PPT-Biogeochemical Cycles Chapter 3.5-3.6

AP Environmental Science Overview What is nutrient cycling Hydrological Cycle Carbon Cycle Nitrogen Cycle Phosphorous Cycle Sulfur Cycle Nutrient Cycling Driven directly or indirectly by solar energy and gravity. cycles. The study and characterization of protists has a long and distinguished tradition. Even with this history, the extraordinary species diversity and vari - ety of interactions of protists in By : Fatima Delgado . Today we will learn how to create cycles on blender. Lets begin . ……..”. Hi . Cycles . First: . . go to blender-window.. . Group . Members: Martina . Ederer, April Ann . Fong, Sarah . Gerken. , . Mary . Oswald. , . Alison Rodal, . and Michael . Gillespie.  . Course Context. Majors . Biology . course (with other STEMs). Student Background: High School Biology. 5. Brief history of climate: causes and mechanisms. Climate . system dynamics and . modelling Hugues Goosse. Chapter 5 Page . 2. Outline. . Investigation of the . role of . the external . Miller chapters 3 & 4, 18. th. Ed.. Day 1. Goals. Students complete virtual owl pellet lab. Students can explain owls’ role in a food web. Students can define. Producer, consumer, decomposer. Students can draw: food web, food chain. Biogeochemical Cycle. : the cycling of chemical elements required by life between the living and nonliving parts of the environment. Some examples of these chemical elements are H2O, P, S, N2, O2 and C. . What are these?. These are the cyclic pathways through which chemical elements move from the environment to organisms and back to the environment.. Such movements are essential for the maintaining of life, so are also called . Energy Flow through the Ecosystem. Ms. McCabe. SC.912.L.17.9, SC.912.E.7.1, SC.912.P.10.1 (Honors. ). Do Now 9/29-30/15. Examine the following food web. . Assume there was . a “weasel disease” that wiped out all male weasels. . Objectives:. Identify and describe the flow of nutrients in each biogeochemical cycle. . Explain the impact that humans have on the biogeochemical cycles. .. What happens to energy in an ecosystem?. Goosse. , . Hugues. , 2015: . Climate System Dynamics and Modelling. , (Cambridge University Press, Cambridge, UK), 378 pp.. Chapter 5 Page . 2. Reconstructing past climates. Dating methods. Annual layer counting.. William H. Schlesinger. Millbrook, New York. 1. Some basic stoichiometry for life―in biomass. . . First articulated by Liebig (1840). and later advanced by Redfield (1958), Reiners (1986), . Sterner and . &. Fluctuations. Section I. Business Cycles & Fluctuations. Business cycles . are largely systematic ups and downs of real GDP. Business fluctuations . is the rise and fall of real GDP over time in a nonsystematic manner.. Energy vs. Matter. Energy flows throughout an ecosystem in ONE . direction. from the sun to autotrophs to heterotrophs. Matter is recycled. WHY? . Biogeochemical Cycles. “Matter can cycle through ecosystems because organisms don’t USE it, they TRANSFORM it.”. Including:. Biological use of each nutrient. Processes in the ecosystem that effect its availability. A diagram of the cycle. Nitrogen- 2 pages. Carbon- 2 pages. Phosphorus- 1 page. Magnesium- 1 page.