Who? (Curated collection of resources suited to each topic/lesson)
Online Video Collections:
Online Website Based Collections
Kognity (Sign in with ACS account)
OpenStax Online Text
Various Simulations and Electronic Lab Scenarios
PhET Simulations
PhyPhox - Cell Phone App
Pivot Interactives - Lab Scenarios that cannot be completed in class.
ThePhysicsClassroom + Concept Builders
Physics Boot Camp (some calculus)
Physical Materials:
IB Physics Review Book
Read and take notes on assigned readings / sites.
Watch and take notes over assigned videos.
Reflect on readings and videos by asking: "Why is that true?"
Understand that exposure to content does not mean you have learned the material.
Exposure ≠ Learned
Coach and encouragement giver
Design and implement sense making activities
Offer feedback
Answer questions
Clarify information received
Give and grade assessments
Participate in class activities and relate them to the information transfer tasks.
Ask LOTS of questions
Seek out feedback from peers and teacher
ASK LOTS of questions.
Engage with learning tasks and formative assessments meaningfully (don't just google answers)
ASK LOTS of QUESTIONS!!!
Become comfortable with mistakes and being wrong at first.
Adapted from: Joe Milliano @MrJoeMilliano
Learning as a Beginner Applied to Physics
The Dunning - Kruger Effect (applied to driving)
Navigating the Dunning-Kruger 'Valley of Despair'.
How can you, a student, overcome the Dunning Kruger effect?
Keep Learning (see below)
Ask for feedback
Never stop questioning your own understandings.
How can teachers help you through the VoD?
Ask questions while in class. Questions make children humble.
Give feedback to children. This keeps them in terms with reality.
Develop metacognition - a great learning habit! (help students reflect on their understandings)
In the article to the right, by Nathan Belcher, the basis of all learning is described as a four step process:
Create a Why...
Challenge current beliefs (misconceptions)
Explore discrepant events.
Play with new / novel equipment
Gathering Information
Finding commonalties amongst resources.
Consolidation of ideas
Implement new understandings to explain or predict.
Unfortunately, this looks different for each student. We will approach this in physics by applying the following structure to typical units.
A typical learning cycle will begin with an activity, practical, demonstration, provocation, etc. These are designed to engage you in the learning process. I am a firm believer in the philosophy that you only have one opportunity to be introduced to something you do not know you love. Hopefully, you will find a majority of the introductions to be mentally engaging.
You will then be given an opportunity to explore the topic in more detail. This exploration will include additional lab practicals, online resources or personal research and direct instruction.
As you continue to learn more about the topic, you will be given tasks that require you to apply the topic to new or novel situations.
Finally, you will be given a variety of quantitative problems to solve. The formulaic problem solving comes at the end of the unit to ensure that you understand the relationships amongst the various quantities.
As part of the learning cycle, you will engage in the following collaborative, peer-to-peer presentations of your findings or problem-solving.
Using a variety of physics specific tools, students will provide Q&A sessions with their peers. These sessions will range from small group presentations (stay and stray) or whole group presentations.
Similar to peer reviewed science journals, these sessions will provide you with the opportunity to defend your answers and thinking in a safe, open environment.
The main topics of these presentations will be:
Model Creation - Physics Models Overview
Lab practicals that will clearly define a particular physics concept.
Through quantitative or qualitative data collection, you will be asked to present your findings to your peers.
Model Deployment Lab Practicals
Lab practicals that will extend your thinking and reasoning to concepts beyond your current understandings.
These practicals are designed to mimic both DP exam questions and push your creative problem solving skills.
You will be given a set-up of a situation, but you won't be asked any specific question. The general approach to these problems is supposed to be:
Say which models apply and why
Start to model the situation by drawing as many of the appropriate diagrams/graphs as you can
Use your diagrams/graphs to do calculations and find as many quantities as possible
Example of a Goal-less Problem: Golf Ball Flight
Solutions will be presented either as a whiteboard session or short video describing your analysis of the situation.
Similar to the goal-less problem, however you will be given a specific question. Your responsibility will be to
identify as many variables as necessary,
determine the relationship amongst the identified variables
establish realistic / acceptable values for your variables
determine an solution to the question.
Example of a No Variable Problem: Heating an Alpine Cabin
Solutions will be presented either as a whiteboard session or short video describing your analysis of the situation.
If you are going to compete in a basketball game, you need to scrimmage in practice. Likewise, if you are going to be tested on your Physics knowledge, you will need to practice past papers.
The approach to these problems will vary throughout the course. But ultimately at the end of your course, you will need to be able to solve a series of highly structured exam questions.
The table to the right is a list of the various models that we will explore during the course. These are based on the work done by the American Modeling Teachers Association.