Energy transfer component

Abstract

The invention relates to the field of wall components, in particular to an energy transfer component and aims to solve the technical problems that current wall materials are thick and heavy and heat transfer between the internal environment and the external environment cannot be controlled. The energy transfer component comprises an inner graphene layer with the exposed side surface contacted with the internal environment, a middle thermal insulation layer and an outer graphene layer with the exposed side surface contacted with the external environment, the three layers are spliced and arranged in a sandwich manner, and a heat transfer connection mechanism capable of being opened and closed is arranged between the inner graphene layer and the outer graphene layer. The energy transfer component has the advantages of being light, thin, sound-proof, thermal-insulating, water-proof, flame-retardant and capable of automatically controlling heat transfer between the internal environment and the external environment.

Description

technical field [0001] The invention relates to the technical field of wall components, in particular to an energy transmission component. Background technique [0002] Graphene is a two-dimensional crystal composed of carbon atoms with only one atomic thickness. In 2004, Andre Geim and Konstantin Novoselov, physicists at the University of Manchester, successfully separated graphene from graphite and confirmed that it can exist alone. Bell Prize in Physics. Before the discovery of boronene in late 2015, graphene was both the thinnest material and the strongest, with a breaking strength 200 times stronger than the best steel. At the same time, it has good elasticity, and the stretching range can reach 20% of its own size. It is currently the thinnest and strongest material in nature. If a piece of graphene with an area of ​​1 square meter is used to make a hammock, it can bear a cat weighing one kilogram with a weight of less than one milligram. [0003] Traditional wall ...

AI Technical Summary

Problems solved by technology

[0003] Traditional wall components are relatively thick and heavy, and transportation and hoisting are more troublesome, and users cannot independently control the heat conduction inside and outside the wall. For example, the heat from the outside is transferred to the room in winter; the heat from the outside is not transferred to the room in summer.

There is currently no technical solution for applying graphene to wall component materials

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