Anti-compromise package

Abstract

The invention relates to an anti-compromise assembly, said assembly comprising a frame on which are arranged: - a chassis (22); - a frame (20) comprising a metal mesh (23), the frame (20) being positioned on a part of said chassis (22), the chassis (22) being in contact with the metal mesh (23); - a support element (21) secured to the chassis (22), the support element (21) being in contact with a part of the metal mesh (23). The assembly further comprises a metal seal (24) positioned between the chassis (22) and the support element (21), said metal seal (24) covering the metal mesh (23), and the metal seal (24) exerting a pressure force between the chassis (22) and the support element (21); the metal seal (24) comprises a flexible part which is surrounded by a metal fabric. Figure for the abstract: Fig. 1

Description

Title of the invention: Anti-compromise kit Technical field of the invention

[0001] The present invention relates to an anti-compromise system. It is particularly applicable in the field of computer security related to electromagnetic waves. Previous technique

[0002] Anti-compromise, also known as computer security or cybersecurity, encompasses all measures and practices aimed at protecting computer systems, networks, data, and information against compromise, attacks, and malicious intrusions. It is a critical field in today's digital world, where cyberattacks are becoming increasingly frequent and sophisticated.

[0003] Some buildings require security measures such as shielding against electromagnetic fields, in order to prevent potential cyberattacks, for example by interception from outside.

[0004] To achieve this security, measurements must be taken according to technical standards. For example, the European technical standard EN50147-1, which concerns intrusion detection and alarm systems. It establishes the requirements and recommendations relating to the design, installation, operation, and maintenance of these systems.

[0005] Some prior art documents also propose anti-compromise assemblies. For example, publication document FR3047756 is known, which refers to an architectural assembly forming a shield against electromagnetic radiation.

[0006] This invention speaks of an architectural assembly composed of concrete wall elements loaded with conductive particles with a conductive mesh forming a shield against electromagnetic radiation. Presentation of the invention

[0007] The present invention aims to remedy these drawbacks with a completely innovative approach.

[0008] More specifically, the invention aims to provide a set of anti-compromise measures.

[0009] In particular, an objective of the invention is to provide such a technique making it possible to do away with any other complex adjustment system.

[0010] One objective of the invention is to provide such an assembly, which can be easily adapted to existing systems.

[0011] These objectives, as well as others that will appear subsequently, are achieved, according to a first aspect, by means of an anti-compromise system, said system comprising a frame on which are arranged: - a chassis; - a rectangular frame comprising a metal mesh, said metal mesh is inside the frame and extends beyond the frame around its perimeter, the frame being positioned on a part of said chassis, the chassis being in contact with the metal mesh; - a support element attached to the chassis, the support element being in contact with a part of the metal mesh; remarkable in that the assembly further comprises a metal joint positioned between the chassis and the support element, said metal joint covers the metal mesh ensuring metallic continuity between the metal mesh and the support element, and the metal joint being inserted under force and exerting a pressure force between the chassis and the support element; the metal joint comprises a flexible part which is surrounded by a metal fabric.

[0012] Thanks to these provisions, this assembly makes it possible to obtain shielding against magnetic fields while meeting construction standards such as EN50147-1 and Mil. STD 285, according to directive 495 concerning SPC and Tempest zoning.

[0013] The invention is advantageously implemented according to the embodiments and variants set out below, which are to be considered individually or according to any technically operative combination.

[0014] In one embodiment, the frame comprises a fixed pane of glass, an opening pane of glass, or a door. Thus, the frame is applied to a window or a door.

[0015] In one embodiment, the metal seal comprises a flexible part surrounded by the metal fabric, the flexible part is rectangular in shape with a height and a width, the height is between 5 and 30 mm and the width is between 5 and 30 mm.

[0016] Thanks to these provisions, the use of a metal seal makes it possible to obtain better sealing of electromagnetic waves as a whole.

[0017] In one embodiment, the metallic fabric is made of stainless steel.

[0018] Thanks to these provisions, the metallic fabric of the seal helps to prevent corrosion of the assembly.

[0019] In one embodiment, the flexible part is made of neoprene foam or silicone.

[0020] Thanks to these provisions, neoprene or silicone foam allows for a improved durability of the metal joint.

[0021] In one embodiment, the joint extends between two ends around the frame, At the ends there is an overlap of at least 1 cm. The overlap being the junction between two parts of the metal joint.

[0022] Thanks to these arrangements, the overlap ensures metallic continuity throughout the assembly.

[0023] In one embodiment, the support element being a metal subframe or a wall.

[0024] Thanks to these provisions, the chassis and the frame can be installed on a facade of a building.

[0025] In one embodiment, the subframe has a reinforced weld at each corner forming the chassis. The welds are reinforced and sealed.

[0026] Thanks to these arrangements, the welding ensures the continuity of the shielding against electromagnetic fields.

[0027] In one embodiment, the assembly includes insulation in contact with a part of the chassis and a part of the support element.

[0028] Thanks to these provisions, insulation makes it possible to control the transfer of heat between the outside and the inside of a building.

[0029] According to a second aspect, the present invention relates to an anti-compromise application kit, remarkable in that it comprises: - a chassis adapted to be positioned on a frame; - a rectangular frame comprising a metal mesh, said metal mesh is inside the frame and extends beyond the frame around its perimeter, the frame being positioned on a part of said chassis, the chassis being in contact with the metal mesh; - a support element attached to the chassis, the support element being in contact with a part of the metal mesh; said kit includes, in addition to a metal seal positioned between the chassis and the support element, said metal seal covers the metal mesh ensuring metallic continuity between the metal mesh and the support element, and the metal seal is inserted under force and exerting a pressure force between the chassis and the support element; the metal seal includes a flexible part which is surrounded by a metal fabric.

[0030] The advantages, purposes and particular characteristics of this anti-compromise installation kit being similar to those of the anti-compromise assembly, the subject of the present invention, are not recalled here. Brief description of the figures

[0031] Other advantages, purposes and features of the present invention will become apparent from the following description, given for explanatory purposes and in no way as a limitation, with regard to the attached drawings, in which:

[0032] Fig. 1 represents a technical diagram of an anti-compromise assembly in horizontal cross-section view.

[0033] Fig. 2 represents part of a technical diagram of a set of anti-compromises in cross-section.

[0034] Fig. 3 represents a variant of an anti-compromise assembly in cross-section view.

[0035] Fig. 4 represents a variant of an anti-compromise assembly with two metal seals.

[0036] Figure [5] represents a graph showing tests on the anti-compromise set. Description of the implementation methods

[0037] Fig. 1 shows a technical diagram of an anti-compromise assembly in horizontal section view.

[0038] The diagram shows components.

[0039] The components are: a frame 20, a chassis 22, a mesh 23, a joint 24, and a support element 21.

[0040] The frame 20 is a pane of glass which has a flat, transparent surface, and which has a thickness of a few centimeters.

[0041] In one example, the window has a rectangular shape. In another example, not shown, the window is square or rounded.

[0042] A chassis 22 is a structure that serves as a support or frame for something.

[0043] According to one embodiment, the chassis 22 is rectangular in shape.

[0044] The frame is positioned on the inner ends of the chassis 22.

[0045] According to an example produced, the mesh 23 is made of metallic fabric.

[0046] A metallic mesh 23, also called metallic mesh 23 or wire mesh, designates a type of fabric made of metal wires interlaced to form a mesh structure 23.

[0047] The metallic mesh 23 extends beyond the glass around its perimeter.

[0048] The perimeter of a pane of glass refers to the area surrounding the glass itself. This may be the frame, the rim, or the structure that holds the glass 20 in place.

[0049] According to one variant, the wires that make up the metallic fabric have a diameter between 0.03 mm and 0.1 mm, with a nominal opening of 0.1 to 0.4 mm.

[0050] The nominal opening of a metallic mesh 23 refers to the theoretical or designated size of the opening between the metallic wires constituting the mesh 23.

[0051] The metallic material used is stainless steel.

[0052] Stainless steel is a type of metal alloy that exhibits excellent resistance to corrosion. resistance to corrosion and oxidation.

[0053] According to one variant, the stainless steel has the reference: 304 L.

[0054] This reference indicates a variant of stainless steel.

[0055] The metallic mesh 23 is classified as a square-shaped mesh 23.

[0056] The diameter of the wire of the metal mesh 23 before weaving is between 0.01 mm and 0.1 mm, preferably 0.05 mm.

[0057] The metric number of the metal mesh 23 is 109.36.

[0058] The metric number of the 23 metal mesh is a measurement that indicates the number of metallic wires per unit length in a metallic mesh 23.

[0059] The unit of length is the metric inch. In this example, the number of 23 stitches per metric inch is 27.778.

[0060] The thickness of the metal mesh 23 is between 0.01 mm and 0.3 mm, preferably 0.1 mm.

[0061] According to one embodiment, the metal mesh 23 armor is made in plain weave.

[0062] In this weave, each weft yarn passes alternately over and under the adjacent warp yarns.

[0063] The metallic mesh 23 has a surface mass of between 0.1 kg and 0.2 kg per square meter, preferably 0.14 kg per square meter.

[0064] Surface mass is a measure of the amount of material present per unit area in a material.

[0065] According to an example produced, the metallic mesh 23 has a percentage of porosity.

[0066] Porosity refers to the measurement of the amount of empty space or pores present in a material relative to its total volume.

[0067] The percentage of porosity in the metallic mesh 23 is at least 60%. According to one example, the percentage is 64%.

[0068] The metal mesh 23 follows the ISO 9044 standard.

[0069] ISO 9044, entitled "Metal sieves - General technical specification and test methods", is an international standard that establishes technical specifications and test methods for metal sieves used in various fields. It provides guidelines for the design, manufacture and use of metal sieves, as well as test methods for evaluating their performance.

[0070] The use of 23 metal mesh throughout provides increased durability.

[0071] A seal 24 is a part used to ensure a seal between two surfaces, generally ralement in applications where high strength and durability are required.

[0072] According to one example, the seal 24 comprises a flexible part which is surrounded by a metallic fabric.

[0073] The seal 24 is made from knitted metal wire.

[0074] The use of this 24-metal joint allows for very high resilience and very good shielding efficiency in magnetic fields.

[0075] The joint 24 is positioned between the chassis 22 and the support element 21.

[0076] The joint 24 exerts a pressure force on the chassis 22 and the support element 21.

[0077] According to an example, the metal joint 24 covers the metal mesh 23. This embodiment ensures metallic continuity between the metal mesh 23 and the support element.

[0078] According to one example produced, the structure consists of a neoprene or silicone foam core covered with a metallic knit.

[0079] Neoprene foam is a synthetic rubber material that exhibits insulating and shock-absorbing properties. It is often used in a variety of applications due to its unique characteristics.

[0080] Silicone is a synthetic polymer material characterized by its flexibility, heat resistance and durability.

[0081] The profile of the metal joint 24 is a solid rectangular shape.

[0082] The flexible part has a height between 5 mm and 30 mm, and a width between 5 mm and 30 mm.

[0083] The metal joint 24 has at least 2 wires per layer.

[0084] The material used for the manufacture of the metal seal 24 is stainless steel.

[0085] The use of a 24 stainless steel seal allows for better sealing of the assembly.

[0086] According to one variant, the support element is a subframe or a wall.

[0087] The support element 21 is fixed to the chassis 22, by means of a screw. This screw creates a fixed connection.

[0088] Fixed jointing is a method of mechanical connection used to securely fix two elements together.

[0089] The support element 21 is in contact with a part of the metallic mesh 23.

[0090] According to one variant, the subframe is metallic.

[0091] The other mesh 23 is positioned on top of the support element 21.

[0092] According to one variant, the second mesh 23 is metallic.

[0093] Naturally, the invention is described above by way of example. It is understood that a person skilled in the art is able to carry out different embodiments of the invention without departing from the scope of the invention.

[0094] Fig. 2 shows part of a technical diagram of a set of anti-compromises in cross-section.

[0095] This part of the diagram shows one side of the assembly.

[0096] The location of the metal joint 24 is formed by the geometry of the support element 21 and the chassis 22.

[0097] According to the example produced, the metal joint 24 has an overlap between its two ends. This overlap is at least 1 cm.

[0098] This covering improves the metallic continuity of the assembly.

[0099] According to one variant, the support element 21 has welds on each internal corner.

[0100] Welding is a process of joining two metal parts by heating them to a high temperature to fuse them.

[0101] These welds are produced during the manufacture of the chassis 22. They improve the continuity between the chassis 22 and the support element 21.

[0102] Fig. 3 shows a variant of an anti-compromise assembly in cross-sectional view.

[0103] This variant includes an extension of the metallic mesh 23.

[0104] According to the embodiment example, the metal mesh 23 runs along the support element 21.

[0105] The support element 21 in question is a wall.

[0106] Fig. 4 shows a variant of an anti-compromise assembly with two 24-metal seals.

[0107] In this variant, the two metal joints 24 are surrounded by metal mesh 23s, and the support element 21 is a wall.

[0108] The [Fig.5] is a graph representing measures on the anti-compromise set.

[0109] These measurements come from a test carried out according to standard EN501147-1.

[0110] This test evaluates the performance of shielding against electromagnetic waves on glazing.

[0111] According to the test carried out, the glazing has a height of 460 mm and a width of 460 mm.

[0112] According to the test carried out, the glazing frame is made of aluminium.

[0113] Aluminium is a lightweight, malleable and corrosion-resistant metal.

[0114] On the ordinate axis of the graph, the data comes from the sum of H (Measured Horizontal Attenuation) and V (Measured Vertical Attenuation).

[0115] The different wave frequencies used for the tests are represented on the x-axis of the graph, expressed in MHz.

[0116] Wave frequency is a measure of how quickly a wave repeats itself in a unit of time. It is usually expressed in hertz (Hz), which represents the number of complete wave cycles occurring per second.

[0117] The wave frequencies are: 30 MHz, 50 MHz, 80 MHz, 100 MHz, 200 MHz, 300 Mhz, 400 Mhz, 500 Mhz, 600 Mhz, 700 Mhz, 800 Mhz, 900 Mhz, 1000 Mhz, 1200 Mhz, 1400 Mhz, 1600 Mhz, 1800 Mhz, and 2000 Mhz.

[0118] According to the test carried out, the graph has three curves.

[0119] The solid line curve represents the MES (MEASUREMENT) category.

[0120] The dashed curve is constant, with a wave frequency value of 34 from 30 MHz to 2000 MHz. This corresponds to the ATTR (Attenuation Retained) limit of the project.

[0121] The line curve represents the CAL (Calculated Tendency) category. This is the minimum average attenuation value over the entire frequency spectrum: -47 dB

[0122] It is emphasized that all features, as they are apparent to a person skilled in the art from the present description, drawings and attached claims, even if in practice they have only been described in relation to other specific features, both individually and in any combinations, can be combined with other features or groups of features disclosed herein, provided that this has not been expressly excluded or that technical circumstances make such combinations impossible or meaningless. List of reference signs

[0123] [Tables 1] References Designations 20 frame 21 support element 22 chassis 23 mesh 24 joint 25 insulation

Claims

Claims

1. Anti-compromise assembly, said assembly comprises a frame on which are arranged: - a chassis (22); - a frame (20) of rectangular shape and comprising a metal mesh (23), said metal mesh (23) is inside the frame (20) and extends beyond the frame (20) on its periphery, the frame (20) being positioned on a part of said chassis (22), the chassis (22) being in contact with the metal mesh (23); - a support element (21) secured to the chassis (22), the support element (21) being in contact with a part of the metal mesh (23);characterized in that the assembly further comprises a metal seal (24) positioned between the frame (22) and the support element (21), said metal seal (24) covers the metal mesh (23) ensuring metallic continuity between the metal mesh (23) and the support element (21), and the metal seal (24) being inserted by force and exerting a pressure force between the frame (22) and the support element (21); the metal seal (24) comprises a flexible part which is surrounded by a metal fabric.;

2. An assembly according to claim 1, wherein the frame (20) comprises a fixed window, an opening window or a door.

3. An assembly according to claim 1, wherein the metal seal (24) comprises a flexible portion surrounded by the metal fabric, the flexible portion is rectangular in shape with a height and a width, the height is between 5 and 30mm and the width is between 5 and 30mm.

4. An assembly according to claim 3, wherein the metal fabric is stainless steel.

5. An assembly according to claim 3, wherein the flexible part is made of neoprene foam or silicone.

6. An assembly according to claim 1, wherein the seal (24) extends between two ends around the frame (20), at the ends there is an overlap of at least 1 cm.

7. An assembly according to claim 1, wherein the support element (21) is a metal pre-frame or a wall.

8. An assembly according to claim 7, wherein the pre-frame comprises a reinforced weld at each corner forming the frame (22).

9. An assembly according to claim 1, wherein the assembly comprises insulation (25) positioned on the exterior in contact with a portion of the frame (22) and a portion of the support member (21).

10. Anti-compromise installation kit, characterized in that it comprises: - a frame (22) adapted to be positioned on a frame; - a frame (20) of rectangular shape and comprising a metal mesh (23), said metal mesh (23) is inside the frame (20) and extends beyond the frame (20) on its periphery, the frame (20) being positioned on a part of said chassis (22), the chassis (22) being in contact with the metal mesh (23); - a support element (21) secured to the frame (22), the support element (21) being in contact with a part of the metal mesh (23); said kit further comprises a metal seal (24) positioned between the frame (22) and the support element (21), said metal seal (24) covers the metal mesh (23) ensuring the metal continuity between the metal mesh (23) and the support element (21), and the metal seal (24) is inserted by force and exerting a pressure force between the frame (22) and the support element (21); the metal seal (24) comprises a flexible part which is surrounded by a metal fabric.