Aug 152013
 

1024px-Winter_playground

Photo Credit: Benson Kua

The causes and consequenses of soil temperature in the winter is an important concept to understand. Human management activities in agriculture and conservation can have large impacts on soil temperature. In return, soil temperature has important impacts on the ecology of differnt ecosystem. The causes of soil temperature changes in the winter can easily be studied in the schoolyard. Students will explore the soil and air temperature in different habitats around the schoolyard that may be affected by different ecosystem properties, such as plant, litter or snow cover and human built structures. The patterns in soil temperature are then related to the consequences for the ecosystem around the school and extensions are made to consequences for fields and forests.

At the conclusion of this lesson, students will be able to:

  • Take measurements of soil and air temperature
  • Distinguish between temperature in Celsius and Fahrenheit
  • Make keen observations of areas in the schoolyard that have warm and cold soil temperature as well as warm and cold air temperature
  • Connect soil temperature with the habitat/snow cover/plant cover
  • Identify ways in which humans have manipulated soil and air temperatures
  • Form hypotheses regarding how soil temperatures impact plant and animal life
  • Make connections between soil and air temperature

Resources:

Lesson Plan

Student worksheet

Lesson created by Brook Wilke

Aug 152013
 

Flickr_-_Nicholas_T_-_Cover_Crop

By Nicholas A. Tonelli from Pennsylvania, USA 

Winter cover crops are planted between harvested crops (Fall – Spring) and provide many benefits to agricultural fields including reduction in nitrate leaching, nitrogen fixation, increased organic matter, weed suppression and others. However, few farmers currently use winter cover crops. The objective of this lesson is to engage middle or high school students in active research that identifies winter cover crop species and phenotypes that would be beneficial for local farmers. Students sow several cover crop species / phenotypes in the fall, measure ground cover in early winter and make plant measurements (biomass, height, root characteristics) in May of the following year. Research results may be reported to local farmers as an educational activity.

At the conclusion of this lesson, students will be able to:

  • Engage in constructive agroecology research activities
  • Identify beneficial winter cover crop species or specific phenotypes of a species
  • Create an educational brochure to inform farmers of their findings

Resources:

Lesson Plan

Student worksheet

Lesson created by Brook Wilke

Aug 152013
 

Vuilnis

Waste generation in the U.S. is an enormous problem, as 230 million tons of trash is generated each year. Students must begin to learn about these issues because natural resource depletion and environmental degradation may directly affect their lives in the future. This lesson is designed to get students thinking about how to cut waste in their own lives. They will draw pictures of the Earth in 100 years under two different scenarios. They will also list some ways that the school and families at home can reduce waste, which will be posted in the school hallway. Students should come away from the lesson with a positive outlook, that waste generation can be significantly cut, which will benefit everyone in the world.

At the conclusion of this lesson, students will be able to:

  • Understand that an immense amount of waste is generated in the US
  • Identify ways that they can reduce consumption and reuse or recycle waste
  • Predict what will happen in 200 years if nothing is done to control consumption and waste generation
  • Know how to begin or enhance the recycling program at their school and homes

Resources:

Lesson Plan

Lesson created by Brook Wilke

Aug 152013
 

1024px-Schneeflocken_in_Deutschland_-_20100102

Water and snow do not have the same volume because snowflakes have air pockets trapped inside. When snow melts, the air pockets are released to the atmosphere. In addition, water in the solid form has roughly 9% more volume than in the liquid form because of the way the molecules are bonded together via hydrogen bonds. Therefore, when snow melts, the volume of the water is reduced as air molecules are released and hydrogen bonds are broken. In this activity, students investigate the volume relationship between snow and water, which changes depending on the weather conditions at the time of a snow event and the amount of time since the snow event. Students will use many skills learned regarding making measurements of volume to accomplish this activity, and will understand how much liquid water comes from the snow in one particular event.

At the conclusion of this lesson, students will be able to:

  • Identify the volume of snow as greater than the volume of ice
  • Calculate the volume ratio of snow:water
  • Understand that 1 milliliter of water weighs 1 gram
  • Understand the properties of snow and liquid water that cause changes in volume

Resource:

Lesson Plan

Student worksheet

Lesson created by Brook Wilke

Aug 152013
 

Earthworm

It is important that students learn the different components of habitats and the consequences of removing one or more of those components. This activity can allow empirical study of habitats in the classroom when weather conditions are unfavorable outdoors. This experiment gives earthworms a choice of two habitats and identifies which habitat they prefer. Students will learn that earthworms prefer habitats with high organic matter. Results from this study can then be used to predict where worms prefer to live in the schoolyard or across a landscape.

At the conclusion of this lesson, students will be able to:

  • Identify the habitats of familiar organisms and their needs for survival
  • Conduct an experiment to identify preferred habitats of organisms

Resources:

Lesson Plan

Lesson created by Brook Wilke

Aug 152013
 

Mikrofoto.de-volvox-8

Photo Credit: Frank Fox

Examination of water under a microscope uncovers a whole new world that is invisible to the standard human eye. In this activity, students examine the microscopic life in water from multiple sources to find out if there is life in them and if it is different between sources. Students draw pictures of what they see in microscopes and draw conclusions about what they found. Experts suggest that this activity is one of the best at stimulating a child’s interest in exploring the natural world.

At the conclusion of this lesson, students will be able to:

  • Identify microscopic organisms that are found in water
  • Differentiate between organisms found in different water sources (lakes, ponds, rivers, drinking, fish tank, etc…)

Resources:

Lesson Plan

Student worksheet

Phytoplankton guide

Lesson Created by Brook Wilke

Aug 152013
 

swmilc

Photo Credit: Southwest Michigan Land Conservancy

In 1980, 6% of Michigan’s landscape was covered by urban areas. Experts project that by 2040, 18% of the landscape will be developed into urban areas. This comes at a huge cost to natural landscapes including the ecosystem services they provide. In this activity, students will be divided up into groups that represent different landscapes including farmland, wetlands, forests, prairies and urban areas. Students in these groups will identify reasons and share arguments for protecting natural landscapes or developing areas for urban expansion. Students are allowed to debate the topic between groups and to come up with a reasonable solution to the problem of expanding urban development. Specific examples in the local community provide grounds to really understand how this plays out in the real world.

At the conclusion of this lesson, students will be able to:

  • Understand the reasons for protecting farmland, wetlands, prairies and forests from urban development
  • Identify reasons for expanding urban development
  • Develop an argument for an issue they are assigned to and debate with other students about why their perspective is correct

Resources:

Lesson Plan

Lesson created by Brook Wilke

Aug 152013
 

Berlin-_An_electricity_power_plant_smokestack_in_-_3982

Photo Credit: Jorge Royan

The United States Supreme Court is currently (December, 2006) debating the question, “Is carbon dioxide an atmospheric pollutant?” This lesson provides middle school students with an opportunity to learn about and discuss rising carbon dioxide levels in the atmosphere, which may drastically change their lives in the future. A panel discussion with two-three adults is used to engage students in a discussion about the Supreme Court case. Adults help to share as much information as possible about the issue with students to help them form their own – unbiased opinion on the matter.

At the conclusion of this lesson, students will be able to:

  • Define what carbon dioxide (CO2) is
  • State why concentration of CO2 is rising in the atmosphere
  • Understand how CO2 in the atmosphere will cause rapid climate change
  • Understand that rising CO2 increases growth among many plant species
  • Identify ways to remove CO2 from the atmosphere
  • Define air pollutant based on the definition set forth in the Clean Air Act
  • Use the data collected by science to make an educated argument regarding the question of, “Is CO2 an atmospheric pollutant?”
  • Identify ways that they can personally limit the amount of CO2 released to the atmosphere

Resources:

Lesson Plan

Article

Lesson created by Brook Wilke, 2006

Aug 152013
 

1024px-Spoonful_of_cereal

Many breakfast cereals are fortified with iron, which is essential for transport of oxygen in blood throughout human bodies. The iron is simply sprayed on the cereal and can be separated by physical processes. Students in this lesson use bar magnets to extract iron from crushed up breakfast cereals. Five different cereals are used for the experiment including those with different iron concentrations based on nutritional information. Iron extracted from each cereal type is weighed and compared to the other cereals and the nutritional information on the box.

At the conclusion of this lesson, students will be able to:

  • Extract iron from fortified breakfast cereal
  • Conduct an experiment to determine which cereals have the most iron
  • Separate a mixture of cereal and water into magnetic and non-magnetic categories

Resources:

Lesson Plan

Lesson created by Brook Wilke

Aug 152013
 

1024px-Erithacus_rubecula_-RHS_Garden_Harlow_Carr-8c

Photo Credit: Paul Tomlin

The ability to fly is a fascinating biological phenomenon. In this short activity, students will identify characteristics of birds that allow them to fly, and how these characteristics are different from other animals that cannot fly.Many of these characteristics are listed in this lesson for teacher use, including how bird wings are arc shaped, causing decreased air pressure above the wing compared to below.Students also will learn that not all birds are able to fly.

At the conclusion of this lesson, students will be able to:

  • Understand that gravity is a force that pulls objects toward the center of the Earth
  • Understand that not every bird can fly
  • Explain several reasons for why birds are able to fly and many other animals can not fly

Resources:

Lesson Plan

Bird and squirrel picture

Lesson created by Brook Wilke

Aug 102013
 

NRCSND07004_-_North_Dakota_(717306)(NRCS_Photo_Gallery).tif

In this activity, students explore the world of crop history in North America. They begin by choosing a crop species that was historically grown in the Americas, studying the history and ordering bulk amounts of seeds from an heirloom variety that has been around for many years. The students use the bulk seed to run a small- scale seed store where they repackage and sell seed for a profit. Students also examine the characteristics of the seed and use the schoolyard or classroom as a place to plant and examine the growth of the variety they have chosen. Plants may be maintained in the schoolyard or at students homes so that they can save seed to create a seed bank at the school.

At the conclusion of this lesson, students will be able to:

  • Provide a detailed history about a specific crop plant
  • Describe the differences between currently grown crop varieties and heirloom varieties that were maintained from past societies
  • Identify major crops that were domesticated in the United States
  • Identify the diversity of some crop and garden plants and understand the artificial selection/evolution process that allowed for that diversity
  • Conduct a small scale, student run seed business
  • Start and maintain garden plants indoors
  • Plant seeds and start plants in a garden outdoors
  • Create a seed bank at the school

Resources:

Lesson Plan

Student worksheet

Seed packet template

Teacher report

Lesson created by Brook Wilke

Aug 102013
 

1024px-Trichomes

Plants have small hairs on their leaves and stems called trichomes.These structures are important for defense from herbivory and protection from cold, heat and drought. Students will investigate leaf hairs of many different plants in the schoolyard using an inquiry based activity.Two hypotheses will be made,one about whether or not all plants have leaf hairs, and whether most plants are highly pubescent (hairy) or modestly pubescent.Leaves will be collected and classified into three categories.Students will create a data table and bar graph from their data and present this to the rest of the class.The teacher will conclude with some ideas about why plants have leaf hairs and try to stimulate future questions from the students about the topic.

At the conclusion of this lesson, students will be able to:

  • Conduct a basic scientific investigation to support predictions
  • Explain why plants are pubescent and have small hairs called trichomes
  • Explain that not all plants or leaves of the same plant have the same number or type of trichomes

Resources:

Lesson Plan

Lesson created by Brook Wilke

Aug 092013
 

2008-03-29_saved-rainforest-in-brazil1Photo Credit: SUNY JCC

Habitat fragmentation is visible all over Michigan. Roads, lawns, buildings, farmland, and other changes in habitat have turned our state, and most others, into a huge patchwork quilt of ecotypes. Unfortunately, the lines between those quilt squares and the small size of those patches has had a huge impact on the wildlife that call Michigan home. Come join us for a session of active games and prizes. You can really see what impacts fragmentation has by putting yourself in the shoes of the critters dealing with the changes we make. Weather permitting we will head outside for some fun, so come dressed for the chill in the air and be prepared to get active and have fun!

At the conclusion of this lesson, students will be able to:

  • Explain how habitat fragmentation can influence the survival and reproduction of two competing species
  • Describe the recent, 400 year history of land use change in the Great Lakes Region
  • Identify causes and consequences of land use change and habitat fragmentation
  • Understand why it is difficult for small populations to survive
  • Identify some key endangered species in Michigan

Resources:

Lesson Plan

Species cards

Game rules

Student datasheet/worksheet

Lesson created by Brook Wilke

Aug 092013
 

Coyotes-running-snow_-_West_Virginia_-_ForestWander

 

 

Students learn about a specific food chain (coyote-squirrel-acorn in this example, but can be any local food chain) in nature and that organisms can be classified as producers, herbivores or carnivores depending on their diet. A game will be played where students take on the role of different organisms in the food chain and act out different cycles.Experimental situations are played out in the game and are designed to help the students understand that there are more organisms lower than higher in the food chain.They will also learn the consequences of separately removing carnivores and plants from the food chain.

At the conclusion of this lesson, students will be able to:

  • Understand that energy flows naturally through a locally occurring food chain
  • Define the terms producer, herbivore and carnivore
  • Understand that there must be more individuals at the bottom of the food chain than at the top of the food chain
  • Understand the effects of removal of the top predator in a food chain
  • Understand the effects of reducing primary production (plant growth) in the food chain

Resources:

Lesson Plan

Food chain pictures

Lesson created by Brook Wilke

Aug 092013
 

Corn_on_the_cob

Photo Credit: Darwin Bell

Corn and soybeans cover 6% of the total land area in the United States and are grown on 15 times as much land as all fruits and vegetables combined.In this activity, students will take a walk out into a corn field to become more acquainted with this crop that is so common.Students will make calculations for the number of plants and ears of corn per acre and then estimate the total number of ears grown in the U.S.in 2002 based on USDA data.Students will be informed about the different types of corn available and that most of it is actually used for products other than human food. Finally, corn is a crop that requires high amounts of energy and nutrients to grow successfully, making it a crop that can potentially contribute to environmental pollution if managed poorly.

At the conclusion of this lesson, students will be able to:

  • Identify corn and soybeans as the major crops grown in the United States
  • Conduct an investigation on a local scale to make predictions at a larger scale
  • Identify corn plants as having only one ear per plant
  • Estimate the number of ears of corn grown in the US in a given year
  • Estimate the number of ears of corn per plant
  • Understand that almost all of the corn grown in the US is not eaten by humans, but is fed to animals or converted to useable products
  • Identify corn as a highly productive crop, but also one that requires a lot of energy to grow

Resources:

Lesson Plan

Lesson created by Brook Wilke

Aug 092013
 
Dill_Drops_(3749120575)
Photo Credit: Audrey from Central Pennsylvania, USA

Tracing matter in the gaseous form is difficult to teach and requires carefully planned activities. Plant growth is one way to teach students that most of the mass of the plant comes from somewhere other than the soil, but mostly in carbon dioxide and hydrogen atoms from water. To identify this, students will be planting seeds indoors, weighing the dry pot, soil and seed first and then the dry pot, soil and plant later. The total mass of the soil and pot will be nearly equal before and after the experiment. Students will also measure plant height throughout the experiment. Students will be able use the data from the experiment to make graphs and conclusions, which are important concepts for upper elementary students. After discovering that most of the plant mass does not come from the soil, it will be explained that carbon dioxide is the primary “food” for plants. Students will be assessed based on data collection, graphing and conclusion paragraphs.

At the conclusion of this lesson, students will be able to:

  • Recognize that gases have mass and can be used to make living plant tissue
  • Conduct an experiment to answer a scientific question using data collected
  • Successfully grow different plants in a classroom setting and take accurate measurements

Resources for this lesson include:

Lesson Plan

Lesson Plan created by Brook Wilke
Jul 272013
 
P6254405_2

Participants in the 2013 KBS K-12 Summer Institute

It was the last week of June and KBS was a hive of activity. The annual K-12 Summer Institute lasted just 3 days this year but was action packed. Sessions were conducted by the GK-12 fellows, both new and returning, and by the MSP research associates. Since the institute ran for just three days, we had a plenary session everyday!

Our first plenary speaker was Dr. Carolyn Malmstrom from the Dept. of Plant Biology at MSU. She spoke on the topic ‘It’s a small small world: Plant viruses and ecology’. She was a perfect fit for us since one of the questions she focuses on is ‘How do we preserve biodiversity and ecosystem services in working landscapes’? Sounds a bit familiar, right? Dr. Malmstrom started her talk by describing viruses as a ‘space capsule with a protein coat containing genomic nucleic acid’. She went on to describe the remarkable diversity in viruses – in their structure and genomic acids.

Viruses affect their hosts in many different ways. Some of them alter the host genome expression. By marking which part of the DNA should be transcribed they can change the expression without changing the DNA sequence. Virus infection also helps to augment the host genome. Plant viruses have been found to endogenize into insect genomes including that of mosquitoes and Monarch butterflies. Viruses also can alter an organism’s performance.

In our efforts to get viruses out of our food plants we have concentrated only on one part of the landscape, i.e. agriculture. In this bid we have taken our focus away from the big picture, we do not understand what is happening in the natural ecosystem. There are big ecological differences between agricultural systems and the natural ecosystem. It is important to understand how ecosystem diversity and stress in the natural ecosystems affect viruses. Before she concluded, Dr. Malmstrom left us with this different perspective: Viruses might actually be helping to bind the fabric of life and keep it supple.

Jake_water_level

Landscape protocol water levels are the best!

We had two sets of concurrent sessions on the first day. Following ‘tradition’ our returning fellows and their partner teachers conducted sessions based on the BEST plots. They did a commendable job of making the ever-so-familiar protocols new and exciting. Of course, the cool titles that they came up with had a fair bit to do with the excitement.

Dustin and his partner teachers, Becky and Liz, presented ‘Dirty deeds done dirt cheap’. As the topic suggests they explored the revised soil protocols. It should be noted too, that this session had an added attraction in the form of ‘dirt cup-cakes’.

Jake teamed up with Russ, Cheryl and Chris in ‘Uncovering the Legacy of our Landscapes’.  They put a new spin to the landscape protocols by introducing a historic perspective. The teachers did get to play with the now-famous water level, too.

In ‘Invertebrates, going above and beyond’ Cara, Sandy and Mary stepped beyond the standard invertebrate protocols. They encouraged the teachers to use the existing data to generate new questions and hypothesis.

Sara, Marty G. and Lisa dealt with the plant biodiversity and biomass protocols in their unambiguously titled session ‘BEST Plots: Plant Biodiversity and Biomass’. They attempted to explore the unexplored aspects of growing our fuel while keeping our flowers and butterflies too.

Three of our new fellows to got their feet wet the first day. Dani Fegan’s interests include community ecology, landscape ecology, and restoration ecology. She teamed up with Marty B. and presented ‘Bug Lyphe: A Next Generation linked observational study in biodiversity’.  They went out and trapped insects (using our BEST protocols of course), and used the data that they thus generated to compare biodiversity in natural and disturbed habitats.

Emily Dittmar is interested in adaption, specifically in the role that genes play in allowing populations to adapt. She, along with Jamie, conducted a session titled ‘Variety is the Spice of Life’. They used a variety of props including a deck of cards, dice and a game of musical chairs to introduce the basic logic behind Hardy-Weinberg Equilibrium.

Consider_natural_variation

Considering natural variation

Amanda Charbonneau comes to us with an interest in evolution and adaption of species to new environments. Along with Terri and Meredith, she lead the session ‘Survivor: Extreme Environments: How invasives outwit, outplay and outlast their competitors’. With the help of a short ‘variation walk’ they explored the need for variation in order for adaption to take place.

Jenny Dauer, representing the Carbon Strand of MSP, conducted the session ‘Keeling Curve-arama: understanding what is local versus generalizable about atmospheric carbon dioxide concentrations’. Her session discussed the reason why Keeling went to Mauna Loa to collect his data instead of just collecting it in his backyard. The teachers also got a chance to see the local differences in CO2 concentrations by measuring CO2 levels at different locations in the KBS property.

Dr. Catherine Lindell from the Dept of Zoology at MSU was our plenary speaker for Tuesday. She spoke on ‘Birds & their roles in ecosystems : Tropical Forests to Michigan’s food crops’.

Dr. Lindell stressed that the value of birds in a particular ecosystem depends on the use humans have assigned to that particular ecosystem. One of her study sites is in Costa Rica where there is massive habitat loss due to deforestation.  Efforts are now going on to try and restore these habitats. Birds are great helpers in this process. They not only serve as agents of seed dispersal but they also prey on herbivorous insects, and pollinate the flowers. Studies are going on to try and determine the optimum design for planting taking into consideration these seed dispersers and their needs.

On the other side of the coin birds in Michigan can prove to be pests, especially to fruit farmers. Birds cost farmers millions of dollars through fruit loss and management efforts. Dr. Lindell and researchers from several other institutions have teamed up to try and quantify this damage and test strategies to minimize the losses.

Larry_lamprey

Botanizing under the supervision of Larry the Lamprey

Following the plenary, instead of breaking into concurrent sessions as usual we had one more common session. Sara S., Cheryl and Nancy conducted a session on the Next Generation Science Standards. Their aim was, to quote Cheryl, ‘To comfort the afflicted and afflict the comfortable’!

They reminded us of the fact that the NGSS are written as performance expectations and they will require contextual application of the three dimensions by students. By conducting a simple polling exercise they tried to get teachers used to the idea of including more practises in their classrooms.

One set of concurrent sessions followed the lunch break. Two new fellows (assisted by their partner teachers) made their debut. Sarah Jones studies the biological causes of sex differences in aggression in spotted hyenas. Along with Sandy she explored this very topic in their session ‘Roid Rage: Just for Boys?’. They tried to analyze if there are differences in aggression among sexes, what causes them and how do we study and interpret them.

Full_of_excitement

Teachers excited for new sessions!

Susan Magnoli is motivated by a fascination with invasive plants. Marcia and Jodie joined her to talk about ‘Michigan’s Most Unwanted’. They guided the teachers in making and using a variety of keys to help students to identify invasive species. They also used several graphing activities that allow students to make their own inferences based on the data provided.

Jennifer Doherty, from the Biodiversity strand of MSP, attempted to present diversity in an evolutionary context in her session : ‘Unifying Life: Placing tree diversity in an evolutionary context’.  She presented three lesson plans. The first illustrated the importance of careful observations and precise language; the second used observed similarities and differences to organize species into larger groups; and the third lesson plan aimed at helping students understand that traits are a reflection of ancestry.

Before we concluded for the day, everybody met in the auditorium to get the latest update on the State of the BEST Plots and enjoy some snacks.

Our last plenary speaker was Dr. Maren Friesen from MSU’s Plant Biology Dept. Her topic was ‘Ecological genomics of salinity adaptations in model legume Medicago truncatula’. Her chosen study species Medicago truncatula serves as a genetic model for crop legumes. It is a diploid, annual selfing plant. In order to study the salinity adaptations in the legume, Dr. Friesen has conducted experiments with plants derived from saline and non-saline sites in Tunisia. She later carried whole genome sequencing for each of the 40 lines to locate candidate genes for local adaptations. As a result of her extensive research she has shown that rhizobia influence plant salt tolerance. Adaptation to salinity is not only due to the differences in the plants but due to the differences in the rhizobia present in the different plants.

Before we could draw the curtain on another wonderful summer institute, we participated in a ‘KBS Trivia’ game conducted by Kara Haas. It was a fun and candy filled finale of the KBS K-12 Partnership Summer Institute 2013. Thank you all for making it another great one!

~ By KBS volunteer extraordinaire, Joelyn de Lima.

Jul 252013
 
PastedGraphic-1

Former Fellows Kali Bird (center), Laren Kinsman-Costello (right), and K-12 partnership teacher Liz Ratashak (left) work together on a project in 2010.

Former GK-12 fellow Kali Bird continues to train teachers and bring exciting science to K-12 classrooms as an Education Program Specialist with the Cary Institute of Ecosystem Studies in Millbrook, New York.  During the 2010-2011 academic year, she partnered with Sandy Breightenbach of Plainwell High School, gaining experience and improving her ability to communicate science, while invigorating the classroom with inquiry-based lessons based on the latest scientific research. She says that “the experience of working with kids and teachers through the GK-12 program helped me to better understand the interests and needs of both; while the practice of presenting the process and insights of science to varied audiences improved my ability to communicate these effectively, meaningfully, and confidently.” Since January, she has been developing and updating data-driven curriculum focused on the Hudson River and its watershed.  Leaders of the Cary Institute’s education program include Dr. Alan Berkowitz, Head of Education, and Cornelia Harris, Education Program Leader, who are collaborators in the same Math Science Partnership in which many of our graduate students and partner teachers have participated.  Kali says she’s looking forward to this fall, when she will coordinate and teach a graduate-level course for local teachers about Hudson Valley invasive species, thanks to a recently awarded Maryland Sea Grant from the Mid-Atlantic Panel on Aquatic Invasive Species.

Jun 232013
 
Partnership_2013

2013 – 2014 GK-12 Fellows, Partner-Teachers, and Leadership pose at the Summer Institute Planning Days

This upcoming June 24-26 (Mon.-Weds.), KBS will again host the K-12 Partnership Summer Institute! We have a superb group of Partner-Teachers hailing from 11 of our SW Michigan partner districts,  5 brand new Fellows, and 4 returning Fellows. All have been hard at work, both developing new, exciting lessons to introduce at the institute and learning about each others’ roles as scientists and educators.

This year, the institue features three invited plenary speakers from Michigan State University: Drs. Carolyn Malmstrom, Catherine Lindell, and Maren Friesen, as well as a special seminar session on the Next Generation Science Standards with Nancy Karre (BCAMSC), Cheryl Hach (KAMSC), and Sara Syswerda (MSU, KBS). The full schedule, including abstracts of all concurrent sessions, can be found here.

If you plan to attend (and we hope you will!) please RSVP to Sara S. at parrsar1@msu.edu .

 

May 122013
 

Congratulations to former GK-12 Fellows Liz Schultheis and Nick Ballew for the following awards granted this spring: 

Liz received the 2012-2013 Fields Teaching Award from the MSU Department of Plant Biology. The award is given once annually to a Plant Biology graduate student, “recognizing originality in teaching methods and a recipient’s ability to generate enthusiasm about learning and to influence student attitudes and interests”.  

Liz_1Liz has honed her teaching and science communication skills over the last three years of service as a GK-12 Fellow. She is also beginning a second year of partnering with the BEACON Center for the Study of Evolution in Action. She has created and presented many lesson plans for K-12 students, hosted workshops for K-12 teachers, and attended local and national education conferences (GK-12 annual meeting, MSTA, NABT, ESA Life Discovery). She helped co-create Data Nuggets and is continuing to improve their format, create a new website, and host workshops helping other scientists create nuggets based on their own research, in collaboration with BEACON and GK-12. You can read her recent post about Data Nuggets on the BEACON website here.

Nick (GK-12 Fellow from Fall 2010 to Spring 2012) received two outstanding awards this spring. The MSU Zoology department awarded him the 2012-2013 Hensley Research Award. The Hensley award was established in 1995 to further the disciplines of zoological and biological science. The scholarship recognizes one outstanding undergraduate and graduate student each year that is pursuing education in vertebrate zoology with emphasis on field study. Nick studies how behavioral traits impact fitness at different life stages in largemouth bass. Specifically, he investigates the effects of behavioral traits on juvenile survival and adult reproductive success. He’s been actively researching this topic since 2008. Nick is also investigating the relationships between behavioral traits and vulnerability to being caught by fishing.

011 - CopyYou may wonder why Nick is interested in bass behavior. He says, “Largemouth bass are one of the nations most popular sportfish species. Recreational fishing has the potential to alter the fitness effects of different behavioral traits, which could cause the population to evolve in response to fishing pressure. Specifically, the population could evolve to become less vulnerable to fishing pressure, meaning it would be harder to catch fish. This could have negative impacts on the billion+ dollar a year bass fishing industry. Thus, my research could be important for fishery managers and policy makers.”

Nick also received funding for his NSF Doctoral Dissertation Improvement Grant (DDIG), titled “Fitness tradeoffs in animal personalities across life stages.”

Congratulations again to these fine Fellows!

 

 

Apr 172013
 

rfpThe above Call for Proposals is sponsored by Project GREEEN.

Originally known as the Plant Initiative, Project GREEEN is a collaborative effort by plant-based commodities and businesses in cooperation with AgBioResearch (formerly the Michigan Agricultural Experiment Station), MSU Extension, and the Michigan Department of Agriculture and Rural Development (MDARD) to advance Michigan’s economy through its plant-based agriculture. Its mission is to develop research and educational programs, ensure and improve food safety and protect and preserve the quality of the environment.

GREEEN

If you are curious where you can find Michigan native plants for your backyard or schoolyard, see:

Michigan Retail Sources of Native plants (.docx)

roots

Apr 172013
 

The inaugural MSU Science Festival kicked off this weekend in East Lansing and Fellow Anne Royer was featured as a presenter in this State News article. Anne ran a hands-on demonstration of “Darwin Builds Better Cars” all day Saturday and Sunday, in the Biomedical and Physical Sciences building on campus. Participants learned about evolutionary processes by first building Lego cars and testing their models on short tracks, then used online software (BoxCar2D) to optimize 2D car design on various types of terrain. Fellows Anne, Liz Schultheis, and Sara Garnett recently presented “Darwin Builds Better Cars” at the K-12 Partnership Workshop in March.

Apr 112013
 

IMAG0790After days of work in the field and lab collecting data on their BeSt biofuel plots, four classes at Lawton Community Schools – Ms. Angle’s 8th-graders and Ms. Visich’s Environmental Science class – finally got to enjoy the fruits of their labor.  As any scientist knows, no fruit is more satisfying than juicy, crunchable data.

We started this adventure by looking at what kinds of data we had.  This included the planting, fertilization, and harvesting treatments as well as the data we collected, from plant and insect biodiversity to soil characteristics.  Each student made his or her own hypothesis about why a pair of variables might be related.  Does fertilization increase insect abundance?  Does moisture increase plant biomass production?   Only one way to find out…

The students plotted their data by hand, then ventured into the computer lab to produce graphs and analyze the data with Excel.  Then they searched for published papers that supported or refuted their findings.  Finally, they presented their conclusions in class.  Among other findings, it turns out fertilization doesn’t affect insects, but moister plots did produce more plant matter.  Using the data across years and schools will make this even more exciting!

By GK-12 Fellow Anne Royer, 2013

Apr 112013
 

Tree_photo

Student will explore the idea of what ecosystem services are, focusing on the importance of plant’s root systems. A brief introduction to ecosystem services will be followed by an interactive demonstration illustrating a basic ecosystem service. Then students will have an opportunity to construct their own root systems and test out their designs to see how they fare in a heavy rain event. Finally, after conducting a month long experiment with different watering regimes, students will determine whether certain plants are more equipped to deal with drought and what makes them better. This is a highly interactive lesson that requires some preparation prior to implementation.

Objectives

At the conclusion of the lesson, students will be able to:

  • Understand how healthy ecosystems provide valuable services
  • Distinguish between four different categories of ecosystem services
  • Understand the specific role of roots in providing services
  • Understand the differences in root systems between many native and exotic plants
  • Demonstrate the role of root systems in drought resistance

Length of Lesson

Introductory presentation: 15 minutes

Soil erosion demo: 10 minutes

Root building competition: 20 minutes

Drought experiment: 20 minutes

Grade Levels

Grades 6-12

Resources:

Lesson Plan created by GK-12 Fellows Tyler Bassett, Dustin Kincaid, Jake Nalley, and Michael Kuczynski, 2013

Apr 102013
 

PSGRS MashUp

GK-12 fellows Tyler Bassett and Jake Nalley have been honing their public presentation skills all year in middle and high school classrooms. On March 29, they put those skills to good use by participating in the Plant Science Graduate Student Research Symposium that was hosted on Michigan State’s East Lansing campus.

Both presented on their individual research topics in front of a small crowd and judges. Tyler and Jake both research the many benefits that can come from diversity, a topic that should be familiar to students and teachers that have studied the BEST Plots. Tyler focused on how diversity may be a crucial factor in resisting invasive species in restored prairies. Jake spoke about how growing multiple species of algae together results in higher levels of biomass that can be converted into biodiesel fuel.

Tyler received third place in the Oral Presentations for Applied Research. Congratulations to Tyler!Biovolume_JN

invasive richness figure

Mar 292013
 

carEvolution

In this lesson, students explore how the basic principles of evolution can be used to produce a better vehicle using web-based software. The program, BoxCar2D, allows the user to observe evolution in action with cars in a virtual environment and design vehicles to move over a variety of 2- dimensional landscapes. The program utilizes the basic principles of biological evolution: mutation, reproduction with recombination, and selection (moving faster and farther = higher fitness).

Screen Shot 2013-03-29 at 1.41.51 PMObjectives

Through guided exploration of the dynamics of digital evolution in BoxCar2D, students will gain an understanding of the following concepts:

  • Evolution happens over generations in populations, not to an individual within its lifetime.
  • Mutations and recombination create variation.
  • Although much of the variation is not helpful, some of it is – this random variation allows evolution by natural selection to solve problems in novel and efficient ways
  • Evolutionary processes can be used to find innovative solutions to engineering problems

Length of Lesson

This lesson requires two one-hour class periods to complete. The first class period can be used to introduce the website www.boxcar2d.com and the principles of evolution by natural selection. The second class period can be used for independent student inquiry projects. Additional class periods could be added on if students were to present their findings to their classmates.

Resources:

Lesson Plan created by GK-12 Fellows Liz Schultheis, Anne Royer, and Sara Garnett, 2013

Mar 292013
 

bestIn the following lessons, we use questions generated for and data collected from the BEST (BioEnergy SusTainability) plots to have students make predictions, draw graphs, interpret data patterns, and support claims with evidence. Students play a fun and engaging game that helps them think about the biology involved in how plants grow or how invertebrates find food in their environment. The outcomes of the game help students make predictions. We also have four classroom activities, based on the Data Nugget model, that get students looking at real data, making graphs, and answering questions by making evidence based claims. These lessons focus on parts of the overarching scientific question for the BEST plots: “Can we grow our fuel and save our flowers and butterflies, too?”

3These lesson plans address the following questions:

  1. How do the kinds of plants we planted (switchgrass and prairie) affect how much plants grow (measured as biomass)?
  2. How does soil moisture affects biomass?
  3. How does biomass affect the diversity of invertebrates?
  4. How does the diversity of plants affect the diversity of invertebrates?

At the conclusion of the lesson, students will be able to:

  • Make predictions about outcomes of scientific experiments
  • Describe patterns in data and relationships between variables
  • Create graphs
  • Interpret graphical data
  • Use data as evidence to support claims

Length of Lesson: Two 45- to 60-min class periods, or more

  • One class period to discuss scientific question and game to generate predictions
  • 0.5-1 to complete the graph and data interpretation
  • Each additional activity will take 0.5-1 class period

Resources:

Activities:

These activities were created based on the Data Nuggets model, developed in 2011 by MSU fellows in the K-12 Partnership. To access Data Nuggets on a variety of topics, follow this link! BEST Plot lesson plan and activities written by GK-12 Fellows Cara Krieg, Alycia Lackey and Tomomi Suwa, 2013.

Mar 252013
 

Lake Mixing_1

Ever wonder why when you dive in a lake, there is a sudden drop in temperature? Russ Stolberg’s 8th grade Earth Science students have been discussing why we observe this phenomenon in our lakes and oceans. It all has to do with density! Cold water has a higher density than warmer water, and as solar radiation continually warms the surface of our lakes it makes this separation even more pronounced.  I [Jake] had the pleasure working with the students on an exciting lab simulating how waters can become Lake_Mixing_3layered, or stratified, and then simulate how this stratification can be broken down through natural processes.  Groups of students each got to work with their own pond (a clear plastic tub), which was heated by the sun (a heat lamp) and received warm wind via a blow dryer. We started with “Winter” conditions, where the entire water body was cold water.  As we moved into “Spring” and “Summer” the heat from the sun began warming the surface waters. Students recorded the temperature of the water at several depths to observe how the temperatures changed over a 30-minute period. Students witnessed how the warm waters sat on top of the cold waters with a distinct separation of the cold and warm water forming, or what is called a thermocline. Then as “Autumn” approached the winds picked up, blow dryers were set to High, and the aid of a blue crystal dye, we were able to visualize a lake turnover event as the warm, dyed water from the surface was forced to the bottom of the lake via strong winds. Students recorded the temperature of the different depths one final time, observing that the thermocline that had formed had disappeared through the mixing event. Lake_Mixing_2Below is a copy of the lab protocol. Any follow-up questions can be directed to Jake at nalleyja@msu.edu.

By GK-12 Fellow Jakob Nalley, 2013

Mar 132013
 

 Purple Loosestrife 11

On March 8th, Dave Williams (GK-12 partner teacher and RET) and Liz Schultheis (GK-12 fellow) presented at the Michigan Science Teachers Association Conference (MSTA). Dave developed this lesson while working as an RET in Jen Lau’s lab, where graduate student Liz studies the role of enemies in plant invasions. The lesson covers invasive species in Michigan (like purple loosestrife and garlic mustard), and guides students through collecting data to test the Enemy Release Hypothesis – which posits that invasive species escape from natural enemies in their invasive range, contributing to their success. In this lesson, students develop predictions, design experimental sampling methods, collect data, and create graphs for data interpretation. Participants were also introduced to Data Nuggets – activities where students can practice making claims based on scientific data.

Lesson and other materials available via these links:

For any additional information about the lesson, or the Enemy Release Hypothesis, please contact Dave (dwilliams@lawtoncs.org) or Liz (schulth5@msu.edu).

Mar 112013
 

Beacon__teacherworkshop_summer13

Whether you’re new to inquiry learning in your classroom, or you’re looking for new projects to spice up your curriculum, this workshop is for you! Come enjoy an intensive week of field and lab exploration, working with scientists and educators. Participants will experience five days of cutting edge research, while creating lessons that will work in the classroom and with the Next Generation Science Standards.

 Lessons cover a diverse set of topics, including ecological field research, mathematical modeling, evolution, and computer simulations. Not only will participants come away with new research ideas, but more importantly, an increased comfort with the process of real science – including the unexpected and exciting new results that come from scientific inquiry!

Room and board at Kellogg Biological Station paid by the BEACON Center for the Study of Evolution in Action at Michigan State University. Travel costs paid by participants. Limited to the first 20 applicants.

Dates: June 28 – July 3, 2013

Cost: FREE – food, housing, and teaching materials covered by BEACON. Participant must pay for travel costs to the Kellogg Biological Station in Hickory Corners, MI

Website to register: http://beacon-center.org/teacherworkshop