This is an in-depth assignment to explore and write about the history of life as represented at the Museum of the Earth at the Paleontological Research Institution in Ithaca, New York. Students will examine several facets of paleontology: paleoecology, paleoclimate, geologic time, and mass extinctions.

This article describes common misconceptions held by elementary students about the history of the polar regions, fossils, and geologic time. The article provides ideas for formative assessment, teaching strategies, and the National Science Education Standards.

Think science has all the answers? Think again. This course will use real, authentic data to explore and investigate modern controversies in Earth Sciences. Use tide gauge records to understand how countries around the world attempt to protect themselves from tsunami events. Process seismic data to predict earthquake recurrence in the New Madrid seismic zone, right here in the breadbasket of the US. Sort through the millions of years of the geologic timeline to shed some light on what actually did, and did not, kill the dinosaurs. Finally, use global atmospheric data to understand how misrepresentation of data can be used to paint a distorted view of past, present, and future climate.

In this activity, learners use crayons to draw conclusions about rocks and the rock cycle. Learners form crayons ((which can be "weathered"--heated, compressed and cooled--like rocks) into models of sedimentary, metamorphic, and igneous rocks.

In this video segment adapted from NOVA, scientists search for carbonized remains of plants preserved in lava flows to find out how long it has taken rain forests on Hawaii to regenerate after a volcanic eruption.

DATA: SHALDRIL Core Data; NOAA Pollen data TOOL: GeoMapApp SUMMARY: Import Antarctic sediment core data files into GeoMapApp to create maps and graphs. Use data to infer past climate conditions based on current vegetation distributions.

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In this activity, students play the roles of "time travel agents" creating an advertisement for a geologic time period which has been assigned to them. They will use the Earth Science Reference Tables (available on the internet) to learn some basic facts about their assigned period. A rubric for assessing student understanding is provided.

This article provides links to web sites about geologic time, fossils, and the archaeology and culture of the Arctic for elementary teachers.

This BLOSSOMS lesson will help students conceptualize the enormity of geologic time and learn about important events in Earth s history. Students will also learn how geologic time can help explain seemingly incomprehensible processes, like the formation of the Himalayan Mountains from a flat plain to their current height, and the evolution of a tiny group of reptiles into enormous dinosaurs. During the breaks, students will construct a geologic timeline of their own in the classroom and do simple calculations to determine how long amounts of time can lead to impressive changes in the height of the Himalayan Mountains and the size of a group of reptiles.

Students work in groups to develop content for am online hiking tour which is matched to the geologic time scale. This project has been used as a semester group work project in an introductory geologic history course, but could be adapted for high school or upper level and graduate courses focused on outreach.

Watch this short video clip to learn more about the rock layers of the Grand Canyon. This video discusses the two sandstone formations that comprise the uppermost part of the canyon. The video also discusses how the two sandstone layers were formed.

This observational inquiry activity involving careful descriptions of rocks and fossil including age will be used to create a scalar accurate geologic time scale. Students will observe and learn that the geologic time scale was created based on changes in fossil, rock, and atmospheric changes.

In this activity, students organize a set of fossils chronologically and learn to correlate, based on fossil evidence, the stratigraphy of one location with that of an adjacent location. Earth Science Reference Tables are used to identify the epoch of occurrence and the age of each of the fossil specimens. Students will become familiar with the concept of index fossils and understand what makes a good index fossil.

Using a combination of water, effervescent antacid tablets, dishwashing liquid and simple materials, students model volcanic eruptions to measure the intensity of explosivity and develop their own scale.

This article highlights children's literature about fossils, dinosaurs, archaeology, and paleontology for use in the elementary classroom.

Rating: Example of High Quality NGSS Design

Awarded the NGSS Design Badge

Science Discipline: Life Science, Earth and Space Science, Physical Science

Length: Unit

Numerous reports suggest an increase in white shark encounters in the United States in recent years and the public is worried. In this integrated middle school unit, students engage in three-dimensional learning that enables them to explain the phenomenon. White sharks in the coastal waters of Southern California serve as a case study for students to ask questions and build understanding. Students initially question if white shark encounters are in fact increasing and investigate reports of sightings. They wonder if we know whether or not the population is on the rise, leading students to next explore past evidence from fossils and data from historic fishers logs. Students then question how scientists today are monitoring white sharks, setting the stage to explore the use of modern tracking devices (digging deep into waves and signals) and what researchers know about white sharks because of the application of this technology. This opens up the opportunity for students to question and consider what the science community has learned about white shark life history, how humans have impacted the white shark population off Southern California, and to devise a way to address public concerns.

Free Open Educational Resources for the Geosciences. The landing page provides links to three textbooks designed for use with introductory courses in Physical Geology, Historical Geology, and Mineralogy. Content contained within each of these books can be utilized across many related courses. The text is written as much as possible at a high school level. Interactive content and quizzes are sprinkled throughout for a better student experience.

Users can choose a time in geologic history, select the link, and see what the Earth looked liked in the far distant past. Each map features a brief written description of the events occurring at that time, and a link to additional information on the geologic era or period being shown. There are also maps that show what the Earth might look like in the future, 50, 100, and 150 million years from now.

This quiz for younger students asks them 10 questions about plate motions, rock types in continental and oceanic crust, crustal formation and mountain building, the supercontinent Pangea, and the theory of continental drift. A link to a page on continental drift provides information to answer the questions.

Students write a short essay using relative age principles to describe a fictional set of geologic events and processes (specified in the exercise) that occur in a hypothetical area. The essay is used to develop a geologic profile, and then it is given to another student who is tasked with producing the correct geologic profile (as a quiz), based on the essay information. A teacher-designed rubric is used to score the quiz and to allow students to complete a self-evaluation of their learning.