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  1. Arsenic cycle (Biogeochemical cycle 🔄)

    The arsenic cycle is the biogeochemical cycle of natural and anthropogenic exchanges of arsenic terms through the atmosphere, lithosphere, pedosphere, hydrosphere, and biosphere. Although arsenic is naturally abundant in the Earth's crust, long-term exposure and high concentrations of arsenic can be detrimental to human health.

    en.wikipedia.org/wiki/Arsenic_

    #ArsenicCycle #Arsenic #BiogeochemicalCycle

  2. Arsenic cycle (Biogeochemical cycle 🔄)

    The arsenic cycle is the biogeochemical cycle of natural and anthropogenic exchanges of arsenic terms through the atmosphere, lithosphere, pedosphere, hydrosphere, and biosphere. Although arsenic is naturally abundant in the Earth's crust, long-term exposure and high concentrations of arsenic can be detrimental to human health.

    en.wikipedia.org/wiki/Arsenic_

    #ArsenicCycle #Arsenic #BiogeochemicalCycle

  3. Zinc cycle (Biogeochemical cycle 🔄)

    The zinc cycle is a biogeochemical cycle that transports zinc through the lithosphere, hydrosphere, and biosphere.

    en.wikipedia.org/wiki/Zinc_cyc

    #ZincCycle #Zinc #BiogeochemicalCycle

  4. Zinc cycle (Biogeochemical cycle 🔄)

    The zinc cycle is a biogeochemical cycle that transports zinc through the lithosphere, hydrosphere, and biosphere.

    en.wikipedia.org/wiki/Zinc_cyc

    #ZincCycle #Zinc #BiogeochemicalCycle

  5. Forest floor (Biogeochemical cycle 🔄)

    The forest floor, also called detritus or duff, is the part of a forest ecosystem that mediates between the living, aboveground portion of the forest and the mineral soil, principally composed of dead and decaying plant matter such as rotting wood and shed leaves. In some countries, like Canada, forest floor refers to L, F and H organic hori...

    en.wikipedia.org/wiki/Forest_f

    #ForestFloor #Leaves #SoilBiology #ForestEcology #BiogeochemicalCycle

  6. Forest floor (Biogeochemical cycle 🔄)

    The forest floor, also called detritus or duff, is the part of a forest ecosystem that mediates between the living, aboveground portion of the forest and the mineral soil, principally composed of dead and decaying plant matter such as rotting wood and shed leaves. In some countries, like Canada, forest floor refers to L, F and H organic hori...

    en.wikipedia.org/wiki/Forest_f

    #ForestFloor #Leaves #SoilBiology #ForestEcology #BiogeochemicalCycle

  7. Fluorine cycle (Biogeochemical cycle 🔄)

    The fluorine cycle is the series of biogeochemical processes through which fluorine moves through the lithosphere, hydrosphere, atmosphere, and biosphere. Fluorine originates from the Earth's crust, and its cycling between various sources and sinks is modulated by a variety of natural and anthropogenic processes.

    en.wikipedia.org/wiki/Fluorine

    #FluorineCycle #Fluorine #BiogeochemicalCycle

  8. Chemical cycling (Planetary science 🪐)

    Chemical cycling describes systems of repeated circulation of chemicals between other compounds, states and materials, and back to their original state, that occurs in space, and on many objects in space including the Earth. Active chemical cycling is known to occur in stars, many planets and natural satellites. Chemical cycling plays a...

    en.wikipedia.org/wiki/Chemical

    #ChemicalCycling #Geochemistry #PlanetaryScience #BiogeochemicalCycle

  9. Lead cycle (Biogeochemical cycle 🔄)

    The lead cycle is the biogeochemical cycle of lead through the atmosphere, lithosphere, biosphere, and hydrosphere, which has been influenced by anthropogenic activities.

    en.wikipedia.org/wiki/Lead_cyc

    #LeadCycle #Lead #BiogeochemicalCycle

  10. Potassium cycle (Biogeochemical cycle 🔄)

    The potassium cycle is the biogeochemical cycle that describes the movement of potassium throughout the Earth's lithosphere, biosphere, atmosphere, and hydrosphere.

    en.wikipedia.org/wiki/Potassiu

    #PotassiumCycle #Potassium #SoilScience #BiogeochemicalCycle

  11. Actinorhizal plant (Biogeochemical cycle 🔄)

    Actinorhizal plants are a group of angiosperms characterized by their ability to form a symbiosis with the nitrogen fixing actinomycetota Frankia. This association leads to the formation of nitrogen-fixing root nodules. Actinorhizal plants are distributed within three clades, and are characterized by nitrogen f...

    en.wikipedia.org/wiki/Actinorh

    #ActinorhizalPlant #Nitrogen #Symbiosis #SoilBiology #NitrogenCycle #BiogeochemicalCycle

  12. Chlorine cycle (Biogeochemical cycle 🔄)

    The chlorine cycle is the biogeochemical cycling of chlorine through the atmosphere, hydrosphere, biosphere, and lithosphere. Chlorine is most commonly found as inorganic chloride ions, or a number of chlorinated organic forms. Over 5,000 biologically produced chlorinated organics have been identified. The cycling of chlorine into the atmosphere and creation of...

    en.wikipedia.org/wiki/Chlorine

    #ChlorineCycle #Chlorine #BiogeochemicalCycle

  13. Chemical cycling (Biogeochemical cycle 🔄)

    Chemical cycling describes systems of repeated circulation of chemicals between other compounds, states and materials, and back to their original state, that occurs in space, and on many objects in space including the Earth. Active chemical cycling is known to occur in stars, many planets and natural satellites. Chemical cycling play...

    en.wikipedia.org/wiki/Chemical

    #ChemicalCycling #Geochemistry #PlanetaryScience #BiogeochemicalCycle

  14. Ferrallitisation (Biogeochemical cycle 🔄)

    Ferrallitisation is the process in which rock is changed into a soil consisting of clay and sesquioxides, in the form of hydrated oxides of iron and aluminium. In humid tropical areas, with consistently high temperatures and rainfall for all or most of the year, chemical weathering rapidly breaks down the rock. This a...

    en.wikipedia.org/wiki/Ferralli

    #Ferrallitisation #SoilScience #LandManagement #NaturalResources #BiogeochemicalCycle

  15. Fluorine cycle (Biogeochemical cycle 🔄)

    The fluorine cycle is the series of biogeochemical processes through which fluorine moves through the lithosphere, hydrosphere, atmosphere, and biosphere. Fluorine originates from the Earth’s crust, and its cycling between various sources and sinks is modulated by a variety of natural and anthropogenic processes.

    en.wikipedia.org/wiki/Fluorine

    #FluorineCycle #Fluorine #BiogeochemicalCycle

  16. Actinorhizal plant (Biogeochemical cycle 🔄)

    Actinorhizal plants are a group of angiosperms characterized by their ability to form a symbiosis with the nitrogen fixing actinomycetota Frankia. This association leads to the formation of nitrogen-fixing root nodules. Actinorhizal plants are distributed within three clades, and are characterized by nitrogen f...

    en.wikipedia.org/wiki/Actinorh

    #ActinorhizalPlant #Nitrogen #Symbiosis #SoilBiology #NitrogenCycle #BiogeochemicalCycle

  17. Ozone–oxygen cycle (Biogeochemical cycle 🔄)

    The ozone–oxygen cycle is the process by which ozone is continually regenerated in Earth's stratosphere, converting ultraviolet radiation into heat. In 1930 Sydney Chapman resolved the chemistry involved. The process is commonly called the Chapman cycle by atmospheric scientists. Most of the ozone production occurs...

    en.wikipedia.org/wiki/Ozone–ox

    #OzoneOxygenCycle #Oxygen #OzoneDepletion #BiogeochemicalCycle #AtmosphericChemistry

  18. Cadmium cycle (Biogeochemical cycle 🔄)

    The cadmium cycle is a biogeochemical cycle of dispersion and deposition of cadmium through the atmosphere, biosphere, pedosphere, and hydrosphere. Cadmium typically exists in the environment with an oxidation state of +2 but can be found with an oxidation state of +1.

    en.wikipedia.org/wiki/Cadmium_

    #CadmiumCycle #Cadmium #BiogeochemicalCycle

  19. Mercury cycle (Biogeochemical cycle 🔄)

    The mercury cycle is a biogeochemical cycle influenced by natural and anthropogenic processes that transform mercury through multiple chemical forms and environments. Mercury is present in the Earth's crust and in various forms on the Earth's surface. It can be elemental, inorganic, or organic. Mercury exists in three oxidation states: 0, I, and II. Mercury emissi...

    en.wikipedia.org/wiki/Mercury_

    #MercuryCycle #Mercury #BiogeochemicalCycle

  20. Lithium cycle (Biogeochemical cycle 🔄)

    The lithium cycle is the biogeochemical cycle of lithium through the lithosphere and hydrosphere.

    en.wikipedia.org/wiki/Lithium_

    #LithiumCycle #Lithium #BiogeochemicalCycle

  21. Boron cycle (Biogeochemical cycle 🔄)

    The boron cycle is the biogeochemical cycle of boron through the atmosphere, lithosphere, biosphere, and hydrosphere.

    en.wikipedia.org/wiki/Boron_cy

    #BoronCycle #Boron #BiogeochemicalCycle

  22. Cadmium cycle (Biogeochemical cycle 🔄)

    The cadmium cycle is a biogeochemical cycle of dispersion and deposition of cadmium through the atmosphere, biosphere, pedosphere, and hydrosphere. Cadmium typically exists in the environment with an oxidation state of +2 but can be found with an oxidation state of +1.

    en.wikipedia.org/wiki/Cadmium_

    #CadmiumCycle #Cadmium #BiogeochemicalCycle

  23. Gold cycle (Biogeochemical cycle 🔄)

    The gold cycle is the biogeochemical cycling of gold through the lithosphere, hydrosphere, atmosphere, and biosphere. Gold is a noble transition metal that is highly mobile in the environment and subject to biogeochemical cycling, driven largely by microorganisms. Gold undergoes processes of solubilization, stabilization, bioreduction, biomineralization, aggregation, and ligan...

    en.wikipedia.org/wiki/Gold_cyc

    #GoldCycle #Gold #BiogeochemicalCycle

  24. Zinc cycle (Biogeochemical cycle 🔄)

    The zinc cycle is a biogeochemical cycle that transports zinc through the lithosphere, hydrosphere, and biosphere.

    en.wikipedia.org/wiki/Zinc_cyc

    #ZincCycle #Zinc #BiogeochemicalCycle

  25. Actinorhizal plant (Biogeochemical cycle 🔄)

    Actinorhizal plants are a group of angiosperms characterized by their ability to form a symbiosis with the nitrogen fixing actinomycetota Frankia. This association leads to the formation of nitrogen-fixing root nodules. Actinorhizal plants are distributed within three clades, and are characterized by nitrogen f...

    en.wikipedia.org/wiki/Actinorh

    #ActinorhizalPlant #Nitrogen #Symbiosis #SoilBiology #NitrogenCycle #BiogeochemicalCycle

  26. Chlorine cycle (Biogeochemical cycle 🔄)

    The chlorine cycle is the biogeochemical cycling of chlorine through the atmosphere, hydrosphere, biosphere, and lithosphere. Chlorine is most commonly found as inorganic chloride ions, or a number of chlorinated organic forms. Over 5,000 biologically produced chlorinated organics have been identified. The cycling of chlorine into the atmosphere and creation of...

    en.wikipedia.org/wiki/Chlorine

    #ChlorineCycle #Chlorine #BiogeochemicalCycle

  27. Nitrogen cycle (Biogeography 🌍)

    The nitrogen cycle is the biogeochemical cycle by which nitrogen is converted into multiple chemical forms as it circulates among atmospheric, terrestrial, and marine ecosystems. The conversion of nitrogen can be carried out through both biological and physical processes. Important processes in the nitrogen cycle include fixation,...

    en.wikipedia.org/wiki/Nitrogen

    #NitrogenCycle #Nitrogen #Metabolism #SoilBiology #Biogeography #BiogeochemicalCycle

  28. Fluorine cycle (Biogeochemical cycle 🔄)

    The fluorine cycle is the series of biogeochemical processes through which fluorine moves through the lithosphere, hydrosphere, atmosphere, and biosphere. Fluorine originates from the Earth’s crust, and its cycling between various sources and sinks is modulated by a variety of natural and anthropogenic processes.

    en.wikipedia.org/wiki/Fluorine

    #FluorineCycle #Fluorine #BiogeochemicalCycle

  29. Oxygen cycle (Biogeochemical cycle 🔄)

    Oxygen cycle refers to the movement of oxygen through the atmosphere, biosphere and the lithosphere. The oxygen cycle demonstrates how free oxygen is made available in each of these regions, as well as how it is used. The oxygen cycle is the biogeochemical cycle of oxygen atoms between different oxidation states in ions, o...

    en.wikipedia.org/wiki/Oxygen_c

    #OxygenCycle #Oxygen #Ecology #Photosynthesis #BiogeochemicalCycle #ChemicalOceanography

  30. Boron cycle (Biogeochemical cycle 🔄)

    The boron cycle is the biogeochemical cycle of boron through the atmosphere, lithosphere, biosphere, and hydrosphere.

    en.wikipedia.org/wiki/Boron_cy

    #BoronCycle #Boron #BiogeochemicalCycle

  31. Episode 2.8 is now available on #YouTube!

    Have you ever thought about how dinosaurs lived on a warm, swampy Earth and how we live on one that’s cold enough to keep pretty much the entirety of Greenland and Antarctica buried under kilometers-thick sheets of solid ice and wondered, hmm, how did we get from there to here? The short answer is that it took 50 million years of declining atmospheric carbon dioxide concentrations and dropping temperatures, not to mention building an ice sheet or two. For the longer story of the last 50 million years of climate change, including some of the reasons why, catch this episode of our podcast with Dr De La Rocha! You’ll hear about plate tectonics and continental drift, silicate weathering, carbonate sedimentation, and the spectacular effects the growth of Earth’s ice sheets have had on Earth’s climate. There are also lessons here for where anthropogenic global warming is going and whether or not its effects have permanently disrupted the climate system. Fun fact: the total amount of climate change between 50 million years ago and now dwarfs what we’re driving by burning fossil fuels, and yet, what we’re doing is more terrifying, in that it’s unfolding millions of times faster.

    Bonus content: If you want to see sketches and plots of the data discussed in this episode, you can do so at our website here: www.solarpunkpresents.com/50-million-years-of-climate-change

    !!Nerd alert!! If you're interested in the primary scientific literature on the subject, these four papers are a great place to start:
    -Dutkiewicz et al (2019) Sequestration and subduction of deep-sea carbonate in the global ocean since the Early Cretaceous. Geology 47:91-94.
    -Müller et al (2022) Evolution of Earth’s plate tectonic conveyor belt. Nature 605:629–639.
    -Rae et al (2021) Atmospheric CO2 over the last 66 million years from marine archives. Annual Review of Earth and Planetary Sciences 49:609-641.
    -Westerfeld et al (2020) An astronomically dated record of Earth’s climate and its predictability over the last 66 million years. Science 369: 1383–1387.

    youtu.be/R6ToIZQzsC4

    #solarpunk #ClimateScience #biogeochemicalcycle #ClimateChange #ContinentalDrift #GlobalWarming #EnvironmentalHistory #Archaeology @academicchatter #CarbonDioxideConcentrations #CarbonateSedimentation

  32. Sulfur cycle (Biogeochemical cycle 🔄)

    The important sulfur cycle is a biogeochemical cycle in which the sulfur moves between rocks, waterways and living systems. It is important in geology as it affects many minerals and in life because sulfur is an essential element, being a constituent of many proteins and cofactors, and sulfur compounds can be used as oxidants or ...

    en.wikipedia.org/wiki/Sulfur_c

    #SulfurCycle #Sulfur #Metabolism #SoilBiology #SoilChemistry #BiogeochemicalCycle

  33. Silica cycle (Biogeochemical cycle 🔄)

    The silica cycle is the biogeochemical cycle in which biogenic silica is transported between the Earth's systems. Silicon is considered a bioessential element and is one of the most abundant elements on Earth. The silica cycle has significant overlap with the carbon cycle and plays an important role in the sequestration of carbon through continental weathering, bioge...

    en.wikipedia.org/wiki/Silica_c

    #SilicaCycle #Silicon #BiogeochemicalCycle