Course Description

Course:
Semester:
Day(s):
Time:
Location:
Instructor:
Phone:
Email:
ENPM 656 – Energy Conversion II: Mobility Applications
Spring 2015
M
7:00 PM – 9:40 PM and online
JMP 2222, DETS, College Park, MD
Patrick Caton, Ph.D., P.E.
(408) 679-0352 (cell)
patcaton.umd@gmail.com
Course Description
Course
Overview
This course is designed to give students an understanding of the principles and
design concepts associated with important fuel – engine aspects of modern and
advanced mobility power systems. Emphasis is given to state of the art and
emerging IC engine and fuel cell technologies such as those applied to modern and
advanced automotive (i.e. self-propelled) vehicles.
Prerequisites
Undergraduate course in thermodynamics, heat transfer, and fluid mechanics; or
ENPM 672 (Fundamentals of Thermal Systems).
Course
Requirements
Six homework assignments will enable students to practice quantitative and
qualitative analysis related to engines. Four virtual labs will allow students to explore
relationships among real engine operational data and synthesize results. Learning
will also be assessed through two mid-course exams, each of which will have an
open-book analysis portion and a timed, closed-book portion.
Required
Technology
Students will find the using software tools such as Excel, EES, and/or MATLAB
helpful, though not required. We will utilize Java-based online applications (free and
openly available on the internet) based at Colorado State University
(http://www.engr.colostate.edu/~allan/engines.html). These applications were
developed by one of the authors of the optional text for the course, and will facilitate
interesting engine calculations.
Instructor
Patrick Caton, Ph.D., P.E.
UMD OAEE Lecturer, Mechanical Engineering
USNA Assoc. Prof. Mechanical Engineering
Meeting Times
January 26, 2015 – May 11, 2015
Lectures: M 1900-2140 hrs, JMP 2222 (DETS), College Park, MD (plus online).
Required Text
Caton, P., Cowart, J., and Hamilton, L. Piston Power, 2011. This is an unpublished
set of course notes arranged in book format which pulls from many popular
textbooks. It is provided freely to enrolled students.
Optional Texts
Ferguson, C. R. and Kirkpatrick, A. T. Internal Combustion Engines: Applied
nd
Thermosciences, 2 Ed, 2001, Wiley. ISBN 0-471-35617-4.
Grading
Homework Assignments-10%, Virtual Labs-40%, Exams-50% (25% each).
Required/Recommended Textbooks
Required Text
Caton, P., Cowart, J., and Hamilton, L. Piston Power, 2011. This is an unpublished
set of course notes arranged in book format which pulls from many popular
textbooks. It is provided freely to enrolled students.
Optional Texts
Ferguson, C. R. and Kirkpatrick, A. T. Internal Combustion Engines: Applied
nd
Thermosciences, 2 Ed, 2001, Wiley. ISBN 0-471-35617-4.
Course Outline
1.
2.
3.
4.
5.
6.
7.
8.
9.
10.
11.
Overview of Engines
Engine Type and Function
Engine Thermodynamics and Metrics
Flames and Fuels in Engines
HCSI-Gasoline Engines
Emissions
SCCI-Diesel Engines
Engine Breathing
Friction and Losses
Modern Controls
Advanced Concepts
ENPM656: Energy Conversion II-Mobility Applications Spring 2015
Week
1
1/26
2
2/2
3
2/9
4
2/16
5
2/23
6
3/2
7
3/9
8
3/23
9
3/30
10
4/6
11
4/13
12
4/20
13
4/27
14
5/4
15
5/11
Topic
I. Overivew
II. Type and Function
Reading
PP1, PP2
F1
III. Engine Thermo and Metrics (models and cycles)
III. Engine Thermo and Metrics (MEPs, SFCs, metrics)
IV. Flames and Fuels (mixtures and stoichiometry)
IV. Flames and Fuels (chemistry, knock, advanced fuels)
V. HCSI Engines
PP4
F-1.3, 2
PP3, PP5
F3,4
Assignment or Lab
HW1: Engine Inspection
HW2: Engine Cycle Models
HW3: Engine Metrics
Metrics Lab
PP6
HW4: Combustion Stoich
F-9.1-9.3, 9.5, 11 and AFT
Exam 1
VI. Emissions
VII. SCCI Engines
VIII. Engine Breathing
PP10
F-9.6-9.12
PP7
F-9.4-9.5, 11
PP11
F7
HCSI Timing and AFR Lab
Emissions Lab
Diesel Lab
IX. Friction and Losses
F6,8
HW5: Engine Breathing
X. Modern Controls
PP12, PP13
F5
HW6: Friction and Losses
XI. Advanced Engine Concepts
SAE Paper
Course Review
SAE Paper
SAE Paper Brief Report
Exam 2
PP = Piston Power (course notes)
F = Ferguson and Kirkpatrick (optional text)