Suggest separation techniques one would need to employ to separate Mercury and water.

Hint: Mercury has a melting point of $-38.9^o$ , a boiling point of $356.7^o$, and is the only metal to stay in fluid structure at room temperature. Beads of fluid mercury are sparkly and silver-white with high surface strain, seeming adjusted when on level surfaces. The fluid is profoundly mobile and droplets join effectively because of low viscosity. The component additionally consolidates with different metals, for example, tin, copper, gold, and silver to shape mercury combinations known as mixtures.

Complete answer:
Mercury and water both are immiscible liquids with different densities. Water is less dense than mercury. So, they can be separated by a separatory funnel.
A separatory funnel, otherwise called a separation channel, isolating pipe, or informally Sep Funnel and fractionating Funnel. , is a piece of research facility dish sets utilized in fluid extractions to isolate (segment) the segments of a mixture into two immiscible dissolvable phases of various densities. Normally, one of the stages will be aqueous, and the other a lipophilic natural dissolvable, for example, ether, MTBE, dichloromethane, chloroform, or ethyl acetic acid derivation. These solvents structure an unmistakable depiction between the two fluids. The more dense fluid, normally the aqueous stage except if the natural stage is halogenated, sinks and can be depleted out through a valve away from the less dense fluid, which stays in the separatory funnel.

Note: Separatory channels work on the rule that immiscible fluids will isolate from one another normally alongside their solutes, making various layers of solution solute. For instance, a nonpolar solute can be extricated from an answer by blending it in with a non-polar dissolvable in a partition pipe. After beginning blending, the underlying arrangement and non-polar dissolvable will isolate and the solute will be in the new dissolvable. These layers can be isolated in perpetuity by draining them out of the separatory channel utilizing the stopcock to control the stream.