Portfolios Wiki
http://sites.science.oregonstate.edu/portfolioswiki/
2020-01-26T16:42:40-08:00Portfolios Wiki
http://sites.science.oregonstate.edu/portfolioswiki/
http://sites.science.oregonstate.edu/portfolioswiki/lib/images/favicon.icotext/html2019-07-22T11:56:34-08:00Corinne Manoguewhitepapers:sequences:emsequence:start
http://sites.science.oregonstate.edu/portfolioswiki/whitepapers:sequences:emsequence:start?rev=1563821794&do=diff
Ring Sequence: Chopping and Adding
Students who are just beginning upper-division courses are being asked to simultaneously learn physics concepts, use mathematical processes in new ways, apply geometric reasoning, and use extended multi-step problem solving. Having students successfully deal with a problem such as finding the magnetic field in all space due to a spinning ring of charge is a significant challenge. If we are to avoid doing the thinking for them and creating a template they can …text/html2019-07-22T11:43:02-08:00Corinne Manoguewhitepapers:sequences:start
http://sites.science.oregonstate.edu/portfolioswiki/whitepapers:sequences:start?rev=1563820982&do=diff
Sequences are ~3 or more activities that are used together to explore a particular topic from several different viewpoints to allow students to explore how information and ideas tie together.
E & M Sequences
Curvilinear CoordinatesGeometry of Scalar FieldsRepresentations of Two-Dimensional Scalar FieldsGeometry of Vector Fields:Superposition of Electrostatic Potentials due to Point Chargestext/html2019-07-22T07:12:39-08:00Corinne Manoguewhitepapers:sequences:curvcoordsseq
http://sites.science.oregonstate.edu/portfolioswiki/whitepapers:sequences:curvcoordsseq?rev=1563804759&do=diff
Curvilinear Coordinates
This sequence introduces cylindrical and spherical coordinate systems. While middle-division students may have been introduced to the cylindrical and spherical coordinates themselves, in a multivariable calculus course, they have almost certainly NOT been introduced to the basis vectors such as $\hat{r}$, $\hat{\theta}$, etc. that are adapted to them.text/html2019-07-22T06:58:36-08:00Corinne Manoguewhitepapers:sequences:scalarfieldseq
http://sites.science.oregonstate.edu/portfolioswiki/whitepapers:sequences:scalarfieldseq?rev=1563803916&do=diff
The Geometry of Scalar Fields
This sequence introduces various representations of scalar fields in the context of electrostatic potentials. While middle-division students have lots of experience with representations of functions of a single independent variable, many still need help with visualizing functions of two (or especially three) independent variables. This sequence introduces: equipotential curves and surfaces (contour plots), tangible dry-erasable plastic surfaces, computer-generate…text/html2019-07-21T09:00:21-08:00Paul Emighpublications:start
http://sites.science.oregonstate.edu/portfolioswiki/publications:start?rev=1563724821&do=diff
Textbooks
(See our textbook page.)
The Paradigms Project
([Paradigms BiBTeX file])
[Paradigms in Physics 2.0]PER-Central listing[Paradigms in Physics: Restructuring the Upper Level]56--Copyright NoticePhysics Today listing[Paradigms in Physics: A New Upper-Division Curriculum]69--Copyright NoticeAJP listing
Scientific Aspects of the Paradigms Project
([Paradigms BiBTeX file])text/html2019-06-20T22:20:41-08:00Elizabeth Giretopic:quantum
http://sites.science.oregonstate.edu/portfolioswiki/topic:quantum?rev=1561094441&do=diff
Quantum Activities
sample syllabussequence activitiesParadigms in Physics:Quantum Mechanicsorganized by textbook chapter
Operators
Projection Operators
Matrix Representation of Spin Operators
Operators and Functions
Eigenstates
Eigenstates of a Particle Confined to a Ring
Guessing the Legendre Polynomial Expansion of a Function
Finding Legendre Coefficients
Harmonic Oscillator Basis States
Probability Densities
Particle Confined to a Ring
Particle Confined to a Sphere
Linear Combina…text/html2019-06-03T14:24:05-08:00Mike Vignalcourses:lecture:vflec:vfcrosstriple
http://sites.science.oregonstate.edu/portfolioswiki/courses:lecture:vflec:vfcrosstriple?rev=1559597045&do=diff
Lecture (20 minutes)
Note: Different students likely have different ways of using the determinate of a matrix to perform a cross product; consider allowing them to use whatever method they are comfortable with but make sure student's who are not comfortable with determinates are not left behind.text/html2019-06-03T14:23:45-08:00Mike Vignalcourses:order20:vforder20:vfintegrating
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20:vfintegrating?rev=1559597025&do=diff
GVC(ss)Total Charge of a Shell--More Total Charge of a ShellTotal Charge of a Cube--More Total Charge of a CubeGEM(ss)
In-class Content
Defining the Cross ProductCross products and scalar triple productsIntegrating in Curvilinear Coordinates: Finding dA and dVSGATotal ChargeSGAActing Out Charge Densitiestext/html2019-06-03T14:18:43-08:00Mike Vignalcourses:order20:vforder20:vfcurrent
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20:vfcurrent?rev=1559596723&do=diff
GVC(ss)Currents
In-class Content
Acting Out Current DensityNote:10 mintext/html2019-06-03T14:17:56-08:00Mike Vignalcourses:order20:vforder20:vfmagnetic
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20:vfmagnetic?rev=1559596676&do=diff
GVC(ss)Derivation of the Biot Savart Law from Magnetic Vector Potential--Compare A and B for a Spinning Ring
In-class Content
Magnetic Field Due to a Spinning Ring of ChargeSGAoptionalNote:text/html2019-06-03T14:16:53-08:00Mike Vignalcourses:order20:vforder20:vfconservative
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20:vfconservative?rev=1559596613&do=diff
In-class Content
Counting PathsSGAIs curl freeNote:WorkSGA
Optional In-class Content
Murder Mystery MethodSGAMath 3.5: Independence of PathMath 3.6: Conservative Vector FieldsMath 3.7: Finding Potential Functionstext/html2019-06-03T14:06:44-08:00Mike Vignalcourses:order20:vforder20:vfgradient
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20:vfgradient?rev=1559596004&do=diff
FIXME
In-class Content
SGAActing Out the GradientVisualizing Gradient
Optional In-class content
Navigating a HillSGAtext/html2019-06-03T14:05:06-08:00Mike Vignalcourses:lecture:sylec:drintro
http://sites.science.oregonstate.edu/portfolioswiki/courses:lecture:sylec:drintro?rev=1559595906&do=diff
Introducing $d\Vec{r}$ (5 minutes)
Draw pictures of $\Vec{r}$ and $\Vec{r}$ + $d\Vec{r}$.
Student Conversations from Spring 2019
Find $d\Vec r$ in rectangular coords.text/html2019-06-03T13:54:00-08:00Mike Vignalcourses:lecture:sylec:seriesplus
http://sites.science.oregonstate.edu/portfolioswiki/courses:lecture:sylec:seriesplus?rev=1559595240&do=diff
Introduction to Power Series (15 minutes)
approximate...order
Properties of Power Series (15 minutes)
uniqueIfFIXMEtext/html2019-06-03T13:44:48-08:00Mike Vignalactivities:guides:vfactinggrad
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfactinggrad?rev=1559594688&do=diff
Navigate back to the activity.
Acting Out The Gradient: Instructor's Guide
Main Ideas
“”
Students' Task
Estimated Time: 5-10 minutes
Prerequisite Knowledge
A rudimentary understanding how a gradient acts on a scalar field.
Props/Equipment
Activity: Introduction
If the instructor stands on a chair or table in the center of the room. The top of the hill would be above the instructor's head. If this is not an easy thing to do, pick a point or student in the center of the room. De…text/html2019-06-03T13:37:20-08:00Mike Vignalactivities:guides:vfering
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfering?rev=1559594240&do=diff
Navigate back to the activity.
Electric Field Due to a Charged Ring: Instructor's Guide
Main Ideas
“”
Students' Task
Estimated Time: 40 min; Wrap-up: 10 min
“”
Prerequisite Knowledge
This activity is may be used as a part of the Ring Sequence, following the activity, or may be used on its own. Students will need understanding of:text/html2019-06-03T13:18:59-08:00Mike Vignalactivities:guides:vfvring
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfvring?rev=1559593139&do=diff
Navigate back to the activity.
Electrostatic Potential Due to a Charged Ring: Instructor's Guide
Main Ideas
~“”
Students' Task
Estimated Time: 40 min; Wrap-up: 10 min
“”
Prerequisite Knowledge
This activity is may be used as the second in the Ring Sequence, following the activity, or may be used on its own. Students will need understanding of:text/html2019-05-30T08:08:16-08:00Mike Vignalcourses:order20:vforder20:vfcalculating
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20:vfcalculating?rev=1559228896&do=diff
GVC(ss)Potentials from Continuous Charge Distributions--Potential Due to an Infinite Line of Charge
In-class Content
Lecture: Electric Potential
Students may be familiar with the iconic equation for the electric potential (due to a point charge): $$\text{Iconic:} \qquad V=\frac{1}{4 \pi \epsilon_0} \frac{Q}{r}$$ With information about the type of source distribution, one can write or select the appropriate coordinate independent equation for $V$. For example, if the source is a line of charge…text/html2019-04-17T13:44:45-08:00Mike Vignalcourses:order20:vforder20
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:vforder20?rev=1555533885&do=diff
Unit: Potentials from Discrete Sources
Some nice review tutorials from Harvey Mudd College
Hour 1: Electric Potential Hours 2-3: Potential Due to Point Charges Small Group Activity: Visualizing Equipotential SurfacesHour 4: Power Series Small Group Activity: Calculating Coefficients for a Power SeriesHour 5: The Distance between Two Points Kinesthetic Activity: Star TrekHour 6: Two Point Charges Small Group Activity: Electric Potential for 2 Point Charges (with Power Series)Hour 7: Differenti…text/html2019-03-22T11:30:10-08:00Mike Vignalcourses:order20:eeorder20:eembdiff
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:eeorder20:eembdiff?rev=1553279410&do=diff
In-class Content
Lecture: Differentials of 1D Functions (Lec - 20 min)
Main ideas
Lecture (30 minutes)
Ask students to make a sketch of f = 7x2 on the big white board.
What are the variables of interest? One idea here is to note that x is not the only variable here: f is also a variable from a physics perspective.text/html2019-03-20T14:31:57-08:00Corinne Manoguewhitepapers:flux - created
http://sites.science.oregonstate.edu/portfolioswiki/whitepapers:flux?rev=1553117517&do=diff
Make sure to compare standard mathematics treatment (which definitely uses partial derivatives) to our vector differential version. What does Griffiths do?text/html2019-03-20T14:30:54-08:00Corinne Manoguewhitepapers:2019
http://sites.science.oregonstate.edu/portfolioswiki/whitepapers:2019?rev=1553117454&do=diff
Derivatives & Their RepresentationsDifferentialsThe Vector Differential ($d\rr$)The Master FormulaGradientFluxDivergence & CurlPartial Derivatives in ThermodynamicsUse What You Know!text/html2019-03-13T17:46:05-08:00Elizabeth Girestrategy:start
http://sites.science.oregonstate.edu/portfolioswiki/strategy:start?rev=1552524365&do=diff
One reason that lecturing remains ubiquitous in middle division and upper division courses, despite mounting evidence that students learn more when they are active participants in the classroom, is that it is not immediately clear how to implement interactivity in these more advanced courses. Middle-division and upper-division courses differ from introductory courses in that the course goals tend to be richer, the course content more complicated, the students more seasoned, and class sizes small…text/html2019-02-04T16:52:48-08:00Corinne Manoguenew:1836604
http://sites.science.oregonstate.edu/portfolioswiki/new:1836604?rev=1549327968&do=diff
NSF Proposal Summary
DUE-1836604
1/19--12/20; $299,282
PARADIGMS IN PHYSICS: REPRESENTATIONS IN QUANTUM MECHANICS
Elizabeth Gire, Tevian Dray, Corinne A. Manogue, & David Roundy
Overview
In 1996, the Paradigms in Physics Project at Oregon State University reformed the entire upper-division curriculum for physics majors. This reform involved both a rearrangement of content to better reflect the way professional physicists think about the field and also the infusion of a number of evi…text/html2019-02-04T16:50:26-08:00Corinne Manoguenew:1836603
http://sites.science.oregonstate.edu/portfolioswiki/new:1836603?rev=1549327826&do=diff
NSF Proposal Summary
DUE-1836603
1/19--12/20; $298,984
PARADIGMS IN PHYSICS: REPRESENTATIONS OF PARTIAL DERIVATIVES
David Roundy, Tevian Dray, Elizabeth Gire, & Corinne A. Manogue,
Overview
In 1996, the Paradigms in Physics Project at Oregon State University reformed the entire upper-division curriculum for physics majors. This reform involved both a rearrangement of content to better reflect the way professional physicists think about the field and also the infusion of a number of…text/html2019-02-04T16:40:36-08:00Corinne Manoguenew:overview
http://sites.science.oregonstate.edu/portfolioswiki/new:overview?rev=1549327236&do=diff
Paradigms in Physics
Below are the proposal summaries from the many grants that have funded the Paradigms in Physics project.
Representations in Quantum Mechanics
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Second Generation Dissemination Strategies
----------
Partial Derivativestext/html2019-01-30T14:57:35-08:00Corinne Manoguecourses:hw:pphw:pphwmbdiagonal - created
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw:pphw:pphwmbdiagonal?rev=1548889055&do=diff
Homework for Periodic Systemstext/html2019-01-30T14:55:38-08:00Corinne Manoguecourses:order20:mbpporder20
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:mbpporder20?rev=1548888938&do=diff
PH 427 (Periodic Systems) Math Bits
[Overall note from Paul for next year: find new SWBQ and activities, especially for Fourier Transform content, there is too much lecture here.]
Unit: More Complex Numbers/Theta and Delta Functions
Complex Numbers
DELETE THIS SECTION BEGINNING 2019text/html2019-01-30T13:04:11-08:00Corinne Manoguecourses:hw:pphw:pphwmbfouriertransform
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw:pphw:pphwmbfouriertransform?rev=1548882251&do=diff
Homework for Periodic Systemstext/html2019-01-30T12:59:11-08:00Corinne Manoguecourses:hw:pphw:pphwmbunitary - created
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw:pphw:pphwmbunitary?rev=1548881951&do=diff
Homework for Periodic Systemstext/html2019-01-30T11:15:33-08:00Corinne Manoguecourses:hw:pphw:pphwmbhermitianmatrices
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw:pphw:pphwmbhermitianmatrices?rev=1548875733&do=diff
Homework for Periodic Systemstext/html2019-01-30T11:12:04-08:00Corinne Manoguecourses:hw:pphw:pphwmbthetadelta
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw:pphw:pphwmbthetadelta?rev=1548875524&do=diff
Homework for Periodic Systemstext/html2019-01-30T11:11:21-08:00Corinne Manoguecourses:hw:pphw:pphwmbcomplexnumbers
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw:pphw:pphwmbcomplexnumbers?rev=1548875481&do=diff
Homework for Periodic Systemstext/html2019-01-25T19:53:24-08:00Jonathan Alfsonactivities:guides:vfsurfchargedsphere
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfsurfchargedsphere?rev=1548474804&do=diff
Navigate back to the activity.
Charged Sphere: Instructor's Guide
Main Ideas
Students' Task
Estimated Time: 35-45 min.
Prerequisite Knowledge
Props/Equipment
Activity: Introduction
Activity: Student Conversations
Activity: Wrap-up
Extensionstext/html2019-01-25T19:36:51-08:00Jonathan Alfsonactivities:content:highlights:vfsurfchargedsphere
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:highlights:vfsurfchargedsphere?rev=1548473811&do=diff
(Estimated time: 35-45 minutes with wrap-up discussion.)
Studentstext/html2019-01-25T12:23:20-08:00Elizabeth Gireactivities:content:keywords:vfsurfchargedsphere
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:keywords:vfsurfchargedsphere?rev=1548447800&do=diff
Electric Potential, Electric Field, Contour Map, Surfacestext/html2019-01-25T12:21:43-08:00Elizabeth Gireactivities:content:authors:vfsurfworkefield - created
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:authors:vfsurfworkefield?rev=1548447703&do=diff
Liz Gire, Aaron Wangberg, Robyn Wangberg, Paul Emigh, Jonathan Alfsontext/html2019-01-25T12:21:15-08:00Elizabeth Gireactivities:content:reasons:vfsurfworkefield - created
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:reasons:vfsurfworkefield?rev=1548447675&do=diff
“”decreasetext/html2019-01-25T12:19:36-08:00Elizabeth Gireactivities:content:highlights:vfsurfworkefield
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:highlights:vfsurfworkefield?rev=1548447576&do=diff
text/html2019-01-25T12:17:20-08:00Elizabeth Gireactivities:content:keywords:vfsurfworkefield - created
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:keywords:vfsurfworkefield?rev=1548447440&do=diff
E&M, Vector Line Integrals, Surfaces, Vector Field Maptext/html2019-01-25T12:13:52-08:00Elizabeth Gireactivities:content:authors:vfsurfequisurfaces - created
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:authors:vfsurfequisurfaces?rev=1548447232&do=diff
Liz Gire, Aaron Wangberg, Robyn Wangberg, Paul Emigh, Jonathan Alfson, Corinne Manoguetext/html2019-01-25T12:13:15-08:00Elizabeth Gireactivities:content:reasons:vfsurfequisurfaces
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:reasons:vfsurfequisurfaces?rev=1548447195&do=diff
text/html2019-01-25T12:11:22-08:00Elizabeth Gireactivities:content:highlights:vfsurfequisurfaces - created
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:highlights:vfsurfequisurfaces?rev=1548447082&do=diff
text/html2019-01-25T12:09:29-08:00Elizabeth Gireactivities:content:keywords:vfsurfequisurfaces - created
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:keywords:vfsurfequisurfaces?rev=1548446969&do=diff
E&M, Upper-Division, Electric Potential, Surfaces, Contour Plot, Visualizationtext/html2019-01-25T11:09:16-08:00Elizabeth Girestrategy:surfaces:list
http://sites.science.oregonstate.edu/portfolioswiki/strategy:surfaces:list?rev=1548443356&do=diff
E&M Surface Activities
Equipotential SurfacesWork and Electric FieldNumber of PathsCharged Sphere
Mechanics Surface Activities
Thermo Surface Activities
Heat CapacityThermodynamic StatesCovariationQuantifying ChangeSquishability of Water VaporDerivatives of Internal Energy
Multivariable Calculus Surface Activities
For many high quality activities, see the Raising Calculus to the Surface project website.text/html2019-01-24T11:41:37-08:00Elizabeth Gireactivities:guides:vfsurfnumpaths
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfsurfnumpaths?rev=1548358897&do=diff
Navigate back to the activity.
Activity Name: Instructor's Guide
Main Ideas
Students' Task
Estimated Time:
Prerequisite Knowledge
Props/Equipment
Tabletop WhiteboardVector Maps & SleevesPlastic Graph Models (Surfaces): Quadrupole z=0
Activity: Introduction
Activity: Student Conversations
Activity: Wrap-up
Extensionstext/html2019-01-24T11:41:12-08:00Elizabeth Gireactivities:guides:vfsurfworkefield
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfsurfworkefield?rev=1548358872&do=diff
Navigate back to the activity.
Activity Name: Instructor's Guide
Main Ideas
Students' Task
Estimated Time:
Prerequisite Knowledge
Props/Equipment
Tabletop WhiteboardVector Maps & Plastic SleevesPlastic Graph Models (Surfaces): Quadrupole z=0
Activity: Introduction
Activity: Student Conversations
Activity: Wrap-up
Extensionstext/html2019-01-24T11:40:57-08:00Elizabeth Gireactivities:guides:vfsurfequisurfaces
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:vfsurfequisurfaces?rev=1548358857&do=diff
Navigate back to the activity.
Activity Name: Instructor's Guide
Main Ideas
Students' Task
Estimated Time:
Prerequisite Knowledge
Props/Equipment
Tabletop WhiteboardVector Maps & Plastic SleevesPlastic Graph Models (Surfaces): Quadrupole z=0
Activity: Introduction
Activity: Student Conversations
Activity: Wrap-up
Extensionstext/html2018-11-15T08:52:43-08:00Mike Vignalactivities:guides:eembpdmlegendretransforms
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:eembpdmlegendretransforms?rev=1542300763&do=diff
Navigate back to the activity.
Legendre Transforms on the PDM: Instructor's Guide
Main Ideas
Students' Task
Estimated Time: 20 minutes
Prerequisite Knowledge
FIXME
Props/Equipment
Tabletop Whiteboard Partial Derivative Machine
Activity: Introductiontext/html2018-11-13T07:53:13-08:00Mike Vignalactivities:guides:eembelevator
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:eembelevator?rev=1542124393&do=diff
Navigate back to the activity.
Cat Elevator: Instructor's Guide
Main Ideas
Students' Task
Estimated Time: 30 min
Prerequisite Knowledge
Students should already be familiar with the Partial Derivative Machine and the vocabulary allowing them to translate between the PDM and thermodynamic systems. Students should be able to identify work as area under a curve with the proper variables graphed!text/html2018-10-21T18:15:02-08:00Corinne Manoguecourses:hw20:eehw:eembvarrep
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw20:eehw:eembvarrep?rev=1540170902&do=diff
Homework for Energy and Entropy
Categorize extensive and intensive variables for a 1-D system
Translate from one contour diagram to another.text/html2018-10-21T18:08:38-08:00Corinne Manoguecourses:hw20:eehw:eembderivatives
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw20:eehw:eembderivatives?rev=1540170518&do=diff
Homework for Energy and Entropy
Use Tree Diagrams to find chain rules.
Check cyclic chain rule for realistic equation of state
Use chain rules to solve physics problemtext/html2018-10-21T17:22:20-08:00Corinne Manoguecourses:order20:eeorder20:eembderivatives
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:eeorder20:eembderivatives?rev=1540167740&do=diff
In-class Content
Activity: Calculating a Total Differential
Link to Calculating a Total Differential Activity
Activity Highlights
Activity: Upside Down Derivatives
Link to Upside Down Derivatives Activity
Activity Highlights
Activity: Cyclic Chain Rule
Link to Cyclic Chain Rule Activitytext/html2018-10-21T16:53:49-08:00Corinne Manoguecourses:hw20:eehw:eembdiff
http://sites.science.oregonstate.edu/portfolioswiki/courses:hw20:eehw:eembdiff?rev=1540166029&do=diff
Homework for Energy and Entropy
Find the differential of special functions.
Finding the differential abstractly.
Find the differential of special functions.
Plot contours, Change of Variable.
A thermo-like system. Requires Clairaut's theorem.text/html2018-10-21T07:06:47-08:00Corinne Manogueactivities:content:highlights:eesurfstates
http://sites.science.oregonstate.edu/portfolioswiki/activities:content:highlights:eesurfstates?rev=1540130807&do=diff
text/html2018-10-20T21:41:54-08:00Corinne Manoguecourses:order20:eeorder20:eembenergy
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:eeorder20:eembenergy?rev=1540096914&do=diff
In-class Content
Potential Energy of an Elastic SystemSGALots of Ways to Change a StateQuantifying Change in Thermal SystemsSGA
Alternate In-class Content
Internal Energy of the "Partial Derivative Machine"text/html2018-10-20T21:41:02-08:00Corinne Manoguecourses:order20:eeorder20:eembanalogy
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:eeorder20:eembanalogy?rev=1540096862&do=diff
In-class Content
Lecture: PDM Dictionary (25 minutes)
Consider a canonical thermodynamic system that consists of a gas in a cylinder with a moveable piston. Help me draw a picture on the board.
SWBQ: On your small whiteboard, tell me a quantity you can measure for this system.text/html2018-10-20T21:40:11-08:00Corinne Manoguecourses:order20:eeorder20:eembvarrep
http://sites.science.oregonstate.edu/portfolioswiki/courses:order20:eeorder20:eembvarrep?rev=1540096811&do=diff
In-class Content
Activity: PDM Variables
Link to PDM Variables Activity
Activity Highlights
Lecture: Contour Graphs of PDM Variables (25 minutes)
Fix $x_R$ and make a graph of $x_L$ vs. $F_L$. (Don't let students be too precise.)
Repeat for 3 different fixed values of $x_R$ and graph them all on the same set of axes. (Make sure students have explored enough of parameter space to see the nonlinearity.)text/html2018-10-18T10:03:12-08:00Elizabeth Gireactivities:guides:spqmevolution
http://sites.science.oregonstate.edu/portfolioswiki/activities:guides:spqmevolution?rev=1539882192&do=diff
Navigate back to the activity.
Quantum Time Evolution: Instructor's Guide
Main Ideas
Students' Task
Estimated Time: 20 min
Students work in groups to solve for the time dependence of two quantum particles under the influence of a Hamiltonian. Students find the time dependence of the particles' states and some measurement probabilities.