When standing in front of an outcrop, geoscientists use relative dating principles to determine the sequence of events that occurred. These concepts are used by geoscientists to develop a narrative for an area.
This activity gives students practice using their observational skills to develop a timeline for a piece of art in a college museum. It is particularly geared towards students who are taking GE-101 to fulfill a college distributive requirement and who may be intimidated by a college level science course.
Students are split into small groups and given a worksheet that asks them to consider a single artwork carefully and develop a timeline for the lifespan of the piece from initial concept through the current display of the piece. Students were limited in their choice of artwork that could be used for the activity. (The pieces were chosen ahead of time, criteria included having obvious multiple steps in the creative process, relatively simple/identifiable art techniques or processes, some uncertainty as to the order of processes and/or gaps in time.)
As a wrap up, the entire group gathered in front of each piece and the groups reported out on their timeline and rationale for the sequence they chose.

This class is an introduction to studies in science, technology, and society (STS), through examining a series of issues, events, conflicts, and problems as illuminated by STS approaches. This iteration includes units on the Aaron Swartz case, photography, and utopia / dystopia. There are regular guest speakers, and several field trips to encourage hands on learning.

In this lesson, students use geometry to investigate the question "How much would sea levels rise if Antarctica melted?".

Step 1 - Inquire: Students speculate how one could use geometry to calculate the water level produced by a melting block of ice placed on a classroom table.

Step 2 - Investigate: Students follow mathematical steps to answer the question "How much would sea levels rise if Antarctica melted?"

Step 3 - Inspire: Students explore the effects of sea level rise on coastal communities and the measures being taken to build resilience.

This resource explores the cultural context of scientific inquiry through an interdisciplinary lens. Undergraduate students are invited to follow two characters from William Shakespeare’s play King Lear who debate the cosmos with various scientists from the 17th – 20th centuries, including Galileo Galilei, Isaac Newton, and Marie Curie. The joined scientific / literary lens models how intellectual questions about knowledge and analysis often draw from interrelated traditions of thought and practice, and asks students to consider the nature of their own intellectual questions. The resource is broken into five brief modules and can be completed entirely in class, or in partial increments as take-home.

6.933J / STS.420J provides an integrated approach to engineering practice in the real world. Students of 6.933J / STS.420J research the life cycle of a major engineering project, new technology, or startup company from multiple perspectives: technical, economic, political, and cultural. Research involves interviewing inventors, reading laboratory notebooks, evaluating patents, and looking over the shoulders of engineers as they developed today’s technologies. This subject is for students who recognize that technical proficiency alone is only part of the formula for success in technology.

In this lesson, students use a base number (1,000, 100, or 20) to compare the numbers of extinct, endangered, and vulnerable species and consider how their actions can help protect animals and plants.

Step 1 - Inquire: Students estimate the number of living things in a group to get a sense of the large number of species in the world.

Step 2 - Investigate: Students write numbers to represent the number of living things on the IUCN's Red List.

Step 3 - Inspire: Students compare and contrast numbers to compare groups of living things, reflecting on how to help living things in their community.

In this problem-based, blended learning mondule, students will investigate what is the single - most defining trait that makes  us human? Is it our highly developed speech, our imagination, creativity, or our upright walking posture?  Humans have mastered fire, developed tools, art, music, recorded our history, and accomplished a countless number of other things. In this module, students will explore genetics concepts regarding inheritance, natural selection, biology of the human brain, and our hominid evolution over the last two hundred thousand years. Students will utilize guided research, and independent work to formulate an argumentative essay, and substantiating their claim with evidence from their research. When the argumentative essay is completed, students will create a project from a choice board that demonstrates their understanding of one of the concepts of our humanity.

This problem-based learning module is students will be collecting their personal health numbers in a station rotation format.  After choosing their health numbers to compare, the students will create a scatter plot and line of best fit using class data. Students will do a gallery walk to compare their health numbers with their peers. The students will then create a presentation for a health fair to bring awareness to health numbers based on their personal findings and facts.

In this problem-based learning module students will connect these standards to their personal life by completing a random sample from their environment in the area of careers to investigate to see if their own career is environmentally challenged.  Students will work independently as well as with a partner. Students will also complete a reflection in the form of a final product to make an inference and draw a conclusion about the population of their area in relation to careers.  The final product will be presented to their peers and teachers, but also can be exhibited to their families.    This blended module includes teacher-led instruction, student-led stations, partner comparisons and technology integrated investigations.

Students discover the Fibonacci sequence and how it relates to a multitude of things in their world. They will begin to see "non-mathematical" things as mathematical. This is collection of activities that can be easily be used as a unit or as pieces to fit what you already have in place when teaching the Fibonacci sequence. Rubric definitely needs some work :)

In this problem-based learning module, students will raise awareness about the amount of excess food wasted each day in America’s schools highlights the consumptive mindset that our county has.  Each day in third world countries, as well as our own, children go without the proper nutrition needed to focus on other activities. This module will raise student awareness about the amount of food taken from the service line and then placed in waste receptacles.  Students will gather and analyze data regarding wasted food in an attempt to design a solution to reduce food waste. Sation rotation will allow to conduct research into the global problems associated with the lack of food and malnutrition. Mathematical skills will be required to calculate rates and percentages of consumption which will be used for analysis.  

After researching and learning about the possible devastation that would ensue if the Supervolcano at Yellowstone National Park were to erupt, students will work together in this problem-based learning module to use the information to create a news report to inform American citizens of the effects that would ensure in the event of an eruption. When creating the news report, students will be asked to think of a way to capture their audience attention about the topic while still explaining the science behind what is happening at this site. Students will also take the role of a number of different characters (i.e. experts in the field, scientists, concerned citizens, news caster etc.), and show at least one powerful image to aid in telling the story. After the Launch of the activity, students will take time to explore a variety of resources about this topic that will aid them in answering the “need to know” questions needed to create their News. These items should be shared with the students electronically in a collective folder,  and students will be asked to gather the information at their own pace.Once students have completed their news story, students will present their final products to an authentic audience consisting of district Administration, and building staff members.