LTER Data Nuggets: Breathing new life into long-term data

The original blog post can be found on the KBS LTER website here.

Each year the KBS LTER program awards graduate students summer fellowships. Here Elizabeth Schultheis and Melissa Kjevik, now both postdoctoral researchers with Michigan State University, describe the project their summer fellowship supported.

Today it is apparent that students and the public continue to struggle when faced with data and its interpretation. When asked to make sense of data taught in their science classrooms, gathered during classroom inquiry projects, or found in the news, students are unable to connect quantitative information to explanations of the way the world works. Without exposure and practice, a large dataset or complicated graph can seem insurmountable. In collaboration with K-12 teachers, the Kellogg Biological Station (KBS) GK-12 program, BEACON, and the LTER, we created Data Nuggets to help students overcome roadblocks when working with and interpreting data.

Data Nuggets are targeted classroom activities focused on developing quantitative skills for K-16 students. They are created from recent and ongoing research, bringing cutting edge science into the classroom and helping scientists share their work with broad audiences. The standard format of each Data Nugget provides background information about a scientist and their research, along with how they became interested in their research questions and system that they study. Each Data Nugget includes a real dataset for students to graph, interpret, and use to construct an explanation.

Scientist Mélanie Banville searching for reptiles in the Central Arizona-Phoenix LTER. Her and Heather Bateman’s Data Nugget, “Lizards, Iguanas, and Snakes! Oh My!”

LTER Data Nuggets

The collaboration between Data Nuggets and the LTER is a mutually beneficial fit. LTER scientists help strengthen the Data Nuggets project by increasing the diversity of data and research available to students. In turn, Data Nuggets provide an avenue for LTER scientists to share their work and findings with a broad audience of students, teachers, and fellow scientists. Sharing research findings with the non-science public is an important part of the science process, yet is often one of the most challenging to achieve. With broader impacts a factor in most grants, finding effective methods of communication and transmission is key. Researchers who create Data Nuggets must dig deep to uncover the core messages of their research and think back to the big question that got them passionate about the research in the first place. Also, by creating a Data Nugget and practicing communicating research to a 6th grader, scientists can rest assured that at their next conference they’ll be better able to discuss their work with collaborators and those outside their field!

Researcher Sam Bond taking Sediment Elevation Table measurements in Plum Island Ecosystems Long Term Ecological Research site. For more information on this research, check out Anne Giblin’s Data Nugget, “Keeping Up With the Sea Level”.

Most importantly, a great outcome of using LTER data to create Data Nuggets is that teachers and students will directly benefit from additional resources that highlight the importance of data and science in an authentic context. Activities aiming to improve quantitative skills are more effective if they’re grounded in real world situations that students can relate to. Connecting science to a student’s experiences and local ecosystems makes the content more accessible, particularly for culturally and linguistically diverse students. These connections also allow students to envision a place for themselves in science. To assist with place-based learning, each Data Nugget is categorized and searchable by the location where the study occurred, allowing teachers to connect data to their students’ environment. In this way, LTER Data Nuggets have the potential to increase interest and engagement with science and data, in both students and the public.

Robert Buchsbaum, from Mass Audubon, preparing his team for a morning of salt marsh bird surveys. Find out more about his research on the endangered Saltmarsh Sparrow in his Data Nugget, “Does Sea Level Rise Harm Saltmarsh Sparrows?”

Working with LTER Scientists and Educators

This past summer (2015), we received support from the LTER Summer Fellowship program. This support allowed us to continue our work with Data Nuggets, and to strengthen their connection to the vast stores of data available through the LTER, including the KBS site and the other 24 sites in the LTER Network. While the LTER Network has conducted over three decades of amazing research, spanning diverse ecosystems and taxa, LTER education and outreach specialists are still finding creative new ways to share this important research with the public. Data Nuggets can breath new life into long-term

datasets, opening them up to the public and future scientists. These funds were used to support training workshops at the LTER All Scientists Meeting (ASM) in Estes Park, CO in August and at KBS in July. These two workshops supported early and late career scientists (graduate students, postdocs, faculty, and REUs) and many LTER education and outreach specialists looking to broaden the impact of the LTER’s research and improve their communication skills. In addition, at the LTER ASM we participated in a poster session to reach out to those who were unable to attend our workshop. Our outreach efforts strengthened the connection between Data Nuggets and the LTER, and resulted in the creation of nine (and counting!) new Data Nuggets based on LTER research. Additionally, in August, we spoke to the teachers working with the KBS K-12 Partnership, connecting them with the LTER Data Nuggets and the vast pool of LTER data, freely available online.

When reflecting back on this summer, it was so great to work with a diversity of LTER scientists across the network. We enjoyed learning new science stories and are very happy to now include coastal, urban riparian, and other ecosystems in the Data Nuggets collection. Please feel free to contact Melissa or Elizabeth if you would like more information or to get started creating your own Data Nugget! For a list of all the Data Nuggets created by LTER scientists and outreach leaders, click here!

3.25.16

Keeping up with the sea level

A view of salt marsh hay (Spartina patens) growing in a marsh

The activities are as follows:

Salt marshes are ecosystems that occur along much of the coast of New England in the United States. Salt marshes are very important – they serve as habitat for many species, are a safer breeding location for many fish, absorb nutrients from fertilizer and sewage coming from land and prevent them from entering the ocean, and protect the coast from erosion during storms.

Unfortunately, rising sea levels are threatening these important ecosystems. Sea level is the elevation of the ocean water surface compared to the elevation of the soil surface. Two processes are causing sea levels to rise. First, as our world gets warmer, ocean waters are getting warmer too. When water warms, it also expands. This expansion causes ocean water to take up more space and it will continue to creep higher and higher onto the surrounding coastal land. Second, freshwater frozen in ice on land, such as glaciers in Antarctica, is now melting and running into the oceans. Along the New England coast, sea levels have risen by 0.26 cm a year for the last 80 years, and by 0.4 cm a year for the last 20 years. Because marshes are such important habitats, scientists want to know whether they can keep up with sea level rise.

Researcher Sam Bond taking Sediment Elevation Table (SET) measurements in the marsh

When exploring the marsh, Anne, a scientist at the Plum Island Ecosystems Long Term Ecological Research site, noticed that the salt marsh appeared to be changing over time. One species of plant, salt marsh cordgrass (Spartina alterniflora), appeared to be increasing in some areas. At the same time, some areas with another species of plant, salt marsh hay (Spartina patens), appeared to be dying back. Each of these species of plants is growing in the soil on the marsh floor and needs to keep its leaves above the surface of the water. As sea levels rise, the elevation of the marsh soil must rise as well so the plants have ground high enough to keep them above sea level. Basically, it is like a race between the marsh floor and sea level to see who can stay on top!

Anne and her colleges measured how fast marsh soil elevation was changing near both species of plants. They set up monitoring points in the marsh using a device called the Sediment Elevation Table (SET). SET is a pole set deep in the marsh that does not move or change in elevation. On top of this pole there is an arm with measuring rods that record the height of the marsh surface. The SETs were set up in 2 sites where there is salt marsh cordgrass and 2 sites where there is salt marsh hay. Anne has been taking these measurements for more than a decade. If the marsh surface is rising at the same rate as the sea, perhaps these marshes will continue to do well in the future.

Featured scientist: Anne Giblin from the Marine Biological Laboratory and the Plum Island Ecosystems Long-Term Ecological Research site

Flesch–Kincaid Reading Grade Level = 9.1

Additional resources related to this Data Nugget:

New research on salt marshes in Massachusetts finds they may actually thrive despite higher water levels. How is this possible? The answer has to do with sediment. Share this article with students after they complete the Data Nuggets activity, discussing research led by Brian Yellen.

3.18.16

Does sea level rise harm Saltmarsh Sparrows?

Painting of the saltmarsh sparrow

The activities are as follows:

For the last 100 years, sea levels around the globe have increased dramatically. The cause of sea level rise has been investigated and debated. Data from around the world supports the hypothesis that increasing sea levels are a result of climate change caused by the burning of fossil fuels. As we warm the Earth, the oceans get warmer and polar ice caps melt. The dramatic increase in sea level that results could seriously threaten ecosystems and the land that humans have developed along the coast.

Salt marshes are plains of grass that grow along the east coast of the United States and many coasts worldwide. Salt marshes grow right at sea level and are therefore very sensitive to sea level rise. In Boston Harbor, Massachusetts, the NOAA (National Oceanic and Atmospheric Administration) Tide Gauge has measured a 21mm rise in sea level over the last 8 years. That means every year sea level has gone up an average of 2.6mm since 2008 – more than two and a half times faster than before we started burning fossil fuels! Because sea level is going up at such a fast rate, Robert, a scientist in Boston, became concerned for the local salt marsh habitats near his home. Robert was curious about what will happen to species that depend on Boston’s Plum Island Sound salt marshes when sea levels continue to rise.

Robert preparing his team for a morning of salt marsh bird surveys.

Robert decided to look at species that are very sensitive to changes in the salt marsh. When these sensitive species are present, they indicate the marsh is healthy. When these species are no longer found in the salt marsh, there might be something wrong. The Saltmarsh Sparrow is one of the few bird species that builds its nests in the salt marsh, and is totally dependent on this habitat. Saltmarsh Sparrows rely completely on salt marshes for feeding and nesting, and therefore their numbers are expected to decline as sea levels rise and they lose nesting sites. Robert heard that scientists studying Connecticut marshes reported the nests of these sparrows have been flooded in recent years. He wanted to know if the sparrows in Massachusetts were also losing their nests because of high sea levels.

For the past two decades Robert has kept track of salt marsh breeding birds at Plum Island Sound. In his surveys since 2006, Robert counted the number of Saltmarsh Sparrows in a given area. He did these surveys in June when birds are most likely to be breeding. He used the “point count” method – standing at a center point he measured out a 100 meter circle around him. Then, for 10 minutes, he counted how many and what kinds of birds he saw or heard within and just outside the circle. Each year he set up six count circles and performed counts three times in June each year at each circle. Robert also used sea level data from Boston Harbor that he can relate to the data from his bird surveys. He predicted that sea levels would be rising in Plum Island Sound and Saltmarsh Sparrow populations would be falling over time.

Featured scientist: Robert Buchsbaum from Mass Audubon. Written by: Wendy Castagna, Daniel Gesin, Mike McCarthy, and Laura Johnson

Flesch–Kincaid Reading Grade Level = 9.5

Additional teacher resources related to this Data Nugget include:

A PDF of the 2014 overview report on the Saltmarsh Habitat and Avian Research Program (SHARP) for the east coast marshes from Maine down to Maryland, which includes Massachusetts. The report may be helpful for students as they come up with other research questions.
A blog by SHARP, covering a wide diversity of salt marsh research!
Data from the Plum Island Sound LTER project.
Data from NOAA tide gauges in Boston Harbor. This dataset expands on that found in Table 1. Students can explore long-term data for Boston Harbor, or can explore other areas for independent research.
For more Boston Harbor tide information, or to look up tides in their area, students can also explore Tideschart.

3.11.16

CSI: Crime Solving Insects

Scientist Paula catching blow flies in the field using an insect net.

Scientist Parker catching blow flies in the field using an insect net.

The activities are as follows:

Most people think that maggots are gross, but they are important decomposers in many ecosystems. Without maggots and other decomposers, we would all trip over the bodies of dead organisms every time we went outside! Not only do maggots break down dead animal bodies in nature, but they also decompose human bodies!

Forensic entomology is a science that uses these amazing insects to help the criminal justice system. Maggots are the larvae of blow flies. Remember the next time you swat away a fly, these little insects help police solve crimes! Adult blow flies are usually the first to arrive at a crime scene with a dead body. The blow flies lay their eggs, or oviposit, shortly after their arrival. These eggs hatch and become maggots that feed on the body. Scientists can use the age of the maggot to help estimate how long someone has been dead. The longer a body has been dead, the longer ago the eggs hatched and the older the maggot larvae will be.

Kristi and Parker, two forensic entomologists, were in the field one day, documenting the timing of blow fly oviposition. They noticed something unexpected! There were wasps stuck in the traps they were using to catch blow flies. The scientists wondered if these wasps can affect a blow fly’s decision to oviposit because wasps attack adult blow flies and also eat their eggs. Kristi and Parker knew that blow flies have an incredible sense of smell and sight. They wondered if blow flies are able to use their senses to detect if a wasp is near a body and then choose to avoid the area or delay laying their eggs. The scientists predicted that blow flies should delay their oviposition when wasps were present near a body. If wasps indeed cause blow flies to delay oviposition, this could change how scientist’s use maggot age to determine how long ago a body died.

Control bait cup with a large number of blow flies on the chicken liver

To test their hypothesis, the scientists did 10 trials in the field. They used bait cups that contained chicken liver to simulate a dead human body. A total of 9 bait cups were used in each of the 10 trials, for a total of 90 cups. Of the 9 cups used in each trial, three contained only chicken liver, to represent a body with no wasps present. These cups were used as controls. Three cups contained chicken liver and a wasp pinned to the side of the bait cup so that there was a visual cue of the wasp. The final three cups had a crushed wasp sprinkled over chicken liver to see if blow flies could use a smell cue to tell that a wasp was present without seeing them. Kristi and Parker checked the cups every half hour for the presence of blow fly eggs. If they saw any eggs, they recorded the time of oviposition in hours after sunrise. They then brought the maggots to the lab and raised them to the third larval stage and identified them to species.

Featured scientists: Kristi Bugajski and Parker Stoller from Valparaiso University

Flesch–Kincaid Reading Grade Level = 7.6

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1.20.16

Survey for teachers using Data Nuggets!

You are invited to participate in this online survey about whether you are using Data Nuggets in your classroom, and if so, what students have gained from using this educational resource. The survey will take approximately 10-20 minutes to complete. This survey is anonymous and voluntary; your personal information will not be attached to your responses. At the end of the survey you will be asked about your interest in the classroom-based research study we will conduct in 2017. If you indicate that you are interested in the classroom-based study we will use your email address to provide you with more information about that study.

The findings from this survey will be used to:

Inform future development of Data Nuggets
Design research to test the efficacy of Data Nuggets in improving students’ scientific and quantitative literacy

Click here to begin the survey!

Please complete the survey by February 1^st. Should you have any questions about the study or the procedures, you may contact Molly Stuhlsatz at mstuhlsatz@bscs.org.

1.12.16

What do trees know about rain?

A cypress pine, or Callitris columellaris. This species is able to survive in Australia’s dry climates.

The activities are as follows:

Did you know that Australia is the driest inhabited continent in the world? Because it is so dry, we need to be able to predict how often and how much rain will fall. Predictions about future droughts help farmers care for their crops, cities plan their water use, and scientists better understand how ecosystems will change. The typical climate of arid northwest Australia consists of long drought periods with a few very wet years sprinkled in. Scientists predict that climate change will cause these cycles to become more extreme – droughts will become longer and periods of rain will become wetter. When variability is the norm, how can scientists tell if the climate is changing and droughts and rain events today are more intense than what we’ve seen in the past?

To make rainfall predictions for the future, scientists need data on past rainfall. However, humans have only recorded rainfall in Australia for the past 100 years. Because climate changes slowly and goes through long-term cycles, scientists need very long term datasets of rainfall.

Scientist Alison coring a cypress pine

The answer to this challenge comes from trees! Using dendrochronology, the study of tree rings, scientists get a window back in time. Many tree species add a ring to their trunks every year. The width of this ring varies from year to year depending on how much water is available. If it rains a lot in a year, the tree grows relatively fast and ends up with a wide tree ring. If there isn’t much rain in a year, the tree doesn’t grow much and the ring is narrow. We can compare the width of rings from recent years to the known rain data humans have collected. Then, assuming the same forces that determine tree ring width are operating today as in the past, we can go back and interpret how much rain fell in years where we have no recorded rainfall data. This indirect information from tree rings is known as a proxy, and helps us infer data about past climates.

For this study, the scientists used cypress-pine, or Callitris columellaris. This species is able to survive in Australia’s dry climates and is long lived enough to provide data far back in time. Fortunately, scientists don’t have to cut down the trees to see their rings. Instead, they use a corer – a hollow metal drill with the diameter of a straw. They drill it through the tree all the way to its core, and extract a sample of the tissue that shows all the tree rings. The scientists took 40 cores from 27 different cypress-pine trees. The oldest trees in the sample were more than 200 years old. Next, they developed a chronology where they lined up ring widths from one tree with all the other trees, wide with wide and narrow with narrow. This chronology gives them many replicate samples, and data going back all the way to the 19th century! Next, they used a dataset of rainfall from rain gauges that have been set out in Australia since 1910. They then take this precipitation data and overlay it with the tree ring widths since 1910. For tree rings before 1910, they then project back in time using a rainfall formula.

These videos, demonstrating the science of dendrochronology, could be a great way to spark class discussions:

Featured scientist: Alison O’Donnell from University of Western Australia

Flesch–Kincaid Reading Grade Level = 8.0

This Data Nugget was adapted from a primary literature activity developed by Science Journal For Kids. For a more detailed version of this lesson plan, including a supplemental reading, videos, and extension activities, visit their website and register for free!

There is one scientific paper associated with the data in this Data Nugget. The citation and PDF of the paper is below.

O’Donnell, A.J., E.R. Cook, J.G. Palmer, C.S.M. Turney, G.F.M. Page, and P.F. Grierson (2015). Tree Rings Show Recent High Summer-Autumn Precipitation in Northwest Australia Is Unprecedented within the Last Two Centuries. PLoS ONE 10(6) e0128533.
The same paper, written at a middle/high school reading level by Science Journal for Kids, can be found here.

Growth rings from a Callitirs tree.

12.21.15

The Flight of the Stalk-Eyed Fly

Variation between stalk-eyed fly species in eyestalk length.

The activities are as follows:

Stalk-eyed flies are insects with eyes located on the ends of long projections on the sides of their head, called eyestalks. Male stalk-eyed flies have longer eyestalks than females, and this plays an important role in the flies’ mating patterns. Female stalk-eyed flies prefer to mate with males with longer eyestalks. In this way, the eyestalks are much like the bright and colorful peacock’s tail. This kind of sexual selection can lead to the evolution of longer and longer eyestalks over generations. But do these long eyestalks come at a cost? For example, longer eyestalks could make it more difficult to turn quickly when flying. As with all flies, stalk-eyed flies do not fly in a straight line all the time, and often zigzag in air. If long eyestalks make quick turns more difficult, we might expect there to be a trade-off between attracting mates and flight.

Moment of inertia (I) is defined as an object’s tendency to resist rotation – in other words how difficult it is to make something turn. An object is more difficult to turn (has a higher moment of inertia) when it is more massive, and when it is further from its axis of rotation. Imagine trying to swing around quickly holding a gallon of water – this is difficult because the water has a lot of mass. Now imagine trying to swing around holding a baseball bat with a jug of water attached to the end. This will be even more difficult, because the mass is further away from the axis of rotation (your body). Now lets bring that back to the stalk-eyed fly. The baseball bat now represents the eyestalk of the fly, while the gallon of water represents the eye at the end of the stalk. We can express the relationship between the mass of the object (m = mass of the eye), its distance from the axis of rotation (R = length of eyestalk), and the moment of inertia (I) using the following equation: I = mR².

Because moment of inertia goes up with the square of the distance from the axis, we might expect that as the length of the flies’ eyestalks goes up, the harder and harder it will be for the fly to maneuver during flight. If this is the case, we would predict that male stalk-eyed flies would make slower turns compared to similar sized female flies with shorter eyestalks.

Differences in male and female eyestalk length.

To address this idea, scientists measured the effect of eyestalk length on the moment of inertia of the body needs. In addition, they measured differences in turning performance during flight. Scientists Gal and John tracked free flight trajectories of female and male stalk-eyed flies in a large flight chamber. Because female and male stalk-eyed flies have large differences in eyestalk length, their flight performance can be compared to determine the effects of eyestalk length on flight. However, other traits may differ between males and females, so body size and wing length measurements were also taken. If increased moment of inertia does limit turning performance as expected, the male flies that have significantly longer eyestalks should demonstrate slower and less tight turns, indicating a decrease in free flight performance. If there is no difference in turning performance between males and females with significantly different eyestalk lengths, then males must have a way to compensate for the higher moment of inertia.

Featured scientists: Gal Ribak from Tel-Aviv University, Israel and John Swallow from University of Colorado, Denver. Written by: Brooke Ravanelli from Denver Public School, Zoё Buck Bracey from BSCS, and John Swallow.

Flesch–Kincaid Reading Grade Level = 9.0

Once your students have completed this Data Nugget, there is an extension lab activity where students can conduct their own experiment testing moment of inertia. Students simulate the flying experience of stalk-eyed flies and go through an obstacle course carrying their eyestalks with them as they maneuver through the cones to the finish line. To access this lab, click here!

Video showing how the long eyestalks of males form!

11.5.15

Data Nugget Workshop at NABT 2015: A Tail of Two Scorpions

You can get the slides from our NABT talk here: A Tail of Two Scorpions

11.3.15

Lizards, iguanas, and snakes! Oh my!

The Common Side-blotched Lizard

The activities are as follows:

Throughout history people have settled mainly along rivers and streams. Easy access to water provides resources to support many people living in one area. In the United States today, people have settled along 70% of rivers.

Today, rivers are very different from what they were like before people settled near them. The land surrounding these rivers, called riparian habitats, has been transformed into land for farming, businesses, or housing for people. This urbanization has caused the loss of green spaces that provide valuable services, such as water filtration, species diversity, and a connection to nature for people living in cities. Today, people are trying to restore green spaces along the river to bring back these services. Restoration of disturbed riparian habitats will hopefully bring back native species and all the other benefits these habitats provide.

Scientist Mélanie searching for reptiles in the Central Arizona-Phoenix LTER.

Scientists Heather and Mélanie are researchers with the Central Arizona-Phoenix Long-Term Ecological Research (CAP LTER) project. They want to know how restoration will affect animals living near rivers. They are particularly interested in reptiles, such as lizards. Reptiles play important roles in riparian habitats. Reptiles help energy flow and nutrient cycling. This means that if reptiles live in restored riparian habitats, they could increase the long-term health of those habitats. Reptiles can also offer clues about the condition of an ecosystem. Areas where reptiles are found are usually in better condition than areas where reptiles do not live.

Heather and Mélanie wanted to look at how disturbances in riparian habitats affected reptiles. They wanted to know if reptile abundance (number of individuals) and diversity (number of species) would be different in areas that were more developed. Some reptile species may be sensitive to urbanization, but if these habitats are restored their diversity and abundance might increase or return to pre-urbanization levels. The scientists collected data along the Salt River in Arizona. They had three sites: 1) a non-urban site, 2) an urban disturbed site, and 3) an urban rehabilitated site. They counted reptiles that they saw during a survey. At each site, they searched 21 plots that were 10 meters wide and 20 meters long. The sites were located along 7 transects, or paths measured out to collect data. Transects were laid out along the riparian habitat of the stream and there were 3 plots per transect. Each plot was surveyed 5 times. They searched for animals on the ground, under rocks, and in trees and shrubs.

Featured scientists: Heather Bateman and Mélanie Banville from Arizona State University. Written by Monica Elser from Arizona State University.

Flesch–Kincaid Reading Grade Level = 9.8

Check out this video of Heather and her lab out in the field collecting lizards:

Virtual field trip to the Salt River biodiversity project:

Additional resources related to this Data Nugget:

For more background on the importance of biodiversity, students can eat this article in The Guardian – What is biodiversity and why does it matter to us?

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10.21.15

Data Nuggets are Golden: MSU Awarded $1 Million Grant to Study Science Education Project

Article originally published on MSU Today. Link to original posting can be found here.

“Data Nuggets rock, and now we can investigate how and why,” said Louise Mead, education director of the BEACON Center for the Study of Evolution in Action, a National Science Foundation funded center headquartered at Michigan State University.

MSU received a $1.1 million grant from the NSF to research the effectiveness of Data Nuggets, a science education project co-designed by MSU scientists and teachers. Data Nuggets are educational activities that bring real scientific data into the classroom, giving students practice interpreting quantitative information and making claims based on evidence. MSU will collaborate in this research with the Biological Sciences Curriculum Study, a non-profit curriculum study committed to transforming science teaching and learning.

“This is what teachers are asking for and it’s well aligned with the next generation of science practices,” said Mead, an evolutionary biologist, researcher and educator. “K-12 teachers see their students struggling in quantitative reasoning skills and science, and they’re looking for new and innovative approaches in the classroom.”

Developed in 2011 at MSU’s Kellogg Biological Station, Data Nuggets are used to engage K-12 students in the practices of science by challenging them to answer a scientific question using data to support their claim. The questions and data are from real research, provided by scientists and presented in a way that is accessible for K-12 classrooms. Students are guided through the construction of graphs to aid data interpretation during the modules, which are offered in a range of scientific research themes, from animal behavior to ecology to agriculture.

“I am so thrilled to see the excitement surrounding Data Nuggets whenever we present them to teachers and scientists,” said Elizabeth Schultheis, who along with fellow postdoctoral researcher Melissa Kjelvik developed Data Nuggets. “And as a scientist I am looking forward to collecting data on Data Nuggets to see if they do what we predict they’ll do.”

The new NSF grant will allow research examining whether short, targeted interventions of classroom activities embedded within a typical curriculum can impact student outcomes. The results could provide teachers with information about supplementing their current lesson plans with classroom activities like Data Nuggets, specifically targeted at improving students’ understanding of science.

“The big picture is that the U.S. is falling behind in math and science, and this might give us a chance to help both teachers and students,” Mead said. “Data Nuggets gives these students a step up, so that when they go to college they’ve already analyzed data and formed hypotheses.”

By providing students with access to authentic science and data, Data Nuggets hopes to bridge the gap between scientists and the public. Scientists who create Data Nuggets lessons will be able to share the process of science and research findings with students and teachers, and help to improve the understanding of science in society.

“Because Data Nuggets originated from a partnership of teachers and scientists, they address both the needs of scientists to share their research broadly and improve their communication skills, and of teachers who need resources that address science reform and teach science in an authentic way,” Schultheis said.