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   | valign="middle" style="color:maroon;"|'''Physics 221''' - Introductory Physics I
   | valign="middle" style="color:maroon;"|'''Physics 221''' - Introductory Physics I


::[[Media:Phys221 Syllabus.pdf|Syllabus]]
:[[Media:Phys221 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"|An introduction to classical mechanics and thermodynamics. This course studies the concepts and techniques required to measure, describe and predict the motion of particles and extended objects. Topics include kinematics of linear motion, forces and Newton's laws, gravitation, momentum, work, energy, rotational motion, angular momentum, torque, fluids, oscillations, temperature, heat, and thermal energy.
   | width=75% style=" padding:10px;"|An introduction to classical mechanics and thermodynamics. This course studies the concepts and techniques required to measure, describe and predict the motion of particles and extended objects. Topics include kinematics of linear motion, forces and Newton's laws, gravitation, momentum, work, energy, rotational motion, angular momentum, torque, fluids, oscillations, temperature, heat, and thermal energy.
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   | valign="middle" style="color:maroon;"|'''Physics 221''' - Introductory Physics II
   | valign="middle" style="color:maroon;"|'''Physics 221''' - Introductory Physics II


::[[Media:Phys222 Syllabus.pdf|Syllabus]]
:[[Media:Phys222 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"|An introduction to electricity, magnetism, and optics. This course studies the concepts and techniques required to understand interactions between charged particles as well as light as an electromagnetic wave. Topics include electrical force, electric field, electric potential, capacitance, electric current, circuits, magnetic field, inductance, Faraday's law, electromagnetic waves, reflection, refraction, interference, diffraction and polarization. 

   | width=75% style=" padding:10px;"|An introduction to electricity, magnetism, and optics. This course studies the concepts and techniques required to understand interactions between charged particles as well as light as an electromagnetic wave. Topics include electrical force, electric field, electric potential, capacitance, electric current, circuits, magnetic field, inductance, Faraday's law, electromagnetic waves, reflection, refraction, interference, diffraction and polarization. 

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   | valign="middle" style="color:maroon;"|'''Physics 223''' - Modern Physics
   | valign="middle" style="color:maroon;"|'''Physics 223''' - Modern Physics


::[[Media:Phys223 Syllabus.pdf|Syllabus]]
:[[Media:Phys223 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"| This course is a survey of the major developments in physics of the 20th century, as well as an introduction to more sophisticated mathematical and laboratory techniques. Topics include special relativity, the quantum nature of light, the wave nature of particles, the Schrödinger equation, atomic physics, molecules, quantum statistical physics, nuclear physics, particle physics and cosmology.  
   | width=75% style=" padding:10px;"| This course is a survey of the major developments in physics of the 20th century, as well as an introduction to more sophisticated mathematical and laboratory techniques. Topics include special relativity, the quantum nature of light, the wave nature of particles, the Schrödinger equation, atomic physics, molecules, quantum statistical physics, nuclear physics, particle physics and cosmology.  
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   | valign="middle" style="color:maroon;"|'''Physics 250''' - Physical Biology of the Cell
   | valign="middle" style="color:maroon;"|'''Physics 250''' - Physical Biology of the Cell


::[[Media:Phys250 Syllabus.pdf|Syllabus]]
:[[Media:Phys250 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"| This course explores how the insights of physics and mathematics have illuminated the complex phenomena of the cell. We will study the use of quantitative and predictive models to describe biological systems, and discuss the experimental methods that provide the quantitative data required to create and test these models. The course will be structured around a series of case studies involving some of the key players in molecular and cell biology.   
   | width=75% style=" padding:10px;"| This course explores how the insights of physics and mathematics have illuminated the complex phenomena of the cell. We will study the use of quantitative and predictive models to describe biological systems, and discuss the experimental methods that provide the quantitative data required to create and test these models. The course will be structured around a series of case studies involving some of the key players in molecular and cell biology.   
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   | valign="middle" style="color:maroon;"|'''Physics 396''' - Advanced Topics in Experimental Physics
   | valign="middle" style="color:maroon;"|'''Physics 396''' - Advanced Topics in Experimental Physics


::[[Media:Phys396 Syllabus.pdf|Syllabus]]
:[[Media:Phys396 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"| The primary goals of ATEP are (1) to expose you to experimental techniques from modern physics and (2) to deepen your understanding of the relationship between experiment and theory. You will be challenged to understand a variety of experimental setups and interpret the data collected from each. We will focus on three skill sets: 1. Oral communication 2. Written communication 3. Experimental technique 4. Researching and gathering information.
   | width=75% style=" padding:10px;"| The primary goals of ATEP are (1) to expose you to experimental techniques from modern physics and (2) to deepen your understanding of the relationship between experiment and theory. You will be challenged to understand a variety of experimental setups and interpret the data collected from each. We will focus on three skill sets: 1. Oral communication 2. Written communication 3. Experimental technique 4. Researching and gathering information.
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   | valign="middle" style="color:maroon;"|'''Physics 495 & 496''' - Research Seminar
   | valign="middle" style="color:maroon;"|'''Physics 495 & 496''' - Research Seminar


::[[Media:Phys495 Syllabus.pdf|Syllabus]]
:[[Media:Phys495 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"| This is the required Senior Year Experience for all Physics majors.  Students design and carry out individual research projects under the mentorship of a departmental faculty member.  Weekly meetings include seminars, discussions of research methods, peer teaching, and opportunities to practice scientific communication skills.  
   | width=75% style=" padding:10px;"| This is the required Senior Year Experience for all Physics majors.  Students design and carry out individual research projects under the mentorship of a departmental faculty member.  Weekly meetings include seminars, discussions of research methods, peer teaching, and opportunities to practice scientific communication skills.  
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   | valign="middle" style="color:maroon;"|'''IDS 101''' - College Colloquium, Knitting Culture
   | valign="middle" style="color:maroon;"|'''IDS 101''' - College Colloquium, Knitting Culture


::[[Media:IDS101 Syllabus.pdf|Syllabus]]
:[[Media:IDS101 Syllabus.pdf|Syllabus]]


   | width=75% style=" padding:10px;"| During the last decade, knitting has experienced a remarkable increase in popularity in the U.S.  In part, this is because knitting has the ability to play many roles and serve diverse functions.  Knitting can be practiced as a craft, and it can also be a medium for art and fashion.  Knitting can be used to express political views, and it can also simply be a way to relax.  These various facets of knitting are not mutually exclusive.  We will come to see knitting as a rich culture.  The broad goal for our class is to understand the role and value of knitting through a multidisciplinary treatment of knitting culture.  At the same time, you will learn how to knit (if you do not already know how).     
   | width=75% style=" padding:10px;"| During the last decade, knitting has experienced a remarkable increase in popularity in the U.S.  In part, this is because knitting has the ability to play many roles and serve diverse functions.  Knitting can be practiced as a craft, and it can also be a medium for art and fashion.  Knitting can be used to express political views, and it can also simply be a way to relax.  These various facets of knitting are not mutually exclusive.  We will come to see knitting as a rich culture.  The broad goal for our class is to understand the role and value of knitting through a multidisciplinary treatment of knitting culture.  At the same time, you will learn how to knit (if you do not already know how).     

Revision as of 00:10, 10 November 2012


Department of Physics, Willamette University

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Teaching Experience

Willamette University

Physics 221 - Introductory Physics I
Syllabus
An introduction to classical mechanics and thermodynamics. This course studies the concepts and techniques required to measure, describe and predict the motion of particles and extended objects. Topics include kinematics of linear motion, forces and Newton's laws, gravitation, momentum, work, energy, rotational motion, angular momentum, torque, fluids, oscillations, temperature, heat, and thermal energy.


Physics 221 - Introductory Physics II
Syllabus
An introduction to electricity, magnetism, and optics. This course studies the concepts and techniques required to understand interactions between charged particles as well as light as an electromagnetic wave. Topics include electrical force, electric field, electric potential, capacitance, electric current, circuits, magnetic field, inductance, Faraday's law, electromagnetic waves, reflection, refraction, interference, diffraction and polarization. 



Physics 223 - Modern Physics
Syllabus
This course is a survey of the major developments in physics of the 20th century, as well as an introduction to more sophisticated mathematical and laboratory techniques. Topics include special relativity, the quantum nature of light, the wave nature of particles, the Schrödinger equation, atomic physics, molecules, quantum statistical physics, nuclear physics, particle physics and cosmology.
Physics 250 - Physical Biology of the Cell
Syllabus
This course explores how the insights of physics and mathematics have illuminated the complex phenomena of the cell. We will study the use of quantitative and predictive models to describe biological systems, and discuss the experimental methods that provide the quantitative data required to create and test these models. The course will be structured around a series of case studies involving some of the key players in molecular and cell biology.


Physics 396 - Advanced Topics in Experimental Physics
Syllabus
The primary goals of ATEP are (1) to expose you to experimental techniques from modern physics and (2) to deepen your understanding of the relationship between experiment and theory. You will be challenged to understand a variety of experimental setups and interpret the data collected from each. We will focus on three skill sets: 1. Oral communication 2. Written communication 3. Experimental technique 4. Researching and gathering information.
Physics 495 & 496 - Research Seminar
Syllabus
This is the required Senior Year Experience for all Physics majors. Students design and carry out individual research projects under the mentorship of a departmental faculty member. Weekly meetings include seminars, discussions of research methods, peer teaching, and opportunities to practice scientific communication skills.
IDS 101 - College Colloquium, Knitting Culture
Syllabus
During the last decade, knitting has experienced a remarkable increase in popularity in the U.S. In part, this is because knitting has the ability to play many roles and serve diverse functions. Knitting can be practiced as a craft, and it can also be a medium for art and fashion. Knitting can be used to express political views, and it can also simply be a way to relax. These various facets of knitting are not mutually exclusive. We will come to see knitting as a rich culture. The broad goal for our class is to understand the role and value of knitting through a multidisciplinary treatment of knitting culture. At the same time, you will learn how to knit (if you do not already know how).