The ocean has been absorbing 93% of all climate warming. Now, it is fed up with co2. What happens now?
(5/5) “The advantage of a (#cheese)wire is that you can apply pressure only at the edge of the cut without all the extra friction & without squashing the cheese 🧀 so much that it becomes stiffer & harder to cut.
…Cutting cheese with a wire is a neat solution to the #physics problem of how to create a sharp, smooth cut in a resistant #proteinmesh.”
#HelenCzerski, #WSJ, #EverydayPhysics #CheeseScience #CheeseWire #CheeseCutter #Cheesy
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#cheesy #cheesecutter #cheesewire #cheesescience #everydayphysics #wsj #helenczerski #proteinmesh #physics #cheese
(4/4…no…5) “…the way a #cheese’s #proteinmesh responds to force is unique. It responds like a solid if cut or squeezed quickly but more like a flowing liquid if the mesh has more time to respond by releasing the stress.
…as you press down to slice through it, a cheese 🧀 becomes progressively stiffer & stronger. This is because the #casein mesh is squashed out around the cut, like a stretched sponge; it becomes stronger because it can’t easily move any further.”
#wsj #helenczerski #casein #proteinmesh #cheese
(1/2) #Cheese🧀 science!
“All #cheeses are preserved #milk, but they can be squishy & almost liquid, brittle & crumbly or nearly rock-hard. Yet if you zoom in, their #molecules have the same basic structure.
Making cheese 🧀 is about creating a #spongelike structure out of the #milkprotein called #casein, essentially a mesh held together by #calcium. The sponge’s gaps are filled with #fatglobules & 💧 water.”
#everydayphysics #wsj #helenczerski #fatglobules #calcium #casein #milkprotein #spongelike #molecules #milk #cheeses #cheese