NOVELTY - The arrangement (10) useful in an environmentally sealed module, comprises a concentrator (12) to receive incident electromagnetic energy and to concentrate the incident electromagnetic energy to a greater intensity level, an electromagnetic energy receiving device (14) comprising a first surface (16) to receive the concentrated electromagnetic energy and a second surface (18) opposite to the first surface, an optical relocator to re-direct concentrated electromagnetic energy onto a portion of the first surface of the energy receiving device, and a heat transport device.    USE - The arrangement is useful in an environmentally sealed module (claimed), and is useful for high-concentration conversion of electromagnetic energy such as solar energy to thermal energy and/or electricity and for cooling and heat transportation.    ADVANTAGE - The arrangement is capable of efficiently, easily, economically and rapidly converting electromagnetic energy such as solar energy to thermal energy and/or electricity, and provides adequate cooling under high solar concentration levels to prevent failure of concentrated solar systems.    DETAILED DESCRIPTION - The arrangement (10) useful in an environmentally sealed module, comprises a concentrator (12) to receive incident electromagnetic energy and to concentrate the incident electromagnetic energy to a greater intensity level, an electromagnetic energy receiving device (14) comprising a first surface (16) to receive the concentrated electromagnetic energy and a second surface (18) opposite to the first surface, an optical relocator to re-direct concentrated electromagnetic energy onto a portion of the first surface of the energy receiving device, a heat transport device comprising a duct and a first surface, a thermal interface layer physically connected to a portion of the second surface of the energy receiving device and the first surface of the heat transport device, a heat transfer media partially placed within a duct of the heat transfer device, a device for tracking the position of a source of electromagnetic energy, a circuit board comprising an upper electrically insulating layer having an opening, an array of solar cells disposed on the circuit board, an electrical contact area in electrical communication with an active area of the energy receiving device, an electromagnetic energy receiving device substrate, an electrically conductive circuit layer, a thermally conductive electrical insulator layer, a cathode, an anode, and an elastomer material disposed between the electrical insulator layer and the circuit board. The substrate is electrically and physically connected to the electrically conductive circuit layer. The electrically conductive circuit is disposed on the electrical insulator layer. The thermal interface material is thermally and electrically conductive material. The concentrator comprises a Fresnel lens, which is constructed from an optical material and an acrylic, and a one or two dimensional array of lenses. The concentrator magnifies the intensity of the sun by 10000 times. The electromagnetic energy receiving device comprises a photovoltaic solar cell that has a first surface defining an active area of 1 nm2 to 1000 mm2, and a thermal receptor, where the solar cell does not include electronic packaging materials. The first surface of the solar cell has dimensions of 4 square mm. The heat transfer media comprises water, an organic liquid, an inorganic liquid, a biological liquid, steam, oil, solid particles, and a dispersion or an emulsion. The thermal interface layer has a composition comprising thermal grease, solder, polymer, inorganic material, liquid metal, liquid metal alloy, various sizes of structures in micro, nano or other dimensions including tetrapods and millipods, and films of a variety of thicknesses thermally conductive to ensure efficient heat transport path and including electrical conductivity provided through the same or an alternate path or portion of the path as the thermal transport path. The thermal interface layer forms a part of an electrode. The heat transport device comprises an inlet, an outlet and a closed chamber, and is in direct contact with the entire second surface of the energy receiving device via the thermal interface layer. The tracking device moves along 3 axes to track the location of the source of electromagnetic energy. The optical relocator is formed from an opaque material and a transparent material, which comprises a graded refractive index. The optical relocator comprises a member having a first opening, a second opening and side surfaces connecting the first and second opening, and a plate having depressions of which each has a first and a second opening and side surfaces connecting the first and second opening, where the side surfaces converge toward the second opening. The arrangement converts the concentrated solar energy to 37 Watts of directcurrent electricity/cm2 of photovoltaic cell area. The incident solar energy is concentrated to 1688 suns. The side surfaces comprise a cup-shape, frustoconical shape, a regular or irregular polygonal frustum, a constant slope, or a variable slope. A portion of the side surfaces is polished, anodized or coated to improve the reflective properties. The optical material is contained between the first and second openings. The member comprises a relocator extension extending from the first opening to the concentrator, where the extension has an inner surface comprising a photovoltaic material. The concentrator has a first surface area, and the heat transport device has a second surface area, where the first surface area is equal to the second surface area. The electromagnetic energy receiving device is centrally located on the heat transport device and connected to the circuit board by layers of electrically conductive material, and has an area no greater than 1 mm x 1 mm. The solar cells of the array are electrically connected to protection diodes, blocking diodes or bypass diodes in either a series or parallel relationship to provide a desired voltage and current combination. The electrical contact area is disposed for sliding electrical contact with the circuit board, and surrounds the active area of the solar cell.    DESCRIPTION OF DRAWING(S) - The diagram shows a schematic view of an arrangement.    Arrangement (10)    Concentrator (12)    Electromagnetic energy receiving device (14)    First surface (16)    Second surface. (18)