RADON GAS DETECTING PANEL SURFACE SYSTEM

TR202612848A2Pending Publication Date: 2026-08-21KARADENIZ TEKNIK UNIVERSITESI TEKNOLOJI TRANSFERI UYGULAMA & ARASTIRMA MERKEZI MUDURLUGU
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Patent Information

Application Number
TR202612848
Authority / Receiving Office
TR · TR
Patent Type
Applications
Current Assignee / Owner
Filing Date
2026-07-30
Publication Date
2026-08-21

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Abstract

The invention relates to a panel surface system for detecting radon gas in enclosed spaces and visually communicating the detected radon level to the user through a color change generated on a multilayered, modular surface.
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Description

1 TARIFF RADON GAS DETECTING PANEL SURFACE SYSTEM TECHNICAL FIELD The invention relates to the detection of radon gas in enclosed spaces and the detection of 5 Radon levels are determined using color rendering on a multilayered, modular surface. a panel surface for visually notifying the user through change It is related to the system. PREVIOUS TECHNIQUE 10 Because radon gas is colorless and odorless, users in enclosed spaces It cannot be directly detected by the naked eye. If inhaled, it damages lung tissue. radon, which can cause lung cancer and is a significant risk factor for lung cancer. gas, especially when in direct contact with the ground or air circulation It is possible for it to accumulate in areas where it is insufficient. Therefore, housing, educational buildings, 15 offices, public buildings, metro stations, lower floors of shopping malls and underground Radon levels need to be monitored in enclosed spaces such as parking garages. Most known radon measuring devices focus on a single location. It measures radon levels. Such devices collect data from a specific point in an enclosed space. from what was obtained, the distribution and concentration of radon gas within the space 20 It does not allow for the detection of these areas across the entire surface. Existing solutions are mostly used independently of interior surfaces. It consists of devices. The measurement result is a numerical value, symbol, or device. The information is presented to the user via the screen, but the information obtained reflects the architecture of the space. It is not transformed into a warning that integrates with the surfaces. This situation affects the user's 25 monitor the radon measuring device and interpret the displayed measurement values. It makes it necessary. Numerical or symbolic indicators are invisible and cannot be directly perceived. Sufficient for every user to intuitively understand the dangers of radon. This may not be the case. Measurement data is obtained from a continuously visible surface indoors. 30 Failure to present the information may also delay the realization of the risk of long-term exposure. 2 THE PURPOSE OF THE INVENTION The invention is impossible for the user to see or smell. Detection of radon gas in enclosed spaces and the direct application of the detection result to the surface The aim is to convey this to the user through a color change that occurs on the surface. Thus, information regarding radon measurement is only displayed as numerical data on a device screen. It is being transformed from data into a visual stimulus that is part of the space. It is being transformed. The system consists of modular surface arrangements of radon gas detecting units. Thanks to its positioning, the risk is measured not at a single point, but side by side. 10 readable from the surface formed by the installed panel modules The aim is to adapt the modules according to their area of ​​use and mounting surface. Scalability allows for large warning surfaces in indoor spaces of varying sizes. It allows for its creation. If radon levels exceed the specified values, the heating layer... With the activation and color change of the thermochromic surface, the user also has 15 The danger level can be determined without the need to take measurements or monitor a screen. This ensures that they notice it. The warning method, based on color change, provides technical information. It creates a notification that does not require anything and is directly perceptible to the eye. Maintaining a neutral appearance of the surface when no danger is present, inside the system It allows for the integration of the space into its aesthetic integrity. Radon level 20 The color change that becomes visible when it rises ensures the continuity of user awareness. It provides power. It is a moving mechanical part that operates depending on the mains electricity. Thanks to its solid-state structure, the system can perform continuous monitoring and maintenance. The aim is also to reduce the need for it and the risk of mechanical failure. LIST OF FIGURES Figure 1. General overview of the invention. Figure 2. Cross-sectional view showing the internal structure of the invention. Figure 3. Exploded view of the invention. The corresponding numbers in the figures are: 1. Polycarbonate 2. Thermochromic layer 3. Heating Cable 3 4. Aluminum Sheet 5. Main Control Unit 6. Radon Detection Unit 7. Corrugated Carrier Profile 8. Ground Connection Flange 5 9. Network Connection Terminal 10. Bolt 11. Mounting Hole 12. Bolt 13. Flange Fixing Screw 10 14. Installation Outlet 15. Cassette 16. Cable Holder 17. Gas Inlet Gap 18. Cassette Side Panel Mounting Hole 15 DETAILED DESCRIPTION OF THE INVENTION The invented radon gas detecting panel surface system is suitable for indoor use. It instantly detects the accumulated radon gas and transmits the obtained measurement data to the surface. a modular 20 that transforms the generated color change into a visual stimulus It is a structure. The system includes residences, educational facilities, offices, and public buildings, as well as underground structures. subway systems that are in direct contact with people, heavily used, and at risk of radon accumulation. in stations, shopping mall basements and underground parking lots It is available for use. Each panel module that makes up the system has a 25 mm diameter, depending on the application area and the surface to which it will be applied. They can be scaled accordingly. Modules are preferably 100 × 100 cm nominal dimensions and a suitable cross-sectional thickness to accommodate the system components, for example, 9.5 cm thick It is manufactured by placing multiple modules side by side, within the space. A functional warning system can be created that covers large surfaces. The panel system described in the invention has a polycarbonate outer protective layer (1), thermochromic 30 thermochromic layer (2) consisting of pigment and epoxy resin, heating cable (3), thermal high conductivity aluminum plate (4), main control unit (5), radon detection unit (6), corrugated carrier profile (7), ground connection flange (8), network connection terminal (9), M5 countersunk bolts (10), countersunk mounting holes (11), M5 4 stainless steel connecting bolts (12), flange fixing screws (13), installation outlet (14), cassette (15), cable holder (16), gas inlet opening (17) and cassette side It includes panel mounting holes (18). The outer perimeter and main housing of the system are formed by the cassette (15). Cassette (15) contains the sensing, control, energy transmission and heating components inside the panel. It holds together and protects from external influences. It forms the structural frame of the panel. The corrugated carrier profile (7) ensures that the layers are held together. Corrugated arranged on the carrier profile (7) according to the thicknesses of the layers forming the panel There are protrusions. These protrusions hold the layers in their designated positions. and the orderly transfer of heat between layers 10 It provides. The panel module is fixed to the mounting surface by ground connection flanges (8) This is done through the ground connection flanges (8), of the panel module. It establishes structural balance and assembly stability, preventing the module from tipping over. It prevents each ground connection flange (8) from being secured using flange fixing screw (13) 15 It is attached to the main body or mounting surface. The panel connections use M5 countersunk bolts (10), M5 stainless steel. mounting bolts (12), countersunk mounting holes (11) and cassette side panel mounting holes (18) are used. Countersunk mounting holes (11) are used for the heads of M5 countersunk bolts (10). These parts are in the form of angled slots that allow them to be embedded into the cassette surface. These 20 The structure allows for the placement of fasteners without creating protrusions on the surface, and It ensures the smoothness of the panel surface is maintained. M5 stainless steel connecting bolts (12) connect different panel modules to each other. It is used for connecting. Cassette side panel mounting holes (18), modules It ensures that they are connected to each other and to the supporting frame at the specified position. Thus, 25 The geometric shape of the modules and the structural balance of the system are preserved. The electrical cables inside the panel are routed through cable holders (16) Cable holders (16) are fixed in place to prevent cables from getting tangled inside the panel. It prevents stretching or damage to electrical cables and necessary installations. 30 via the installation outlet (14) to safely transfer the lines outside the cassette. is being carried out. In order for radon gas to reach the detection section, the bottom of the cassette (15) There are gas inlet gaps (17). Air in the environment passes through the gas inlet gaps (17) It enters the panel and reaches the radon detection unit (6). Radon detection unit (6) measures the radon gas level in the air reaching the panel in Bq / m³ It measures and transmits the obtained data to the main control unit (5). The main control unit (5) receives the data from the radon detection unit (6) in real time. It evaluates. The microcontroller located inside the main control unit (5), It compares the measured radon level to the defined threshold values. Radon 5 If the level exceeds one of the relevant threshold values, the main control unit (5), activates the heating cable (3). Heating cable (3) provides the necessary heat for the thermochromic layer (2) to change color. It produces its energy. The heat generated by the heating cable (3) has high thermal conductivity. It is distributed from the aluminum sheet (4) to the panel surface. The aluminum sheet (4) is 10 by ensuring that heat is distributed homogeneously across the surface in the thermochromic layer (2) helps to create a regular and clear color change. Thermochromic layer (2), thermochromic pigments in epoxy resin It is formed by mixing homogeneously. The heating cable (3) is put into circuit. The temperature increase resulting from its removal, the color of the thermochromic layer (2) 15 This allows the measurement obtained from the radon detection unit (6) to change. data visible on the surface via the main control unit (5) and heating cable (3) It is being converted into a warning. The polycarbonate layer (1) located on top of the panel surrounds the inner layers of the system. It protects against the effects. The transparent structure of the polycarbonate layer (1) protects against the effects of the 20 underneath. The color change occurring in the thermochromic layer (2) is determined by the user. It allows visibility. The polycarbonate layer (1) has high impact resistance. It also has coatings that protect against scratches and provide UV filters against sunlight. This is possible. This structure, in areas with high human traffic, affects the surface. It ensures the preservation of optical clarity and the visibility of the visual stimulus. 25 Tempered glass instead of polycarbonate (1) in the top protective layer It can be used. Tempered glass is preferred where higher scratch resistance is desired and Protective layer in interior applications where aesthetic appearance is prioritized It is preferred as such. Cassette (15) and carrier body made of lightweight aluminum, ABS or ASA type 30 They can be manufactured from plastics, galvanized steel, or stainless steel. Lightweight aluminum is suitable for humid and dense environments due to its thermal conductivity and corrosion resistance. They are preferred in the areas where they are used. ABS or ASA-based plastics are lightweight. It can be used to provide anti-static properties and reduce mass production costs. 6 Thanks to its properties, it limits dust accumulation on the surface. Galvanized or Stainless steel, on the other hand, is used in high-traffic floor applications and where the risk of impact is high. as cassette and carrier body material in public spaces It is available for use. The electrical energy required for the operation of the system is connected to the grid terminal (9) 5 It is provided via. The network connection terminal (9) is the main electrical of the space. It transfers the energy coming from the line to the system. 220 V AC is received from the terminal. Electrical energy is supplied as 12 V or 24 V DC voltage through the transformer located within the system. It is converted into a value. Low-voltage electrical energy is used by the radon detection unit. (6), main control unit (5), microcontroller and heating cable (3) 10 It is used in operation. In the alternative application, the network connection terminal (9), By connecting to a photovoltaic system that generates solar energy, the panel's existing energy... It can be made to operate independently of its infrastructure. Color change occurring in the thermochromic layer (2) is perceived radon It is formed in three stages according to its concentration. That is, the thermochromic layer (2), 15 multiple color pigments to create a visual stimulus stage in different colors It features a tonal transition rather than a sharp separation between colors. It is present. Radon levels below 100 Bq / m³ constitute a safe level. This indicates a green color on the panel surface. The radon concentration is... A reading between 100 Bq / m³ and 300 Bq / m³ indicates the level of attention, and surface 20 It turns yellow. Radon levels reach 300 Bq / m³ or higher. If it exceeds this value, it indicates the danger level and a red color appears on the surface. The colors mentioned here are not mandatory and may vary depending on the surface. The colors received can be varied. The panel surface turning yellow or red indicates radon 25 in the environment. It shows the user that the temperature has reached a level requiring ventilation. If a color change is observed, the mechanical ventilation systems in the room It is operating at full capacity, and natural gas is being released by opening existing windows and escape doors. Ventilation and fresh air flow are provided. Thus, radon detection results are obtained. It does not remain merely a measurement data point; the user directly notices the difference. 30 a continuous spatial warning that can be monitored and enables ventilation measures to be taken It is transforming.

Claims

7 REQUESTS 1. Detection of radon gas accumulation in indoor spaces and detected radon the level is visually determined through the color change produced on the panel surface. A modular radon gas detecting panel surface 5 for conversion into a warning. It is a system, and its feature is; - the cassette (15) that holds the system components together and protects them from external influences. - the layers in the specified locations within the cassette (15) Grooved carrier profile with protrusions that allow it to be held (7), - formed at the bottom of the cassette (15) and the ambient air panel 10 gas inlet openings (17) that allow gas to be taken in - measuring the radon gas level in the air taken from the gas inlet openings (17) radon detection unit (6), - data received from radon detection unit (6) with determined threshold values comparing and if one of the threshold values ​​is exceeded, heater 15 microcontroller configured to activate cable (3) main control unit (5), which includes - thermochromic pigments homogeneously distributed in epoxy resin. thermochromic layer formed by mixing (2), - The heat required for the thermochromic layer (2) to change color is 20 heating cable (3) that produces its energy - heat generated by the heating cable (3) thermochromic layer (2) aluminum with high thermal conductivity, distributed homogeneously throughout. plate (4), - color change occurring in the thermochromic layer (2) from the outside 25 transparent outer protective layer that allows it to be seen (1), - the grid that transfers the electrical energy necessary for the system to operate connection terminal (9), - cable holders (16) that secure the electrical cables inside the panel and Transfer of electrical cables and installation lines outside the cassette (15) 30 It is characterized by including the installation outlet (14) which provides.

2. According to Claim 1, it is a panel surface system that detects radon gas, and its feature is; the detected Visual warning stages in different colors depending on radon concentration. 8 thermochromic layer containing multiple color pigments for the purpose of creating (2) is characterized by its inclusion. 10 20 30