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Career of the Month

An Interview With Atmospheric Scientist Shawn Urbanski

An Interview With Atmospheric Scientist Shawn Urbanski

By Luba Vangelova

Atmospheric scientists study the chemical composition of the atmosphere. More specifically, they look at how atmospheric gases, liquids, and solids interact both with each other and with the earth's surface. This helps people understand such phenomena as air pollution, ozone depletion, and climate change. Shawn Urbanski is a research physical scientist at the U.S. Forest Service’s Rocky Mountain Research Station in Missoula, Montana. He studies wildfire smoke chemistry and the impact of wildfire smoke on air quality.

Atmospheric scientists study the chemical composition of the atmosphere. More specifically, they look at how atmospheric gases, liquids, and solids interact both with each other and with the earth's surface. This helps people understand such phenomena as air pollution, ozone depletion, and climate change. Shawn Urbanski is a research physical scientist at the U.S. Forest Service’s Rocky Mountain Research Station in Missoula, Montana. He studies wildfire smoke chemistry and the impact of wildfire smoke on air quality.

Atmospheric scientists study the chemical composition of the atmosphere. More specifically, they look at how atmospheric gases, liquids, and solids interact both with each other and with the earth's surface. This helps people understand such phenomena as air pollution, ozone depletion, and climate change. Shawn Urbanski is a research physical scientist at the U.S. Forest Service’s Rocky Mountain Research Station in Missoula, Montana. He studies wildfire smoke chemistry and the impact of wildfire smoke on air quality.

 

Editor's Corner

More than a Game

More than a Game

By Steve Metz

Computer simulations have become essential to scientific investigation and engineering design, thanks to advances in mathematical modeling, game theory, and computing technology. Simulations now provide an indispensable tool for investigating the properties of natural and built systems in science, engineering, economics, and social science.

Computer simulations have become essential to scientific investigation and engineering design, thanks to advances in mathematical modeling, game theory, and computing technology. Simulations now provide an indispensable tool for investigating the properties of natural and built systems in science, engineering, economics, and social science.

Computer simulations have become essential to scientific investigation and engineering design, thanks to advances in mathematical modeling, game theory, and computing technology. Simulations now provide an indispensable tool for investigating the properties of natural and built systems in science, engineering, economics, and social science.

 

Focus on Physics

Quickly Teaching Speed, Velocity, and Acceleration—Part 2

Quickly Teaching Speed, Velocity, and Acceleration—Part 2

By PAUL G. HEWITT

In the February 2019 issue we looked at teaching speed and velocity. Now we’re ready to tackle acceleration.

In the February 2019 issue we looked at teaching speed and velocity. Now we’re ready to tackle acceleration.

In the February 2019 issue we looked at teaching speed and velocity. Now we’re ready to tackle acceleration.

 

Teaching With Simulations

Teaching With Simulations

By Argenta Price, Carl Wieman, and Katherine Perkins

Teachers use simulations for student motivation, content learning, and engagement in science practices.

Teachers use simulations for student motivation, content learning, and engagement in science practices.

Teachers use simulations for student motivation, content learning, and engagement in science practices.

 

Spicing Up Your Classroom With Games

Spicing Up Your Classroom With Games

By Melanie Pearlman

Games allow teachers to interact with their students in a different way than they normally do. They also have the potential to challenge and assess students’ understanding of content. Games allow me to “play” with my students in ways that other learning activities do not (Kirkland and O’Riordan 2010). I can be silly, competitive, cooperative, lenient, creative, and supportive alongside my students in a way that I cannot during lab activities, assessments, or even project work time.

Games allow teachers to interact with their students in a different way than they normally do. They also have the potential to challenge and assess students’ understanding of content. Games allow me to “play” with my students in ways that other learning activities do not (Kirkland and O’Riordan 2010). I can be silly, competitive, cooperative, lenient, creative, and supportive alongside my students in a way that I cannot during lab activities, assessments, or even project work time.

Games allow teachers to interact with their students in a different way than they normally do. They also have the potential to challenge and assess students’ understanding of content. Games allow me to “play” with my students in ways that other learning activities do not (Kirkland and O’Riordan 2010). I can be silly, competitive, cooperative, lenient, creative, and supportive alongside my students in a way that I cannot during lab activities, assessments, or even project work time.

 

Feature Article

From Bean to Cup

From Bean to Cup (Volume 86, Issue 7)

By Tom Cubbage

Coffee comes to the science lab

Coffee comes to the science lab

Coffee comes to the science lab

 

Do Plants Breathe?

Do Plants Breathe?

By Jennifer L. Maeng and Amanda Gonczi

The idea that plants do photosynthesis but do not do cellular respiration is a common misconception among middle and high school students that often stems from an over-simplification of these processes in diagrams and formal science instruction. The activity presented here uses a conceptual change approach (Nussbaum & Novick, 1982) and an online simulation to facilitate high school students’ accurate conceptions of the relationship between photosynthesis and cellular respiration in plants.

The idea that plants do photosynthesis but do not do cellular respiration is a common misconception among middle and high school students that often stems from an over-simplification of these processes in diagrams and formal science instruction. The activity presented here uses a conceptual change approach (Nussbaum & Novick, 1982) and an online simulation to facilitate high school students’ accurate conceptions of the relationship between photosynthesis and cellular respiration in plants.

The idea that plants do photosynthesis but do not do cellular respiration is a common misconception among middle and high school students that often stems from an over-simplification of these processes in diagrams and formal science instruction. The activity presented here uses a conceptual change approach (Nussbaum & Novick, 1982) and an online simulation to facilitate high school students’ accurate conceptions of the relationship between photosynthesis and cellular respiration in plants.

 

Design Your Own Navy

Design Your Own Navy

By MICHAEL BRISCOE

Virtual shipbuilding technology from professional naval engineeers

Virtual shipbuilding technology from professional naval engineeers

Virtual shipbuilding technology from professional naval engineeers

 

Feature Article

Ramp It Up!

Preschoolers investigate force and motion with a digital journal.

Science and Children—March 2019

By Ashley Lewis Presser, Ximena Dominguez, Marion Goldstein, Regan Vidiksis, and Danae Kamdar

Preschoolers investigate force and motion with a digital journal.
Preschoolers investigate force and motion with a digital journal.
Preschoolers investigate force and motion with a digital journal.

Staging Family Science Nights

Get rave reviews for science by putting this book’s step-by-step plans to work. Staging Family Science Nights is your playbook for creating an informal learning environment that will generate enthusiasm and enjoyment of science among the entire family. The book’s first section—“Producing the Event”—devotes eight chapters to planning, recruiting volunteers (including students), setting up, last-minute troubleshooting, and injecting pizazz. The four chapters in the second section—“On the Stage”—offer guidance and templates for activities at the novice, intermediate, and advanced levels.
Get rave reviews for science by putting this book’s step-by-step plans to work. Staging Family Science Nights is your playbook for creating an informal learning environment that will generate enthusiasm and enjoyment of science among the entire family. The book’s first section—“Producing the Event”—devotes eight chapters to planning, recruiting volunteers (including students), setting up, last-minute troubleshooting, and injecting pizazz. The four chapters in the second section—“On the Stage”—offer guidance and templates for activities at the novice, intermediate, and advanced levels.
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