Tuesday, October 15, 2013

How the iPad can improve a book report assignment.

From the http://ipadders.eu blog.

Upon hearing that they will have to read another book students usually roll their eyes and moan in disagreement. So to make the reading process more fun for them we let them chose their own book and their own creative assignment.

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There are three parts to the book report: A, summary, B character analysis, C creative assignment. Parts A and B are the same for everyone and resemble ”traditional” book report assignments. To rev up our students enthusiasm we have collected a list of 22 creative assignments to include in their book reports for part C.

Below you can see the list of assignments. For each assignments I’ve added suggestions of apps that will help the students. The assignments don’t have to be made digitally but most of them easily can be and will make the execution of their book reports more fun.

For each of the assignments students will need to make sure that their piece of work shows that:
  • They have read the book
  • Thought deeply & reflected on the book
  • Have understood the assignment
1. If a journey was involved, draw a map with explanatory notes of significant places. (Google Earth, Notability, Showme)

Monday, October 14, 2013

STEM 501 Wrap-Up - October 14-21

Between today and October 21 we'll be wrapping up our summer STEM 501 course. This is a time for sharing your lesson with others, reflecting on your lesson and how it was delivered, and how your STEM notebooks are or will be implemented.

Google Document Link


STEM 501 Wrap Up and Reflections - Middle School Group
This checklist is a copy of what you’ll find in Edmodo.


---------------------------------------------------------------------------
Step One:  Post and Review
  • Put your lesson, design brief, and handouts into ONE MS Word document or better, in HYPERLINKED Google Documents (I’ll help with this).
  • Post your lesson to this thread in Edmodo.  You WILL NOT comment on teaching the lesson here … that’s the next step.
  • Offer some thoughts about your colleagues’ lessons.  Consider these questions as you reflect on your colleagues’ lessons:
    • How does this lesson use the engineering design process to engage the students?
    • How does this lesson use the engineering design process to push students to think creatively and critically?
    • How does the design challenge build relevance to the required science and math content?
    • Are the standards addressed in an authentic way?  Are the connections between the science – technology – engineering – math contrived or natural?
    • What suggestions do you have for improvements?
    • What do you love about the lesson?
  • Read your colleagues comments about YOUR lesson and respond to any questions.
  • Make any changes or improvements you think needed to your lesson.

Wednesday, October 9, 2013

Wrap-Up week: October 14 to 21

(You may get multiple copies of this email as we work through the changes in your email system filters.)

It's time to begin wrapping up all that we did in the summer.  As the end of October approaches, here are my priorities:

1.  Fixing the recently discovered email communication challenges due to your new
    Microsoft Office 365 install (my job, not yours!); 
2.  Help you develop, refine, re-design the final draft of your lesson plans;
3.  Have you deliver your lesson plans; and
4.  Have you reflect on your lesson plans.

Beginning next week, I'll provide space for you to enter reflections.  You'll then be invited/encourage but not required to comment on others' reflections.  If you'll have difficulty finishing your lesson or delivering it by October 21, please let me know.


And as we continue through the winter, we'll

5.  Refine your STEM Education notebook templates and student participation;
6.  Refine your blog attempts;  
7.  Re-orient to using Edmodo; 
8.  Document your use of technologies;
9.  Get ideas for additional technology purchases; and
10.  Determine the best schedule for Middle School training for next summer.


Call any time!  (Particularly until we know our email is going in both directions.)  
703-599-3643

As part of this email investigation, please reply to this email with a simple, "Got it!" message (and anything else you wish to say, of course).

Jim Egenrieder
703-599-3643 (cell)   or  GoogleVoice: 571-482-8298
JimEgenrieder@gmail.com or Jim@STEMeducation.us
g+  Hangout or  Skype: jim.egenrieder

Tuesday, September 10, 2013

Drones in the U.S.

from Popular Mechanics:

Drone Skies: The Unmanned Aircraft Revolution Is Coming

The proliferation of unmanned aircraft is already outpacing the regulations that govern them. Is U.S. Airspace big enough for a deluge of drones?

Call them what you want—flying robots,
 unmanned aircraft, or drones—vehicles
such as this 5-pound Indago quadrotor
are changing the skies over America.
It's a quiet morning in San Francisco, with soft sunlight illuminating patches of thick fog billowing over the Golden Gate Bridge. A solitary unmanned aircraft—a 4-pound, battery-powered wedge of impact-resistant foam with a 54-inch wingspan, a single pusher-propeller in the rear, and a GoPro video camera attached to its body—quietly approaches the landmark. 

Raphael "Trappy" Pirker controls the aircraft from a nearby hill. The bridge is within sight, but the 29-year-old enjoys the scenery through virtual-reality goggles strapped to his head. The drone's-eye view is broadcast to the goggles, giving Pirker a streaming image of the bridge that grows larger as he guides the radio-controlled aircraft closer.


Pirker, a multilingual Austrian and a master's student at the University of Zurich, is a cofounder of a group of radio-control-aircraft enthusiasts and parts salesmen called Team BlackSheep. This California flight is the last stop of the international group's U.S. tour. Highlights included flights over the Hoover Dam, in Monument Valley, down the Las Vegas Strip, and through the Grand Canyon. The team has also flown above Rio de Janeiro, Amsterdam, Bangkok, Berlin, London, and Istanbul.

The Golden Gate Bridge now fills the view inside Pirker's goggles. He's not a licensed pilot, but his command over the radio-controlled (RC) aircraft is truly impressive. The drone climbs to the top of the bridge, zips through gaps in the towers, dives toward the water, and cruises along the underside of the bridge deck. Months later, the self-described RC Daredevils post the footage on YouTube, where nearly 60,000 viewers watch it. 

Team BlackSheep is willfully—gleefully, really—flying through loopholes in the regulation of American airspace. The Federal Aviation Administration (FAA) allows unmanned aircraft systems (UAS) to fly as long as their operators keep them in sight, fly below 400 feet, and avoid populated areas and airports. 

The FAA also forbids any drone to be flown for business purposes. "In the U.S. right now, it's completely open, so long as you do it for noncommercial purposes," Pirker says. "The cool thing is that this is still relatively new. None of the laws are specifically written against or for what we do." 

Raphael Pirker, shown operating a quadrotor
in Hong Kong, conducts daredevil flights
with drones near global  landmarks, to the delight
of Internet viewers and the dismay of many governments.

While the FAA did not sanction Team BlackSheep for buzzing landmarks as a publicity stunt, it has shut down other for-profit drone operators, including Minneapolis-based Fly Boys Aerial Cinematography, which was using drones to take photographs for real estate developers. are specifically written against or for what we do."   

Even the military and other government operators must obtain FAA waivers to operate drones. That means that flying over a wooded area is fine for an amateur, but a fire department that uses a drone to scout a forest fire in the same area requires special federal permission.are specifically written against or for what we do." 

Monday, July 15, 2013

Resources from stemcollaborative.org

Here are some resources for project ideas and lesson plans for adaptation to your students' needs.

JAE

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Number and Operations

In grades 6 – 8, all students should:
  • Understand numbers, ways of representing numbers, relationships among numbers, and number systems
  • Understand meaning of operations and how they relate to one another
  • Compute fluently and make reasonable estimates
Concept
Activity/Web Link
Description
Produced by
Fractions, Decimals and Percents
Use fractions, decimals, and percents to determine an unknown height.
Determine an unknown height using the decimal value of equivalent ratios.
Use fractions to size up a biscuit recipe.
Ratios and Proportions
Resize a figure to fit the scale of a diorama.
Use the proportional relationship between similar triangles to determine unknown heights.
Explore what happens to area when you scale up a painting proportionally.
Calculate the dimensions of a house that has been scaled up by a factor of 10.
Scale up menu items to feed a crowd at a family reunion.
Discover the relationship between an object’s distance from a light source and the size of its shadow.
Explore the proportional relationship between the length of musical pipes and their frequency.
Learn about the proportional relationships among time, distance, and speed.
Write and solve proportions when ratios are given as fractions, decimals, and percents.
Solve problems by using proportions.
Fractions, Decimals and Percents
Determine the proportional relationship between battery charge and the number of photos one can take.
Control the mass and velocity of a bumper car.
Write and compare ratios using fractions and decimals.
Ratios and Proportions
Photo Booth– Rechargeable Batteries
Determine the proportional relationship between battery charge and the number of photos one can take.
Estimating and Predicting
Bumper Cars– Storing and Using Energy in a Battery
Control the mass and velocity of a bumper car.
Selecting Appropriate method of computation and reasonable of result
Drag Racing - Horsepower
Calculate horsepower and explore accelerating from 0 to 60 mph.
Computing fluently
Roller Coaster - The Inclined Plane
Determine the amount of force required to pull roller coasters up inclined planes.
Parachute Drop - The Pulley
Explore and calculate force using different weights of people and different numbers of pulleys.
Seesaw – The Lever
Explore different weights and positions needed to balance a seesaw.
Ring the Bell – Acceleration
Explore the force that is necessary to “ring the bell.”
Roller Coaster – Scale Factor
Explore scale factors of roller coasters, dinosaurs and statues.
Determining Unit Rate
Photo Booth– Rechargeable Batteries
Determine the proportional relationship between battery charge and the number of photos one can take.
Bumper Cars– Storing and Using Energy in a Battery
Control the mass and velocity of a bumper car.
Determine unit rates.
Converting Units of measurement between metric and customary
Bumper Cars– Storing and Using Energy in a Battery
Control the mass and velocity of a bumper car.
Parachute Drop - The Pulley
Explore and calculate force using different weights of people and different numbers of pulleys.
Roller Coaster – Scale Factor
Explore scale factor of roller coasters, dinosaurs and statues.

Algebra

In grades 6 – 8, all students should:
  • Understand patterns, relationships, and functions
  • Represent and analyze mathematical situations and structures using algebraic symbols
  • Use mathematical models to represent and understand quantitative relationships
  • Analyze change in various contexts
Concept
Link
Description
Produced by
Different forms of representation for a relationship
Observe how the relationship of radius vs. area of circle is represented in a graph.
Enter data in a table and see how it translates into a graph.
Compare the graphical representations of inverse and direct proportions.
Modeling problems with graphs, tables, and equations
Complete a table comparing the dimensions of a house those of a larger-scale version.
Complete a table with the ingredients for a scaled-up recipe.
Complete a table with measurements of shadows at different distances from a movie projector.
Complete a table that demonstrates the relationship between the length of musical pipes and their frequency.
Complete a table that illustrates how distance, time, and speed are related.
Analyze change
Use a graph to determine how big a skillet needs to be to cook 108 pieces of chicken.
Answer questions about rate based on graphs of distance vs. speed and time vs. speed.
Comparing, graphing and interpreting data
Photo Booth– Rechargeable Batteries
Determine the proportional relationship between battery charge and the number of photos one can take.
Modeling problems with graphs, tables, and equations
Bumper Cars– Storing and Using Energy in a Battery
Control the mass and velocity of a bumper car.
Drag Racing – Horsepower
Calculate horsepower and explore accelerating from 0 to 60 mph.
Roller Coaster - The Inclined Plane
Determine the amount of force required to pull roller coasters up inclined planes.
Parachute Drop - The Pulley
Explore and calculate force using different weights of people and different numbers of pulleys.
Seesaw – The Lever
Explore different weights and positions needed to balance a seesaw.
Ring the Bell – Acceleration
Explore the force that is necessary to “ring the bell.”
Roller Coaster – Scale Factor
Explore scale factors of roller coasters, dinosaurs and statues.

Geometry

In grades 6 – 8, all students should:
  • Analyze characteristics and properties of two- and three-dimensional geometric shapes and develop mathematical arguments about geometric relationships
  • Specify locations and describe spatial relationships using coordinate geometry and other representational systems
  • Apply transformations and use symmetry to analyze mathematical situations
  • Use visualization, spatial reasoning, and geometric modeling to solve problems
Concept
Activity/Web Link
Description
Produced by
Transformations – Reflections
Place picnic tables to reflect a given arrangement.
Transformations – Rotations
Place, size, and rotate a shape to represent a snack bar in a park.
Place, reflect, and rotate objects in an obstacle course.
Pythagorean Theorem
Find the distance between two light posts.
Calculate the amount of material needed to cover a ramp.
Calculate the amount of material needed to cover a ramp and install rails along the sides.
Pythagorean Theorem
Roller Coaster- The Inclined Plane
Determine the amount of force required to pull roller coasters up inclined planes.
Transformations - Translations
Determine the coordinates needed to move a skateboarder along a rail.
Place and translate objects in an obstacle course.
Describe the translations needed to move a person on a coordinate plane.
Two- and three-dimensional geometric shapes
Use similarity to help determine an unknown height.
Explore what happens to area when the dimensions of similar rectangles are increased proportionally.
Observe what happens to volume when three-dimensional objects are scaled up.
Explore what happens to the area of a circle when its radius is increased.
Spatial relationships using coordinate geometry
Observe how the relationship between a circle’s radius and its area is represented graphically.
Applying geometry to areas outside mathematics classroom
See how proportional reasoning is used to create large-scale murals.

Measurement

In grades 6 – 8, all students should:
  • Understand measurable attributes of objects and the units, systems, and processes of measurement
  • Apply appropriate techniques, tools, and formulas to determine measurements
Concept
Link
Description
Produced by
Proportional Reasoning
Place and size a pond in a park.
Place and size a skateboard ramp in a park.
Place and size a garden in an environmental center.
Place and size a gazebo in an environmental center.
Discover the proportional relationship between the length of a musical pipe and its frequency or pitch.
Measure an unknown height using information about a known height.
Scale a figure for placement in a diorama.
Explore the proportional relationships among speed, distance, and time.
Calculate an unknown height using shadows and similar triangles.
Determine the dimensions, area, and volume of a house using a 1:10 scale.
Determine how much more paint is needed when the length and width of a painting are doubled or tripled.
Explore the relationship between the size of an object’s shadow and its distance from a light source.
Scale up recipes for a family reunion.
Scale up a skillet to cook chicken for a crowd.
Applying the Process of Measurement
Roller Coaster – Scale Factor
Explore scale factors of roller coasters, dinosaurs and statues.
Scale Factors
Measure distances on a map and calculate the actual distances.
Volume of a Cylinder
Calculate the volume of a pond and the amount of water needed to fill it.
Calculate the volume of a pond and the amount of water needed to fill it.
Area of a Circle
Calculate the number of goldfish that can be placed in a pond.
See how increasing the radius of a circle affects its area.
Perimeter and Circumference
Calculate the number of cans of spray paint needed to paint the lines on a basketball court.
Perimeter and Area
Solve problems using perimeters and areas of rectangles.
Area of a Composite Figure
Find areas of composite figures in order to cover areas in a park with rubberized mulch.
Find area of composite figure in order to cover it with topsoil.
Find area of composite figure in order to cover it flooring.
Rates and derived measurements
Calculate speed in mph based on distance traveled in a set time or time taken to travel a set distance.
Solving Problems Using Velocity and Mass
Bumper Cars– Storing and Using Energy in a Battery
Control the mass and velocity of a bumper car.

Data and Probability

In grades 6 – 8, all students should:
  • Understand and apply basic concepts of probability
Concept
Link
Description
Produced by
Using proportionality and a basic understanding of probability to make and test conjectures about the results of experiments and simulations
Photo Booth– Rechargeable Batteries
Determine the proportional relationship between battery charge and the number of photos one can take.
Bumper Cars– Storing and Using Energy in a Battery
Control the mass and velocity of a bumper car.
Drag Racing – Horsepower
Calculate horsepower and explore accelerating from 0 to 60 mph.
Roller Coaster - The Inclined Plane
Determine the amount of force required to pull roller coasters up inclined planes.
Parachute Drop - The Pulley
Explore and calculate force using different weights of people and different numbers of pulleys.
Seesaw – The Lever
Explore different weights and positions needed to balance a seesaw.
Ring the Bell – Acceleration
Explore the force that is necessary to “ring the bell.”
Roller Coaster– Scale Factor
Explore scale factors of roller coasters, dinosaurs and statues.