Construction for cost-effective energy generation through mono- and / or polycrystalline silicon coating (photovoltaics)

Abstract

The invention relates to a device for energy generation by means of a mono- and / or polycrystalline silicon coating of a workpiece comprising three modules (1, 2, 3), wherein the mono- and / or polycrystalline silicon coating is installed in the module (2) and the module (2) has a gimbal bearing (c) and a rotary ball bearing (g) at each end and the modules (1) and (3) can be aligned by a rotational movement of 360 degrees such that the modules (1) and (3) are simultaneously aligned exactly with the sun and, for energy generation, the inner chambers (a, d) of the modules (1) and (3) transport solar photons by reflection into the chamber (e) with the mono- and / or polycrystalline silicon coating of the module (2), where they are then effectively converted into energy.

Description

[0001] From GB 2 586 003 A, D1, a device for generating energy through a monocrystalline and / or polycrystalline silicon coating on a workpiece is known. The device comprises a module in which the monocrystalline and / or polycrystalline silicon coating is installed. The inner chamber of the module transports solar photons by reflection into the chamber with the monocrystalline and / or polycrystalline silicon coating, where they are then effectively converted into energy.

[0002] The workpiece according to the invention is to be divided into 3 modules, with modules 1 and 3 achieving a 360° rotation over the horizon with a rotational movement.

[0003] The design promises a cost-effective solution through a mono- and / or polycrystalline silicon coating installed in module 2 and with the assistance of modules 1 and 3 and their internal mirroring (F=r / 2).

[0004] The inner chambers of modules 1 and 3 transport photons by reflection into the chamber of module 2, where they are then effectively converted into energy.

[0005] How this mirroring is achieved in chambers 1 and 3 (gold plating, silver plating, chrome plating and / or grinding and polishing) is explained by the formula F=r / 2.

[0006] The technical dimensions of the workpiece are variable.

[0007] Module 2 has a cardanic bearing at each end, which enables a connection to the respective rotary ball bearing.

[0008] Energy losses and fluctuations are eliminated through further developments and future innovations.

[0009] The module 2 shown has an assumed largest diameter of 4m, with the mirrored chamber having a diameter of 3.20m.

[0010] Modules 1 and 3 have an assumed largest diameter of 3m, with the mirrored chambers having a diameter of 2m.

[0011] Modules 1, 2 and 3 are each wrapped with a spiral cooling system that serves to exchange heat and prevent overheating.

[0012] Modules 1 and 3 are each aligned exactly towards the sun!!!

[0013] The entire workpiece should and must be made of A2 or A4 stainless steel.

[0014] The cavities between modules and chambers are reserved for the cooling systems.

[0015] Sketch of a workpiece a)Chamber with mirroring Module 1 b)Stabilization and fastening of the entire workpiece c)Cardanic bearing d) Chamber with mirroring module 3 e) Chamber with mono and / or polycrystalline silicon coating f)Cavity for cooling system g)Rotary ball bearings

Claims

[1] Device for generating energy through a mono- and / or polycrystalline silicon coating of a workpiece comprising three modules (1, 2, 3), wherein the mono- and / or polycrystalline silicon coating is installed in the module (2) and the module (2) has a cardanic bearing (c) and rotary ball bearings (g) at each end and the modules (1) and (3) can be aligned with a rotational movement of 360 degrees in such a way that the modules (1) and (3) are simultaneously aligned exactly towards the sun and, in order to generate energy, the inner chambers (a, d) of the modules (1) and (3) transport solar photons by reflection into the chamber (e) with the mono- and / or polycrystalline silicon coating of the module (2), where they are then effectively converted into energy. [2] Device according to claim 1, characterized by that the entire workpiece is made of stainless steel A2 or A4. [3] Device according to one of the preceding claims, characterized bythat the modules (1, 3) have chambers (a, d) with mirroring and cavities (f) for cooling systems. [4] Device according to claim 3, characterized by that the mirroring is achieved by gold plating, silver plating or chrome plating. [5] Device according to one of the preceding claims, characterized by that the module (2) is wrapped with a spiral cooling system for heat exchange.

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