Class

Date

Day

Topics

Assignment Due

Lecture 1

5 Sep

R

Working with the accounting principles through simple examples

Lecture 2

6 Sep

F

Terminology, extensive versus intensive properties, unit conversion

Lecture 3

9 Sep

M

Conservation of mass: accumulation term

HW 1

 Lecture 4

10 Sep

T

Conservation of mass: open versus closed systems, transfer term

Lecture 5

12 Sep

R

Conservation of mass: mass transfer rate at a moving/oblique boundary

HW 2 & 3

Lecture 6

13 Sep

F

Conservation of mass: variable velocity profile

Lecture 7

16 Sep

M

Conservation of mass: system with a moving boundary, compare against static boundary

HW 4 & 5

Lecture 8

17 Sep

T

Conservation of mass: various applications

Lecture 9

19 Sep

R

Conservation of linear momentum: accumulation term

 HW 6 & 7

Lecture 10

20 Sep

F

Skills Assessment Test 1

Conservation of linear momentum: mass transfer term

Lecture 11

23 Sep

M

Conservation of linear momentum: relative motion

HW 8 & 9

Lecture 12

24 Sep

T

Conservation of linear momentum: inertial frame, use of absolute and relative velocities in COLM

Lecture 13

26 Sep

R

Conservation of linear momentum: pressure (absolute versus gage), friction (static versus kinetic)

HW 10 & 11

Lecture 14

27 Sep

F

Conservation of linear momentum: more on friction

Lecture 15

30 Sep

M

Conservation of linear momentum: finite-time form

HW 12 & 13

Lecture 16

1 Oct 

T

Skills Assessment Test 2

Conservation of linear momentum: more on finite-time form

Lecture 17

3 Oct

R

Conservation of angular momentum: review of cross-product of vectors

HW 14 & 15

Lecture 18

4 Oct

F

Conservation of angular momentum: accumulation term

Lecture 19

7 Oct

M

Conservation of angular momentum: mass & moment transfer terms

HW 16 & 17

Lecture 20

8 Oct

T

Integration Exam 1

Fall Break

Lecture 21

14 Oct

M

Conservation of linear & angular momentum: the tipping criterion

(Mid-Term Progress Report Due)

HW 18 & 19

Lecture 22

15 Oct

T

Conservation of linear & angular momentum: tipping in multiple-body problems

Lecture 23

17 Oct

R

Conservation of energy: various types of energy (thermal & mechanical)

HW 21

Lecture 24

18 Oct

F

Skills Assessment Test 3

Conservation of energy: non-flow work (compression/expansion work, shaft work, electrical work)

Lecture 25

21 Oct

M

Conservation of energy: flow work

HW 22 & 23

Lecture 26

22 Oct

T

Conservation of energy: substance models

Lecture 27

24 Oct

R

Conservation of energy: more examples with substance models

HW 24 & 25

Lecture 28

25 Oct

F

Skills Assessment Test 4

Conservation of energy: steady-state devices

Lecture 29

28 Oct

M

Conservation of energy: more examples

HW 26 & 27

Lecture 30

29 Oct

T

Conservation of energy: mechanical energy balance

Lecture 31

31 Oct

R

Conservation of energy: examples with mechanical energy balance

HW 28 & 29

Lecture 32

1 Nov

F

Skills Assessment Test 5

Conservation of energy: more examples with mechanical energy balance

(Final day to drop a course without penalty)

Lecture 33

4 Nov

M

Conservation of energy: thermodynamic cycles (power cycle)

HW 30 & 31

Lecture 34

5 Nov

T

Conservation of energy: thermodynamic cycles (refrigeration/heat pump)

Lecture 35

7 Nov

R

Accounting of entropy: concepts

HW 32 & 33

Lecture 36

8 Nov

F

Integration Exam 2

Lecture 37

11 Nov

M

Accounting of entropy: effect of entropy generation on cycle performance

HW 34 & 35

Lecture 38

12 Nov

T

Accounting of entropy: substance models

Lecture 39

14 Nov

R

Accounting of entropy: examples

HW 37

Lecture 40

15 Nov

F

Course wrap-up, evaluations

TOP

Last modified: Septermber 4, 2019