Science and Mathematics Education Commons^™

What’S The Buzz?, Christine L. Moskalik

Teacher Resources

Read more: Moskalik, C. (2021). What’s the Buzz? A hands-on, interdisciplinary, & FUN way to learn about circuits, energy, engineering, bee communication and pollination. Science and Children. National Science Teaching Association. Volume 58 (Issue 5). May/June 2021.

The Great Water Design Challenge: A Noaa Planet Stewards And Illinois Mathematics And Science Academy (Imsa) Collaboration, Elizabeth Martinez

Publications & Research

Through generous NOAA Planet Stewards funding, schools in the Northern Illinois area had the unique opportunity to participate in a one-day design challenge that focused on local and state environmental issues. Student teams, which ranged from fifth grade through high school, engaged in research and design thinking to create innovative responses and solutions to address their selected water challenge. Subject matter experts were available, both virtually and in person, for questions, conversations, and insights as teams worked. Simultaneously team sponsors engaged in their own professional development related to the NOAA Planet Stewards Program. Students showcased their work at the end …

Adaptations Of The Illinois Mathematics And Science Academy In Response To Covid-19, Sowmya Anjur, Dave Devol

Faculty Publications & Research

No abstract provided.

Dna, Rna, & Proteins, Oh My!, Cassandra Wissink Armstrong

Professional Learning Day

A staple topic in any life science classroom, we will take a look at some innovative ways to not only teach these topics, but assess them using the Next Generation Science Standards.

Graphic Novels In Biology – A Novel Assessment Idea, Sowmya Anjur

Faculty Publications & Research

Galileo once said, “You cannot teach a man anything, you can only help him find it within himself.” (Goodreads, 2020). I have often pondered upon how best I could use this advice. I have been an educator for 24 years and have loved every minute of it. During this time, I have seen students of all cadres come and go, but they all have one thing in common - their innate fear of written assessments. In general, students in high school tend to have a different perspective on education than their adult counterparts - they tend to procrastinate, are usually …

Collaboration And Inquiry For The Science Classroom, Jessica Amacher, Sarah O'Leary-Driscoll, Crystal Randall

Faculty Publications & Research

Science is a collaborative endeavor, where most of the significantly influential advances are achieved by groups of scientists working together across varying institutions and disciplines. To reflect this, we should offer opportunities for our students to learn, research, and communicate with their peers. In this workshop, we share models that we have found successful for designing opportunities, as well as ideas for topics that promote real world application and cross disciplinary work for students, drawing from our experiences with the International Student Science Fair and other international strategies. We will help interested teachers in developing their own working groups to …

Session C-1: Modeling Stem Activities Into Classroom Practice, Sowmya Anjur

Professional Learning Day

Students understand concepts better when they have had a chance to work hands on with relevant material. Examples will be presented from my classroom where difficult concepts have been modeled into simple experiments with considerable success in enhancing student understanding. Special focus will be given to selected topics that students seem to have the most difficulty grasping. The objective is to enable students to transfer their understanding to solve complex problems with considerable ease and apply their understanding to real world scenarios on assessments. Suggestions will also be provided for implementation of various concepts into the high school classroom.

There’S A Dragon In My Classroom, Sarah O'Leary-Driscoll

Nature of Science

What makes science, science?

How do we help students make sense of the science they are learning and how it fits in with preconceived notions and misconceptions, social perspectives, and potential controversy?

1. "Investigating The Impact Of Changes In Carbon Dioxide Concentration On Ecosystems", Sarah O'Leary-Driscoll, Crystal Randall

Ecosystem Disruption & Climate Change

Question: Does the concentration of carbon dioxide affect air temperature in a closed environment?

2a: "Illinois Carbon Dioxide Emissions Activity", Sarah O'Leary-Driscoll, Crystal Randall

Ecosystem Disruption & Climate Change

Your goal for this activity is to compare the different sources of carbon dioxide emissions, stemming from the consumption of fossil fuels, in Illinois. To do this you will be working with data spanning from 1980 to 2012.

3: "The Current Extinction: Defaunation & Ecosystem Disruption", Sarah O'Leary-Driscoll, Crystal Randall

Ecosystem Disruption & Climate Change

Information taken from: Dirzo, R. et al (2014). Defaunation in the Anthropocene. Science, 345(401).

Scientists estimate, conservatively, that there are 5 to 9 million different animal species on the planet. But that number is continually changing, and unfortunately, dropping, as we are likely losing 11,000- 58,000 species annually, and evidence suggests that on average, there has been a decline of about 28% in terms of numbers of individuals within a species over the last four decades. Both of these statistics are vitally important. The critical nature of the first is perhaps more obvious, as total loss of a species is …

The Greenhouse Effect: Does The Concentration Of Carbon Dioxide Affect The Air Temperature In A Closed Environment?, Climate Science Investigations - Nasa

Ecosystem Disruption & Climate Change

The purpose of this lesson is to investigate the effect of carbon dioxide (CO2) concentration on air temperature in a closed environment.

Evolution Practice 2, Imsa Biology Team

Evolution

Evolution Problems

Crash Course Evolution Videos Bibliography, Imsa Biology Team

Evolution

No abstract provided.

Genetic Drift Simulation, Imsa Biology Team

Evolution

Genetic drift can be defined as a random fluctuation in gene frequency. More specifically, it tells us that different alleles may increase or decrease in a population in proportion to one another over time, just by chance, rather than due to any fitness advantage.

Mechanisms And Speciation 2: Evolution On The Web Questions, Imsa Biology Team

Evolution

The website below, sponsored by UC Berkeley, is a reliable source for information about evolution. This will give you the introductory information about the mechanisms of Evolution.

Mechanisms And Speciation 1: The Modern Synthesis, Imsa Biology Team

Evolution

The Modern Synthesis or Synthetic Theory of Evolution is an explanation of evolution that is based on modern genetic principles. According to the Modern Synthesis (a.k.a. Neo-Darwinism):

Evidence Of Evolution 2: Definitions For Evolutionary Evidence Lab, Imsa Biology Team

Evolution

This lab activity was designed to provide you with opportunities to make inferences and draw conclusions about evolution and the common ancestry of various animals based on their anatomical characteristics and comparative anatomy. You will be given tasks to accomplish or questions to answer at each of 11 stations. In order to do this successfully, you must make careful observations of the specimens on display. You must also know the following definitions before beginning this activity:

Evolution Practice 1, Imsa Biology Team

Evolution

Answer the following questions using information from the handouts, and examples from the LAB

Common Mistakes In Discussing Evolution, Sarah O'Leary-Driscoll

Evolution

No abstract provided.

Evidence Of Evolution 1: Structures, Imsa Biology Team

Evolution

In order to investigate linage, evolutionary history, and common ancestry, you need to be familiar with the following structures.

Essential Questions, Imsa Biology Team

Evolution

In order to understand the current state of biological life and how it has changed over time, the following questions must be addressed:

Evidence Of Evolution 3: Evolutionary Evidence And Inferences Lab: A Discussion Guide, Imsa Biology Team

Evolution

This lab activity was designed to provide you with opportunities to make inferences and draw conclusions about evolution and the common ancestry of various animals based on their anatomical characteristics and comparative anatomy. You will be given tasks to accomplish or questions to answer at each of 11 stations. In order to do this successfully, you must make careful observations of the specimens on display.

Poster 2: Primary Structure, Max Shramuk '16, Mara Cardona '16

Protein Folding & Structure Prediction Posters

No abstract provided.

Poster 8: Predicting Structure: Current Techniques And Challenges, Arun Arjunakani '16, Joseph Jagusah '16

Protein Folding & Structure Prediction Posters

No abstract provided.

Poster 5: Quaternary Structure, Arun Arjunakani '16, Joseph Jagusah '16

Protein Folding & Structure Prediction Posters

No abstract provided.

Poster 7: Importance Of Protein Structure Prediction, Michael Qian '16, Sarah Dovgin '16, Esther Chung '16

Protein Folding & Structure Prediction Posters

Initially, drugs were discovered by either chance or by trial and error through screening methods. Because scientists did not have the ability to model protein structures, drug discovery was a very expensive process. Currently, researchers are working on technologies to determine protein ligands and potential drugs through the usage of predicted protein structures.

Poster 3: Secondary Structure, Michael Qian '16, Sarah Dovgin '16, Esther Chung '16

Protein Folding & Structure Prediction Posters

No abstract provided.

Poster 1: Protein Functions And Relationships Between Structure And Function, Mara Cardona '16, Max Shramuk '16

Protein Folding & Structure Prediction Posters

No abstract provided.

Poster 4: Tertiary Structure, Grace Carlberg '16, Andy Xu '16, Andrew Adams '16

Protein Folding & Structure Prediction Posters

When proteins form polypeptide chains, they form primary structure - their amino acid sequence - secondary structure - their local shapes - and tertiary structure - their global fold and shape. Tertiary structure and its prediction are of vital importance to the biology community because of its importance for manipulating gene expression, cell-wide processes, and more. Because of the innumerable possibilities for even a simple primary structure protein, prediction is incredibly difficult. As bioinformatics technologies advance, though, our understanding of tertiary folding advances.