mrsfyzix
Friday, July 23, 2010
Alternate Energy Project
Revision of my Guiding Principles for Technology Use
Guiding Principles for Using Technology
The physical teachnology (Was that a typo or a flash of brilliance?) that I have in my classroom includes:
1. My laptop computer with heavily filtered connection to the internet
2. An LCD projector
3. A mimio interactive white board tool
4. A laptop cart with 12 student computers for up to 30 students
5. An array of probes that interface with the computers for data collection
After some reading and reflection I will try to live by the following principles of technology use:
1) Using a laptop computer ¹ learning from technology.
2) Since students have to share the computers, assign their groups so that they have experience “adapting to different personalities and communication styles.”
3) The epitome of a computer experience for the students results in the students producing something or participating in something that results in stimulating lifelong learning.
4) Evaluate the merit of using a high tech probe vs. a low teach measuring tool for data collection. Greater precision and accuracy do not outweigh the value of the students “feeling” the data, as with force probes and spring scales.
5) Incorporate the LCD projector and mimio tool for student use vs. instructor use to provide the students the opportunity to share what they have produced.
Tuesday, July 20, 2010
Reflection on new web tool
Reflection on D2L discussions
Monday, July 19, 2010
Ideas for class project
Tuesday, July 13, 2010
Reflection on exploring blogs and wikis
Saturday, July 10, 2010
Comment about my Create an Argument Assignment
The Fastest Things on Earth
People and things are moving from place to place all the time. Sometimes the very purpose of moving is to determine who or what moves the fastest. Running events in track, NASCAR races, many Olympic competitions are just a few of the examples of when being fastest is important.
Is fast about speed, velocity or acceleration?
Is fast an average thing or an instantaneous thing?
Interactive poster session
Once your group has developed an explanation that answers this question, prepare a Glogster that you can use to share and justify your ideas. Your Glogster should include all the information shown in the diagram. (OK the diagram didn't copy over, but you've all seen it in the article.)
Remember, as you critique the work of others, you have to decide whether their conclusions are valid or acceptable based quality of their explanation and how well they are able to support their ideas. In other words, you need to determine if their argument is persuasive and convincing. To do this, ask yourself the following questions:
• Is their explanation sufficient (i.e., it explains everything it needs to) and coherent (i.e., it is free from contradictions)?
• Did they use genuine evidence (i.e., They organized their data in a way that shows a trend over time, a relationship between variables, or a difference between groups)?
• Did they use enough evidence to support their ideas (i.e., They used more than one piece of evidence and all their ideas are supported by evidence)?
• Is there any counterevidence that does not support their explanation?
• How well does their explanation fit with other theories and laws that are used in science to explain or describe how the world works?
• Is their rationale adequate (i.e., They explain why the evidence was used and why it supports the explanation)?
• Is their reasoning appropriate (rational and sound)?
Relevant information about this problem
Average velocity is defined as displacement (change in position) divided by the time to change position.
Acceleration is defined as change in velocity divided by the time to change velocity.
Instantaneous speed and velocity relate how fast something is going at one instant in time. For example: As I constantly accelerate my car from 0 to 60 mph it passes through 50mph for a split second. At that moment in time my instantaneous speed was 50. If I was able to accelerate constantly my average speed would have been 30 mph for the entire acceleration period.
In the metric system the fundamental unit for time is the second, s.
The fundamental unit for distances and displacements is the meter, m.
The derived unit for speed and velocity is the meter per second, m/s.
The derived unit for acceleration is the meter per second squared, m/s2.