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the claim
The thermohaline circulation is affected by the Coriolis effect
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INSUFFICIENT LEANING
refutedsupported
the weight of evidence
6 sources for · 0 against
AS REPORTEDno primary record reached; this is what the reporting says

The retrieved evidence discusses the Coriolis effect regarding surface currents and general ocean dynamics, and separately defines thermohaline circulation as being driven by density differences, but none of the items provide full coverage linking the thermohaline circulation directly to the Coriolis effect.

Evidence for · 6
cited by 0
One important part of this is understanding ocean currents. There are two main types of currents: surface currents and deep currents. Surface currents are mostly driven by winds and the Coriolis effect, which is caused by Earth’s rotation. Famous surface currents include the Gulf Stream in the Atlantic Ocean and the Kuroshio Current in the Pacific Ocean. These currents move warm water from the equator toward the poles, helping to warm places like Europe by bringing heat from tropical regions.[50][51] Deep ocean currents, on the other hand, are powered by differences in water density. These differences happen because of changes in temperature and salinity (how salty the water is). This system of deep-water movement is called thermohaline circulation. It is also known as the global conveyor belt because it slowly moves water all around the world. These deep currents bring cold, nutrient-rich water from the poles into the deeper parts of the ocean, which helps store carbon and support the nutrient cycle that feeds marine life.[52][53][54] Ocean waves are mostly formed by the wind blowing across the surface of the water. Geology is broadly the study of Earth's structure, substance, and processes. Geology is largely the study of the lithosphere, or Earth's surface, including the Earth's crust and rocks. It includes the physical characteristics and processes that occur in the lithosphere as well as how they are affected by geothermal energy. It incorporates aspects of chemistry, physics, and biology as elements of geology interact. Historical geology is the application of geology to interpret Earth history and how it has changed over time. Geochemistry studies the chemical components and processes of the Earth. Geophysics studies the physical properties of the Earth. Paleontology studies fossilized biological material in the lithosphere. Planetary geology studies geoscience as it pertains to extraterrestrial bodies. Geomorphology studies the origin of landscapes. Structural geology studies the deformation of rocks to produce mountains and lowlands. Resource geology studies how energy resources can be obtained from minerals. Environmental geology studies how pollution and contaminants affect soil and rock. Mineralogy is the study of minerals and includes the study of mineral formation, crystal structure, hazards associated with minerals, and the physical and chemical properties of minerals. Petrology is the study of rocks, including the formation and composition of rocks. Petrophysics is the physical and chemical properties of rocks. Petrography is a branch of petrology that studies the typology and classification of rocks. Atmospheric science initially developed in the late-19th century as a means to forecast the weather through meteorology, the study of weather. Atmospheric chemistry was developed in the 20th century to measure air pollution and expanded in the 1970s in response to acid rain. Climatology studies the climate and climate change. The troposphere, stratosphere, mesosphere, thermosphere, and exosphere are the five layers which make up Earth's atmosphere. Seventy-five percent of the mass in the atmosphere is located within the troposphere, the lowest layer. In all, the atmosphere is made up of about 78.0% nitrogen, 20.9% oxygen, and 0.92% argon, and small amounts of other gases including CO2 and water vapor. Water vapor and CO2 cause the Earth's atmosphere to catch and hold the Sun's energy through the greenhouse effect. This makes Earth's surface warm enough for liquid water and life. In addition to trapping heat, the atmosphere also protects living organisms by shielding the Earth's surface from cosmic rays. The magnetic field—created by the internal motions of the core—produces the magnetosphere which protects Earth's atmosphere from the solar wind. As the Earth is 4.5 billion years old, it would have lost its atmosphere by now if there was no protective magnetosphere. Hydrology is the study of the hydrosphere and the movement of water on Earth. It emphasizes the study of how humans use and interact with freshwater supplies. Study of water's movement is closely related to geomorphology and other branches of Earth science. Applied hydrology involves engineering to maintain aquatic environments and distribute water supplies. Subdisciplines of hydrology include oceanography, hydrogeology, ecohydrology, and glaciology. Oceanography is the study of oceans. Hydrogeology is the study of groundwater. It includes the mapping of groundwater supplies and the analysis of groundwater contaminants. Applied hydrogeology seeks to prevent contamination of groundwater and mineral springs and make it available as drinking water. The earliest exploitation of groundwater resources dates back to 3000 BC, and hydrogeology as a science was developed by hydrologists beginning in the 17th century. Ecohydrology is the study of ecological systems in the hydrosphere. It can be divided into the physical study of aquatic ecosystems and the biological study of aquatic organisms. Ecohydrology includes the effects that organisms and aquatic ecosystems have on one another as well as how these ecosystems are affected by humans. Glaciology is the study of the cryosphere, including glaciers and coverage of the Earth by ice and snow. Concerns of glaciology include access to glacial freshwater, mitigation of glacial hazards, obtaining resources that exist beneath frozen land, and addressing the effects of climate change on the cryosphere. Physical geography is the study of Earth's systems and how they interact with one another as part of a single self-contained system. It incorporates astronomy, mathematical geography, meteorology, climatology, geology, geomorphology, biology, biogeography, pedology, and soils geography. Physical geography is distinct from human geography, which studies the human populations on Earth, though it does include human effects on the environment.
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rails:sufficiency:partial_only:for=0+4p:against=0+0p | v55:multi_partial_one_side:lean=lean_partial:for:one_sided

More for · 5
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which the pressure gradient force is balanced by the Coriolis effect Halothermal circulation – The part of the large-scale ocean circulation that is driven The following outline is provided as an overview of and introduction to Oceanography. Oceanography (from Ancient Greek ὠκεανός (ōkeanós) 'ocean' and γραφή (graphḗ) 'writing'), also known as oceanology, sea science, ocean science, and marine science, is the scientific study of the ocean, including its physics, chemistry, biology, and geology. It is an Earth science, which covers a wide range o Atmospheric circulation – The large-scale movement of air, a process which distributes thermal energy about the Earth's surface Baroclinity – A measure of misalignment between the gradient of pressure and the gradient of density in a fluid Boundary current – Ocean current with dynamics determined by the presence of a coastline Coriolis force – Inertial force that acts on objects in motion relative to a rotating reference frame Coriolis–Stokes force – A forcing of the mean flow in a rotating fluid due to interaction of the Coriolis effect and wave-induced Stokes drift Craik–Leibovich vortex force – A forcing of the mean flow through wave–current interaction Downwelling – The process of accumulation and sinking of higher density material beneath lower density material Drift seed – Seeds and fruits adapted for long-distance dispersal by water Eddy – The swirling of a fluid and the reverse current created when the fluid is in a turbulent flow regime Ekman layer – The layer in a fluid where there is a force balance between pressure gradient force, Coriolis force and turbulent drag Ekman spiral – A structure of currents or winds near a horizontal boundary in which the flow direction rotates as one moves away from the boundary Ekman transport – Net transport of surface water perpendicular to wind direction Front (oceanography) – A boundary between two distinct water masses Geostrophic current – An oceanic flow in which the pressure gradient force is balanced by the Coriolis effect Halothermal circulation – The part of the large-scale ocean circulation that is driven by global density gradients created by surface heat and evaporation Hydrothermal circulation – Circulation of water driven by heat exchange Langmuir circulation – A series of shallow, slow, counter-rotating vortices at the ocean's surface aligned with the wind Longshore drift – Sediment moved by the longshore current Retroflect – The movement of an ocean current that doubles back on itself Rip current – Narrow current of water which moves directly away from the shore, cutting through the lines of breaking waves Rogue wave – Relatively large and spontaneous ocean surface waves that occur at sea Shutdown of…
2003 · cited by 0
bottom to sense water depth. Its accuracy is affected by the variability of the speed of sound through … a. P waves are produced by the earthquake and S waves are produced by the aftershocks. b. Both travel … seawater that determine its density. The thermohaline circulation caused by the sinking of cold, salty, dense
2005 · cited by 0
bottom to sense water depth. Its accuracy is affectéd by the variability of the speed of sound through … a. P waves are produced by the earthquake and S waves are produced by the aftershocks. . Both travel … seawater that determine its density. The thermohaline circulation caused by the sinking of cold, salty, dense
cited by 0
Climate and the Gulf Stream | Nature Access through your institution Buy or subscribe The Gulf Stream consists of warm water arriving from the equatorial and tropical regions through the Gulf of Mexico. It is driven by the Trade Winds, which cause sea levels to be higher in the western part of the Atlantic basin and generate an area of high water pressure centred on the Sargasso Sea, comparable to the anticyclonic cells of the atmosphere. Just like winds, water tends to flow from areas of high pressure to areas of low pressure. However, the Coriolis force, caused by the Earth's rotation, deflects the flow to the right in the Northern Hemisphere. Ocean currents, therefore, describe a clockwise gyre in the tropical Atlantic, and as the higher sea level is found in the west, the current that flows along the American coast is narrow and fast. The current is particularly intense and deep in the Florida Straits, through which water leaving the Gulf of Mexico is forced to flow. The narrowest part of the straits is between Florida in the west and the Bimini Island in the east, where it forms a 80-km-wide trench with maximum depth of 800 m. The speed of the current can reach up to 1.5 m
cited by 0
Thermohaline Circulation - Currents: NOAA's National Ocean Service Education # Thermohaline Circulation ## Currents Tutorial Thermohaline circulation begins in the Earth's polar regions. When ocean water in these areas gets very cold, sea ice forms. The surrounding seawater gets saltier, increases in density and sinks. --- Winds drive ocean currents in the upper 100 meters of the ocean’s surface. However, ocean currents also flow thousands of meters below the surface. These deep-ocean currents are driven by differences in the water’s density, which is controlled by temperature (thermo) and salinity (haline). This process is known as thermohaline circulation. In the Earth's polar regions ocean water gets very cold, forming sea ice. As a consequence the surrounding seawater gets saltier, because when sea ice forms, the salt is left behind. As the seawater gets saltier, its density increases, and it starts to sink. Surface water is pulled in to replace the sinking water, which in turn eventually becomes cold and salty enough to sink. This initiates the deep-ocean currents driving the global conveyer belt. ### Currents Lessons ##### Coastal Currents ##### Surface Ocean Current
Everything we examined (6) — 4 independent sources
This check searched the claim as stated. It did not run a separate search for evidence against it.
  1. Simple English Wikipedia: Earth sciencereferencesame source L1no side taken
  2. Outline of oceanographyreferencesame source L1no side taken
  3. Endless Voyage TeleWebCourse in Oceanographyreferencesame source L3no side taken
  4. The endless voyage : study guidereferencesame source L3no side taken
  5. Climate and the Gulf Stream | Naturereferenceno side taken
  6. Thermohaline Circulation - Currents - NOAA's National Ocean Servicereferenceno side taken
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