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A hydrangea is a type of flower first discovered in Japan. It comes from the Greek "hydor," meaning water, and "angos," meaning jar or vessel. This roughly translates to "water barrel," referring to the hydrangea's need for plenty of water and its cup-shaped flower.
It was the storage vessel for food, oil, win, water, cosmetics. It was made in various shapes and embellished with various artistic decorations.
In Ancient Greek, hydrogen translates as "water maker." Hydrogen forms water vapor when it is burned in air.
Which water are you speaking of? The water in a vessel, I presume? heat can go into the water, the vessel/container, the air around the vessel, and the structure holding the vessel, and the structures in the vicinity
"Navis" is a Latin word that translates to "ship" or "boat" in English. It is commonly used in nautical and maritime contexts to refer to a vessel that travels on water.
Hydrogen in Greek translates as "water maker" referring to the fact that it is one of the two elements in water.And that water is the result of burning hydrogen in air.
Vessel,s are that is water vessels
== == Thank You for Understanding,FrigidityHeartlessness The hydrangea's blossom in the shape of a globe has long attracted many admirers. Japanese legend has it that the emperor once sent a bouquet of hydrangeas to apologize to the family of a girl he loved, his only recorded apology. This radiant flower has come to symbolize earnestness, and is ideal for communicating any heartfelt emotion, from joy to grief.
When heating the vessel filled with water, the heat from the water can cause the vessel to expand. If the vessel is filled completely with water, there may not be enough space for the water to expand within the vessel, leading to the water spilling out. The spilled water mixes with the wine, causing the spill to be a mix of both water and wine.
A submarine is a vessel that can travel both on the surface and under the water.
When water freezes in an enclosed vessel, it expands and exerts pressure on the vessel walls. This pressure depends on factors such as the volume of water, rate of freezing, and strength of the vessel. Generally, this can lead to the vessel cracking or bursting if the pressure becomes too high.
The downward pressure of water at the bottom of a vessel is determined solely by the height of the water column above it and the density of the water, as described by the hydrostatic pressure equation: ( P = \rho g h ). This means that regardless of the vessel's shape, the pressure at the bottom depends only on how deep the water is, not on the vessel's width or contour. Therefore, as long as the height of the water remains constant, the pressure at the bottom will also remain constant, independent of the vessel's shape.