3. Study Site and Organism:a) What is the name of the study area? Where is it located? (3 pts)b) For which species are you studying population dynamics? Include both the common name and the species name. (2 pts)c) IN YOUR OWN WORDS, briefly describe the life cycle of the organism. (5 pts)4. Briefly explain why you are using a simulation model for these experiments. (6 pts)5. Simulation Model Parameters (Hint: all of these parameters are described in the SimBio workbook, but you should answer these questions IN YOUR OWN WORDS):a) What are the two types of habitat included in the model? What is the main difference between these two types of habitats? Hint: Habitat TYPEis not the same as configuration/restoration method. (3 pts)b) Why do butterflies head towards an area? Away from an area? (2 pts)c) IN YOUR OWN WORDS, describe turning probability and leave probability. (4 pts)d) Under what conditions do butterflies reproduce in the model, and how many offspring do they have? (4 pts)e) Under what conditions do butterflies die in the model? (3 pts)5. Briefly describe any limitations of your simulation model. (6 pts)Research Question 1: Which habitat restoration method improves the population size and stability of Fenders blue butterflies?6. Is there a control for this experiment? If so, what is the control? (2 pts)7. Describe the three types of habitat restoration methods that you are testing. (9 pts)8. Draw a diagram of the three types of habitat restoration methods. You may use a photo of a diagram that you drew on a piece of paper or create an image in a program like Microsoft Word, Google Documents, PowerPoint, or Adobe Illustrator. Do NOT screenshot the SimBio virtual lab workspace. Include a figure legend below the diagram. (15 pts)9. Experimental Design Parameters:a) How many total hectares did you use for the habitat restoration methods? (1 pt)b) How many weeks was the simulation model run for? How many runs per automation? (2 pts)c) How many replicates were run for each habitat configuration? What is your total sample size? Hint: Total sample size is the number of groupsx the number of replicates per group. Remember that your whole class is one research group, and you are writing the report based on your research groups data collection, not just your own individual data points. (2 pts)Research Question 2: Does habitat restoration improve population size and stability during prescribed burns?10. Is there a control for this experiment? If so, what is the control? (2 pts)11. Which habitat restoration method are you testing for efficacy against prescribed burns? (1 pt)12. Briefly explain what periodic fire disturbance looks like in the simulation model and how often it occurs. (3 pts)13. Experimental Design Parameters:a) How many total hectares did you use for the habitat restoration method? (1 pt)b) How many weeks was the simulation model run for? How many runs per automation? (2 pts)c) How many replicates were run for each habitat configuration? What is your total sample size? (2 pts)*here is reading of a book*Methods and Data Collection: Patchy PrairiesA population is a set of individuals of the same species living in a given region or habitat. Ecologists employ a variety of methods to study the structure of populations, including simulation models. Due to cost and time, scientists are not always able to perform long-term, large-scale monitoring projects on animal and plant populations. However, they can perform smaller field and laboratory experiments that inform our knowledge of the organisms natural history, behavior, and ecology. Based on our previous knowledge, scientists can create rules for how a system should function. When the model runs, it simulates how the system functions. By changing variables within these rules, scientists can predict how populations, communities, ecosystems, and more may function under different conditions.Example: If we were modelling whether an animal population in South Florida can recover after a hurricane, we would want to include rules on how often hurricanes affect the area, the population size before the hurricane, the survival probability of different age classes in that animal population, what happens to the animals food source after the hurricane, what happens to the animals reproduction (e.g., number of offspring), etc. The model would take this information and simulate whether the animal population would decline, stay the same or increase.In this weeks lab, you will use SimBios Patchy Prairies module to simulate an experiment in population ecology. Your TA will guide you through basic concepts required to understand the experiment and will help you collect your own individual data for the write-up. Takes notes throughout the lab class on your experimental methods, which will help you complete this weeks assignment that focuses on drafting the Methods section of your write-up.Background: Patchy PrairiesDownload SimBio to your desktop. Open the application and go to Ecology, then Patchy Prairies. Launch the module and download the workbook. Read the following REQUIRED passages from the workbook. (Your TA will quiz you on information and concepts covered in the required passages.)Introduction: pages 1-2Ecological knowledge included in the simulation model: page 5Exercise 4 Connections: page 18You are welcome to play with the simulations in the virtual lab, but you are not required to complete any of the workbook exercises before class. Your TA will be going over the modelling and simulations specific to this course during class time.Island BiogeographyIn 1963, MacArthur and Wilson proposed a model of island biogeography to explain the number of species on an island. The number of species depends on the probability of colonization (animals and plants arriving from another island or the mainland) and the probability of extinction (animals and plants die without being replaced), which in turn depends on how close the island is to the mainland (or another island) and the size of the island. Animals and plants from the mainland are more likely to colonize an island if it is close by than far away. Larger islands can also support more colonizing animals and plants because there is more room and more diverse habitats. Smaller islands have less available habitat and less available resources, so animals and plants have a more difficult time surviving (i.e., higher extinction rate). Additionally, small populations are at a higher risk of extinction due to random events. Thus, the model predicts that islands that are large and close to a mainland will have more species than an island that is small and far away from the mainland.Patches of prairie within a non-prairie environmental landscapes can be thought of as islands. In conservation, whether a population survives or goes extinct depends on the size of the island (patch) and how close the island (patch) is to another patch. In this weeks virtual lab, you will see how habitat patches can follow island biogeography theory. Based on this theory, consider: Will patches that are closer together or further apart have higher butterfly population sizes? Will patches that are smaller or larger have higher butterfly population sizes?ExperimentRiver Ridges Preserve is a preserve in the Willamette Valley of Oregon with patches of native prairie habitat that support Kincaids Lupine plant and Fenders Blue Butterfly populations. A conservation group called the Rivers to Ridges Partnership was recently granted a large swatch of land from a developer to connect the River Ridges Reserve patches. River Ridges Reserve has invited you to model three possible conservation strategies (patch enlargement, corridors, and stepping stones). You will assess which of these habitat restoration configurations would increase the size (and thus the stability) of the Fenders butterfly population compared to their current reserve set-up.The reserve has a problem with invasive plant species, so they are investigating past use of fire suppression techniques to maintain native prairie habitat. Fire management wants to begin using periodic prescribed burns to restore natural prairie habitat. Based on work with other species, they claim that the best habitat conservation strategy is stepping stones. You will assess whether stepping stones will be effective in maintaining or improving the size and stability of Fenders Blue Butterfly populations during prescribed burns.ReferencesMacArthur, R.H. and E.O. Wilson. 1963. An equilibrium theory of insular zoogeography. Evolution 17(4):373-387.SimBio Virtual Labs. 2019. Workbook: Patchy Prairies.