This online article, from the museum's Musings newsletter for educators, reports on the YouthCaN organization. It discusses the background and activities of this youth-run organization, begun in 1993, which gives kids concerned about the environment the chance to think and work on a national and international level. There is information on how to create a YouthCaN program in your community.

To prepare students to think about the data, assumptions, and interpretations that are part of a phylogenetic analysis. This exercise comes in five parts. The first part is all of the data -- all specimens and age dates for all specimens. This simulates the impossible -- a complete fossil record. The second part has 10% of the specimens randomly removed (an imperfect fossil record), but all age information is provided for the 90% given. Similarly, the third and fourth parts have 20% (different 20%s) of the data randomly removed, and all information is provided for the 80% of remaining specimens (a more imperfect fossil record). The fifth part has dates only for the modern forms -- all other dates are removed. This simulates the situation for a group lacking a fossil record or a situation where the fossil record is ignored.

Depending on the class size, students either individually or in groups develop a phylogeny from their data prior to class time. In class we lay everything out on tables and compare and contrast the various phylogenies and in the process discuss many of the basic assumptions, practices, biases, etc. of phylogenetic reconstruction.

You could make this more complex and have students code things into MacClade, Paup, etc.; however, I use this for the concepts of phylogenetic reconstruction only.

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In this activity, students have an opportunity to learn about the geomorphology and soils of your campus. Within a team, students collect soils information and use it to construct of stratigraphic cross-section and outline major geologic events in the history of a given site.

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Students conduct a greenhouse gas emission inventory for their college or university as a required part of the American College and University Presidents Climate Commitment.

Students are given an outline map of the campus with no scale indicated. They are to work in small groups to determine the scale. Although rules and tape measures are provided, students are given no instruction on how to best determine the scale and are tasked with devising their own methodology. Students write their scales on the blackboard and we finish the class with a discussion of their various methodologies, sources of error, and why there is some variation among their results.

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Reading and constructing geologic maps is one skill that every geologists has to master. Initially, this means that we have to understand the symbols that are used on geologic maps. Once we know the general meaning of these symbols, we will have to learn how to measure and plot them. The measuring is generally done using a magnetic compass. Finally, we have to plot the data on a map so that others understand the geology based on our mapping.

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Students use GPS units and record the location of some feature of interest on the campus. A shapefile is created from data recorded in an Excel file. This data is incorporated into a map which includes shapefiles and imagery for various campus features.

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Link the college or university operations with local ecology. In this study, students use a tool from urban ecology, the nitrogen budget, to research the inputs, outputs and subsytem transfers of nitrogen on the college or university campus.

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Learn about one town's conflict over the issue of spraying pesticides to combat disease-carrying insects, in this video segment from Greater Boston.

This lesson introduces students to the concept of air pressure. Students will explore how air pressure creates force on an object. They will study the relationship between air pressure and the velocity of moving air.

This math example explains what celestial objects a person can see with the unaided eye from the vantage points of Earth and Mars, using simple math, algebra and astronomical distance information. This resource is from PUMAS - Practical Uses of Math and Science - a collection of brief examples created by scientists and engineers showing how math and science topics taught in K-12 classes have real world applications.

The purpose of this exercise is to understand the capability and limitations of several instruments (AA, ICP-OES, ICP-MS) used for geochemical analysis. Students compare and contrast the cost, detection limits, etc. of these instruments.

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Students conduct this investigation collaboratively and with minimal guidance from the instructor. Students are presented with the research problem at the start of the semester, typically within the first week of classes. Soon after, a class-wide discussion is facilitated through the posing of some preliminary questions. Eventually and within the first few weeks, students outline a project design and methodology for implementation in the field and laboratory. Along the way and as project-pertinent topical units are covered, students are given journal articles to read that might further their thinking about the project, might present some appropriate methodology, or might serve as a model investigation.

Field work is accomplished early in the semester and with minimal time invested. Because scheduling field trips that can accommodate everyone is difficult, the field experience is optional. In these situations, someone chronicles the field work with either a digital still camera or digital videocamera and then these are shared with everyone in the class.

All aspects of the project are collaborative; students collect and share data, prepare and share figures and tables, and collectively prepare the poster and abstract.

The following files are uploaded as supportive teaching materials:
1. Geobio Research Project Description F08.doc: This is the project overview that is distributed to students as a handout at the start of the semester.
2. Geobio Research Project Qs.doc: This set of questions is distributed early in the semester to spark a discussion and to aid in the design of the project.
3. Geobiology GSA SE 2009 Abstract.doc: This is a copy of the abstract that was submitted to the 2009 Southeast Section Geological Society Of America meeting in St. Petersburg.
4. Geobio GSA SE09 Poster.ppt: A copy of the poster presentation given at the 2009 Southeast GSA meeting.

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This PBS video shows how Klaus Lackner, a geophysicist at Columbia University, is trying to tackle the problem of rising atmospheric CO2 levels by using an idea inspired by his daughter's 8th-grade science fair project. The video examines the idea of pulling CO2 out of the atmosphere via a passive chemical process.

This activity from NOAA Earth System Research Laboratory introduces students to the scientific understanding of the greenhouse effect and the carbon cycle. The activity leads them through several interactive tasks to investigate recent trends in atmospheric carbon dioxide. Students analyze scientific data and use scientific reasoning to determine the causes responsible for these recent trends. By studying carbon cycle science in a visual and interactive manner, students can learn firsthand about the reasons behind our changing climate.

This online lab exercise focuses on the processes involved in the Carbon cycle and the influences of human activity on those processes- especially as they relate to Earth's weather and climate. The fourth in a 10-part lab series on weather and climate, this lab exercise is designed for first and second year college geoscience students (majors and non-majors) as well as pre-service STEM teachers.

This interactive animation focuses on the carbon cycle and includes embedded videos and captioned images to provide greater clarification and detail of the cycle than would be available by a single static visual alone.

This is two-hour lab exercise based on computer data sets. Students examine records of CO2 levels in the atmosphere as well as annual temperature records for the US and the world.

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This module provides an overview of the biogeochemical carbon cycle. Major sources and sinks of carbon are discussed as well as the impact of human activities on global carbon levels.

In this activity, students use a physical model to learn the basics of photosynthesis and respiration within the carbon cycle.