)
Thermal
transpiration
3)
Turbulent combustion
(3 lectures)
i)
Premixed-gas flames
ii)
Non premixed flames
iii)
Edge flames
4)
Advanced propulsion
systems (2 lectures)
i)
Hypersonic
propulsion
ii)
Pulse detonation
engines
iii)
Plasma – flame
interactions
5)
Emerging
technologies in reacting flows (2 lectures)
i)
Applications of
combustion (aka Òchemically reacting flowÓ) knowledge to other fields
(1)
Biofilms &
microbial fuel cells
(2)
Frontal
polymerization
(3)
Inertial confinement
fusion
(4)
Astrophysical
combustion
ii)
New research fields
(1)
HCCI engines
(2)
Plasma assisted
combustion
(3)
Microbial fuel cells
iii)
Current needs in
combustion research
5
homework sets will be assigned (1 per section).