CHEMICAL-FREE HARM REMOVAL THERMAL TREATMENT DEVICE
Patent Information
- Application Number
- TR202614191U
- Authority / Receiving Office
- TR · TR
- Patent Type
- Utility models
- Current Assignee / Owner
- Filing Date
- 2026-08-20
- Publication Date
- 2026-09-21
- Estimated Expiration
- 2036-08-20
Smart Images
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Abstract
Description
1 TARIFF CHEMICAL-FREE HARM REMOVAL THERMAL TREATMENT DEVICE Technical Area 5 The invention applies to accommodation facilities (hotels, apartments, guesthouses), public institutions (prisons, dormitories, barracks, Bed bugs (Cimex) in hospitals, nursing homes, teacher's residences, health facilities and residences. a chemical-free pest control method used against pests such as lectularius. It is related to the device. 10 The invention specifically allows for the separate determination of temperature and humidity values at the coldest point in the environment. By measuring with a sensor, it enables verification of the lethal temperature threshold at the critical point. with heating, dehumidification, hot air circulation and PLC-based control functions It relates to a device that applies a chemical-free thermal process. 15 State of the Art In the field of pest and insect control, particularly regarding human pests such as bed bugs (Cimex lectularius). The destruction of species living in close proximity to their hosts, 20 for housing and communal living spaces This is an important hygiene requirement. These pests are found in mattress and upholstery cores, and furniture. They nest in hard-to-reach areas such as backrooms, wall cavities, and seams. It exhibits high resistance during the egg stage and can reproduce rapidly. Therefore, methods used in pest control should not only be applied to surfaces, It needs to be effective even in the most protected spots where the pest is hiding. 25 In the current state of the art, pest control applications include chemical methods and Two main approaches are used: thermal methods and chemical methods. Methods used in chemical control include liquid or powder insecticides, spray applications, and Fumigation techniques are widely used. These methods target adult and nymph 30 Although it is effective against the developmental stages, it has a limited effect on the egg stage. The eggs... Its survival can lead to a rapid recurrence of the infestation. Also... The application was carried out due to the effects of chemical residues on human health. The premises need to be left empty for extended periods. Examples include hospitals, dormitories, and prisons. In areas where people are constantly present, this situation presents serious usage and operational limitations. 35 This leads to the development of resistance to chemical substances, which is another known problem. 2 In thermal methods, the aim is to eliminate all biological stages of the pest by altering the environment. The goal is to raise the temperature to a lethal threshold (usually 55–60 °C). In practice, electrical fan heaters, diesel hot air generators, various air circulation fans, and some Humidity measurement or humidity control units are used in the systems. With hot air. The pest eradication approach is a known method in the literature and is used in 5 different commercial systems. is being implemented. In current thermal applications, temperature measurement is mostly done from ambient air or This is done from the device's outlet. However, where the pest, and especially the eggs, are located... These areas are the points in the environment that receive heat the slowest and remain the coldest. Bed and mattress 10 Insulation areas include cores, furniture backs, wall cavities, and seams. Due to the materials and evaporative cooling, it cools down more slowly compared to the ambient air. It is heating up and can remain at a lower temperature. Therefore, the ambient air... reaching the target temperature, and ensuring the lethal threshold at the coldest point. It does not show. In thermal applications carried out without measurement, the process is 15. Even if considered complete, live organisms or eggs may remain at critical points. Thermal Another known problem in these methods is inadequate humidity management. Heated and In sealed environments, absolute water evaporation from textiles, walls, and furniture is a major problem. Humidity is rising. Moist, cold spots are occurring due to evaporative cooling. It remains both cool and moist. This makes the area where the egg is most protected. 20 It is formed. The killing mechanism is primarily desiccation (water loss). Therefore, high humidity raises the lethal temperature threshold and the required holding time. This prolongs the process. The non-uniformity of heat distribution is another known problem. Hot air becomes critical when the power / capacity is incorrectly selected or the airflow is insufficient. They cannot reach these points. Nests inside insulated wall cavities are 25 degrees below ambient temperature. They are protected against it and the lethal temperature is reached later. In current systems... It is documented that the process actually reaches the lethal threshold at the coldest point. No record is being generated. Furthermore, many heat treatment devices used in the market have high... These are comfort or workshop type heaters that are not designed to operate continuously at high temperatures. These devices cannot operate stably in an environment of 60 °C and their thermal protection will be activated. 30 For the reasons explained above, the current technique does not allow for lethal temperatures to be reached where the pest is hiding. We cannot guarantee that this is actually achieved at the most critical point; increased humidity, insulation and Factors such as evaporative cooling can raise the lethal threshold and affect the application. This leads to a decrease in its effectiveness. 35 3 In conclusion, the existence of the above problems and the inadequacy of the current solutions, This has made it necessary to make improvements in the technical field. Purpose of the Invention The present invention eliminates the aforementioned disadvantages and contributes to the relevant technical field. It relates to chemical-free pest control thermal treatment devices that offer new advantages. The main purpose of the invention is to separate the temperature and humidity values at the coldest point of the environment. 10 with heating, dehumidification, hot air circulation and PLC-based control functions The goal is to develop a device that applies chemical-free thermal processing. The purpose of the invention is to eliminate bedbugs and similar pests without using chemicals. In the fight, the temperature and humidity values at the coldest point of the environment are measured separately. a sensor that allows verification of the lethal temperature threshold at the critical point by measuring it. The goal is to create a device. Another aim of the invention is to improve the use of ambient air in existing thermal applications. The problem of not being able to achieve lethal temperature at critical points due to measurement is 20 to eliminate it, directly monitor the temperature in the regions that warm up the slowest. to offer devices. Another purpose of the invention is to reduce ambient humidity before the heating process, thereby facilitating desiccation. By strengthening its effect, the rising humidity in sealed and heated environments reaches a lethal temperature of 25°C. The goal is to create a device that solves the problem of raising the threshold. Another objective of the invention is to continuously monitor the critical point temperature and the holding time. only initiate evaporative cooling when the lethal threshold is confirmed at this point. This eliminates the problem of not being able to achieve a lethal effect in regions that remain cold. 30 The goal is to develop a device that can lift [the object]. Another aim of the invention is to lower the lethal temperature threshold by reducing ambient humidity through desiccation. a device that reduces the effect and thus prevents the holding time from being unnecessarily prolonged. to create a device. 35 4 Another aim of the invention is to provide stable and continuous operation with fans that can run at high temperatures. by providing directed air circulation, homogeneous air in existing systems a solution that solves the problem of hot air not reaching critical points due to its distribution The goal is to create a device. Another aim of the invention is to modulate heating according to data received from the critical point sensor. by insulating wall cavities and filling materials, in areas that heat up slowly. The goal is to develop a device that solves the problem of not being able to achieve lethal temperature. Another objective of the invention is to record critical point temperature and humidity values in a usable format. by observing that the process actually provides the lethal threshold in current thermal applications. A device has been developed that solves the problem of not being able to produce verifiable records. to place. Another aim of the invention is to design 15 that will operate stably at high temperatures. Comfort type heaters can operate continuously at 60°C thanks to their resistance and fan components. a solution that eliminates the problem of it not working and its thermal protection systems being activated The goal is to create a device. Another aim of the invention is to incorporate safety devices such as dual thermostats and tilt contacts, along with 20 the problem of not being able to control the risks of excessive temperature and tipping in existing systems The goal is to create a device that provides increasingly safer working conditions. Another objective of the invention is to limit the holding period solely to critical point verification. by initiating, the critical point is 25 due to the holding period being run over a fixed duration. The goal is to develop a device that eliminates the problem of failing to achieve a lethal effect. Another aim of the invention is to provide power suitable for different volumes and application conditions. A scalable thermal process for professional use, which can be produced in stages. The goal is to reveal the device. 30 Another purpose of the invention is to eliminate the need for prolonged idle periods in chemical applications. By eliminating the delay, the locations where the application is carried out can be served on the same day. The goal is to create a device that allows it to rotate. 35 Another aim of the invention is to completely eliminate the risk of chemical residue and toxicity. by removing them from places where people are constantly present, such as hospitals, prisons, dormitories, hotels, and residences. The goal is to create a device that can be used safely in all environments. Another aim of the invention is to improve the efficiency of the process by reducing the temperature and humidity at the coldest point to 5. by documenting their values through measurement-based records, to institutions or clients The goal is to create a device that produces presentable objective verification data. Another aim of the invention is to provide power suitable for different volumes and application conditions. 10 that can be produced in stages and used by institution personnel through training The goal is to create a scalable device. The structural and characteristic features and all the advantages of the invention are given in the figures below. And thanks to the detailed explanation written with references to these figures, it becomes clearer. This will be understood as such. Therefore, the evaluation should also include these forms and detailed explanations. 15 This should be done taking that into consideration. Figures that will help understand the invention. Figure 1: View of the disassembled thermal processing device, which is the subject of the invention. 20 Figure 2: Perspective view of the thermal processing device that is the subject of the invention. Figure 3: Front view of the thermal processing device that is the subject of the invention. Figure 4: Side view of the thermal processing device that is the subject of the invention. Explanation of Part References 25 10. Outer casing 20. Dehumidification unit 30. Suction fan 40. Dehumidification fan plate 30 50. Condensation tray 60. Wastewater tank 70. Wastewater discharge pump 80. Dehumidifier tank access panel 90. Warehouse mounting bracket 35 100. Resistor group 6 110. Blower fan 120. Resistance panel 130. Resistance group fan plate 140. Resistance panel top grille 150. Blower hood 5 160. High temperature safety thermostat 170. Internal temperature thermostat for the device. 180. Selection key 190. PLC controller and signal lamp 200. Ambient temperature and humidity sensor 10 210. Blind spot temperature and humidity sensor 220. Top cover 230. Control and switchgear group 240. Top control and power panel 250. Bottom plate 15 260. Power grid cable 270. Connector cable holder 280th Wheel 290. Front leg 300. Holding and carrying handle 20 Detailed Description of the Invention This detailed description outlines the preferred alternatives to the thermal processing device that is the subject of this invention. solely for the purpose of better understanding the subject and without any limiting influence. 25 It is explained in a way that will not create a problem. Figure 1 shows the disassembled view of the thermal processing device that is the subject of the invention. Accordingly, the thermal processing device in its most basic form is located inside an outer casing (10) and removes moisture from the environment through condensation, adjusting the humidity level to a minimum of 30. Dehumidification unit (20) which reduces the level to the level, dehumidification fan on the outer casing (10) Dehumidification unit (20) which is connected via the tray (40) and draws ambient air The suction fan (30) that passes through it, working together with the suction fan (30) and as a result of condensation Condensation located under the dehumidifier unit (20) to collect the water formed. 35 bottom pan (50) storing the condensate water directed from the condensate bottom pan (50). Wastewater tank (60), wastewater that discharges the water accumulated in the wastewater tank (60) 7 access to the discharge pump (70), wastewater tank (60) and wastewater discharge pump (70) access cover (80) of the dehumidification tank, outer casing of the wastewater tank (60) (10) storage mounting foot (90) which ensures that it is held in place, outer casing (10) connected to it via a resistance panel (120) and heating the ambient air resistor group (100), resistor group fan plate (130) on outer casing (10) 5 By connecting through it, it blows ambient air onto the resistance group (100) and blower fan (110) directing back to the environment, resistance group (100) outer casing (10) inside the resistance panel top grille (140), resistance on the outer casing (10) blower that directs the hot air coming from group (100) into the environment by blowing it forward. The range hood (150) limits the high temperature inside the appliance and excessive temperature inside the outer casing (10). In case of high temperatures, it shuts down the entire system by cutting off the power to reduce the risk of fire. high temperature safety thermostat (160), internal temperature of the device inside the outer casing (10) measuring and activating the resistance group if the internal temperature exceeds the predetermined value. (100) cooling device internal temperature thermostat (170), on the outer casing (10) of the device Selection switch (180) that enables selection of stepped operating modes, outer casing (10) 15 located inside, it controls and regulates the operating mode of the device by adjusting the ambient humidity. and keeps the temperature of the wastewater at the set values for the desired duration. PLC controller that audibly and visually reports the fill status of the tank (60) and The signal lamp (190) is placed in the ambient area via the outer casing (10) and the ambient By measuring the instantaneous temperature and humidity values, it sends them to the PLC controller and signal lamp (190) 20 The ambient temperature and humidity sensor (200) transmits the ambient temperature and humidity through the outer casing (10) to the ambient area. the temperature and humidity values at the coldest (blind) point of the environment where it is placed. Blind spot temperature and humidity measured and transmitted to PLC controller and signal lamp (190) sensor (210), top cover (220) which is closed on the outer casing (10), PLC controller and Controlling the device according to the signals from the signal lamp (190) and the tilt contact 25 Control and switch unit group (230) which ensures device safety, top cover (210) The upper control and power unit housing the control and switchgear unit group (230) underneath. panel (240), lower plate (250) located under the outer casing (10), control and switchgear unit The power grid cable that supplies mains power to the device by connecting to group (230) (260), power grid cable (260) with ambient temperature and humidity sensor (200) and blind 30 Connector that allows the point temperature and humidity sensor (210) cables to enter the device. The cable holder (270) is located on the lower surface of the base plate (250) and allows the device to be moved. The wheel (280) that provides the base plate (250) is located on the lower surface of the device and the floor front leg (290) which enables it to stand upright, located on the outer casing (10) and It includes a holding and carrying handle (300) that allows the device to be carried by holding it. 35 8 The outer casing (10), which forms the outer body of the thermal processing device that is the subject of the invention, and the inner body of the device It maintains its structure. Air is supplied through the vents located on the outer casing (10). Shopping is facilitated. The dehumidification unit (20) is located inside the outer casing (10). The said dehumidification unit is 5 Unit (20) adjusts the humidity level by removing the moisture from the environment by the condensation method. It reduces it to a minimum level. At least one suction fan (30) via the dehumidification fan plate (40) on the outer casing (10) It is connected. The said suction fan (30) is 10 which is suitable for the dehumidification unit (20). It is an axial fan that can operate continuously at a temperature of 80°C, drawing in ambient air and removing moisture. It passes through the receiving unit (20). Condensation tray (50) located under the dehumidification unit (20), suction fan (30) It works together with and collects the water formed as a result of condensation. The 15 in question... Condensation bottom tray (50) collects the water droplets formed as a result of condensation into the wastewater tank. (60) directing and helping to control possible water leaks The waste water tank (60) is mounted inside the outer casing (10) by means of the tank mounting foot (90). The condensate is connected in a fixed manner and directed from the condensate bottom tray (50). It stores water. Waste water tank (60) made of stainless steel material 20 It is a leakproof and drained structure. The water that accumulates in the wastewater tank (60) is discharged outside. At least one wastewater discharge pump (70) for discharge into the wastewater tank (60) It is connected to provide access to the wastewater tank (60) and the wastewater discharge pump (70). The dehumidification tank access cover (80) is placed on the outer casing (10). At least one resistor group is connected to the outer casing (10) via a resistor panel (120). (100) is connected. The said resistance group (100) heats the ambient air and AISI 316 stainless steel serpentine resistance blocks for air and humid environments. These blocks consist of 2 kW, 2.5 kW, or 3 kW power options, depending on the device power. They are positioned side by side. Heat insulation is applied to the sides of the resistance blocks. It has tables. At least one blower is placed on the outer casing (10) via the resistance group fan plate (130). The fan (110) is fixed. The said blower fan (110) is continuously at a temperature of 80°C. It is in a working structure and blows ambient air onto the resistance group (100) and 35 It redirects the heated air in the resistance group (100) back to the environment. 9 Resistor group (100) resistor panel placed inside outer casing (10) upper grille It is protected by being covered by (140) and sealed. On the outer casing (10) directing the hot air coming from the resistance group (100) into the environment by blowing it forward. There is at least one blower hood (150). The outer casing (10) limits the internal temperature of the device and in case of overheating. High temperature that shuts down the entire system by cutting off the power to reduce the risk of fire. There is a safety thermostat (160). This high temperature safety thermostat (160) is manually resettable, after the device has been checked, the back of the device It can be reinstalled from the section. Accordingly, high temperature safety 10 thermostat (160) is placed in the rear middle section on the outer casing (10) so that it is easily accessible. It is located. The device measures the internal temperature inside the outer casing (10) and the internal temperature is set to the specified value. If it is above, the internal temperature of the device cooling the resistance group (100) is 15 The device has a thermostat (170). The said device has an internal temperature thermostat (170), the device It activates when the internal temperature exceeds 45°C. (Internal temperature thermostat) (170) keeps itself and the resistance group (100) at a safe temperature even if the device is switched off. It cools until it reaches the high temperature of the resistance group (100). This has reduced the risk of fire and kept it indoors. 20 The outer casing (10) allows the selection of the device's stepped operating modes. There is a selector switch (180). The operation of the device is controlled by means of the selector switch (180). The speed settings are: 0: stop, 1: start + fan, 2: half capacity + fan, 3: full capacity + fan. is determined. 25 The reporting PLC controller and signal lamp (190) located inside the outer casing (10), By controlling and regulating the operating mode of the device, the ambient humidity and temperature can be adjusted. to keep the set values constant for the desired duration and the wastewater tank (60) It provides audible and visual information about the occupancy rate. 30 Ambient temperature and humidity sensor placed in the ambient location via the outer casing (10) (200), by measuring the instantaneous temperature and humidity values of the environment, PLC controller and signal It transmits to the lamp (190). At the same time, it transmits to the ambient area via the outer casing (10). The placed blind spot temperature and humidity sensor (210) also detects the coldest (blind) spot of the environment at 35°C. by measuring the temperature and humidity values at that point and sending them to the PLC controller and signal lamp. (190) transmits. A top cover (220) is placed on the outer casing (10). The said top cover (220), It is designed to be easily disassembled and reassembled for maintenance, adjustment, and inspection. 5 Inside the outer casing (10), signals from the PLC controller and the signal lamp (190) According to the control system, the device is controlled and its safety is ensured by a tilt contact. and switchgear unit group (230) is located. Fire and with the aforementioned tilting contact. Safety against electrical accidents has been ensured. Additionally, the control and switchgear unit group 10 (230), via the top control and power panel (240) under the top cover (210). It has been preserved. The control and switchgear unit group (230) supplies the device with mains power. The power supply cable (260) is connected. With the power supply cable (260) ambient temperature and humidity sensor (200) and blind spot temperature and humidity sensor (210) The cables are inserted into the device via a connector cable holder (270). 15 A bottom plate (250) is attached to the bottom surface of the outer casing (10). The said bottom plate (250) on the bottom surface, the wheel (280) that enables the device to move and the device to the ground Front legs (290) are fitted to enable it to stand upright. Outer casing (10) The device can be carried by holding it using the handle (300) on it. is provided. The thermal processing device described in the invention is powered by a power grid cable (260). The mains cable (260) passes through the gland cable holders (270) to the upper control and power It reaches the control panel (240) and the control and switchgear unit group (230). Application 25 before the room, ambient temperature and humidity sensor (200) detects where the heat arrives last, to the coldest spot (for example, the core of a mattress, the back of furniture, or a wall cavity) A blind spot temperature and humidity sensor (210) is installed. The ambient temperature and humidity in question sensor (200) and blind spot temperature and humidity sensor (210) an extension cable It is connected to the PLC controller and signal lamp (190) via. The device's operation is 30 The level is determined by the selection switch (180). Thus the device is ready to work. It will be brought. The thermal processing device essentially performs the application in four phases. Accordingly, The device's operating principle is as follows: 35 11 1. Phase One: Moisture Reading and Dehumidification When the device is started, the PLC controller and signal lamp (190), ambient temperature and ambient temperature and humidity sensor (200) and blind spot temperature and humidity sensor (210) It reads the humidity. If the measured humidity is above the set target humidity level and the environment If the temperature is within the range in which the dehumidifier unit (20) can operate efficiently, then the dehumidifier unit 5 (20) comes into play. The target relative humidity value is adjustable and low humidity is targeted. (Typically set within a relative humidity range of 20–60%). Due to its condensing operating principle. Dehumidification unit (20), ambient temperature above a certain upper limit (typically ~35 °C) It works efficiently when below this limit. When this limit is exceeded, the PLC controller and signal lamp (190) It switches off the dehumidifier (20) and prioritizes heating. 10 The dehumidifier unit (20) draws in ambient air with the suction fan (30) and condenses it. It absorbs moisture from the air. The condensed water flows through the condensate tray (50) to the wastewater tank. (60) is directed. The wastewater tank (60) is raised on the tank mounting foot (90). It is positioned as follows. The water collected in the wastewater tank (60) is discharged by the wastewater discharge pump 15 It is discharged through (70). Access to the wastewater tank (60) and wastewater discharge pump (70), moisture The receiving tank is accessed via the access hatch (80). During the first phase, the device operates for an adjustable period of time (typically around 30 in practice). It reduces the ambient humidity to the target value by working for 20 minutes. The ambient humidity reaches the target value. When this occurs, the dehumidification unit (20) is switched off and the appliance switches to the ambient heating phase. Premature desiccation accelerates the lethal mechanism, leading to death. It helps to ensure the threshold is maintained more effectively at the coldest point. 2. Second Phase: Ambient Heating 25 The blower fan (110) blows ambient air onto the resistance group (100). Resistance The heated air in group (100) is directed forward to the environment through the blower hood (150). It is supplied. The ambient air is continuously circulated by the blower fan (110) and the suction fan (30). Blower fan (110) and suction fan (30) so that it can work without malfunction in hot circulation. 30 axial fan with metal blades and metal housing, capable of continuous operation at 80°C. It has been designed. 3. Third Phase: Coldest Point Verification and Retention During heating, the PLC controller and signal lamp (190) monitor both ambient temperature and humidity. It constantly monitors the sensor (200) and the blind spot temperature and humidity sensor (210). 35 The holding time is only determined by the ambient temperature and humidity sensor (200) and the blind spot. 12 when the temperature and humidity sensor (210) confirms the lethal threshold (target minimum 60°C) It is started. Even if the ambient temperature and humidity sensor (200) detects this value earlier, it is blind. The hold time does not start until the point temperature and humidity sensor (210) detects 60°C. Because the coldest point is the area that heats up the slowest. Ambient temperature and humidity sensor (200) and blind spot temperature and humidity sensor (210), From the moment it confirms the lethal threshold, the PLC controller and signal lamp (190), It starts counting the holding time set for heating and keeps the environment at least warm for that time. It maintains a constant temperature of 60°C. Lethal temperature threshold (target minimum 60°C) and retention time. It can be adjusted according to the structure of the location and the application. PLC controller 10 throughout the holding period. and signal lamp (190) modulates the resistance group (100) according to the selected level. and, if necessary, the ambient humidity is adjusted to a low level with the dehumidifier unit (20). amount. Process status and wastewater tank (60) fullness, PLC controller and signal lamp (190) is reported as a visual and audible warning. The thermal processing device described in this invention measures the outcome of the heat treatment at the most critical point. This confirms the point. The holding time is not based on a fixed period, but on ambient temperature. and humidity sensor (200) and blind spot temperature and humidity sensor (210)) lethal threshold (target minimum 60 °C) verification condition is met and thus The lethal temperature is controlled to the point where it is most difficult to heat the environment. is being received. Failure and limiting state behavior: Blind spot temperature and humidity sensor (210) lethal threshold as long as it cannot be seen (for example, due to structural heat leakage or an insulated cavity) The timer does not start. The device continues heating and provides a light and sound warning if necessary. 25 It reports the situation. In this way, the process is completed before the measured result is obtained at the most critical point. It does not end as completed. 4. Closing and Cooling When the specified holding time is completed, the resistance group (100) and dehumidifier unit 30 (20) stops. The PLC controller and signal lamp (190) indicate that the process is complete. This is indicated by signal lights and an audible warning. Then the device shuts itself off and the internal components... By activating the temperature thermostat (170), the appliance and the resistance group (100) are safely activated. It cools the device until it reaches a certain temperature. This cooling is directed towards the device's own components and It reduces the fire risk due to the resistance group (100) remaining at a high temperature. 35 13 The cooling of the environment (space) is not performed by the device. After the holding time is over The environment itself or the ventilation of the facility where the application is carried out or It cools with its air conditioner. The cooling function of the device is only safe for its own internal components. It is limited to bringing it to the desired temperature. Throughout the application, the temperature and humidity values at the coldest point can be recorded. This The record documents that the transaction was verified at the most critical point. The thermal processing device described in this invention is manufactured with different power and capacities but operating on the same principle. It can be produced. 10 20
Claims
14 REQUESTS 1. Accommodation facilities (hotels, apartments, guesthouses), public institutions (prisons, dormitories, barracks, hospitals, nursing homes, teacher's residences), health facilities and residences 5 ways to get rid of bed bugs (Cimex lectularius) and similar pests without using chemicals. It is a thermal processing device used in the fight against disease, and its feature is; - an outer case (10), - located inside the outer casing (10) and the moisture in the environment condenses by taking it down to the minimum level that is adjusted using this method Dehumidifier unit (20), 10 - connected to the outer casing (10) and dehumidifying by drawing in ambient air. suction fan (30) passing through unit (20), - working together with the suction fan (30) and the water resulting from condensation located under the dehumidification unit (20) to collect Condensation bottom tray (50), 15 - storing the condensate water directed from the condensate bottom tray (50) wastewater tank (60), - wastewater discharge that discharges the water accumulated in the wastewater tank (60) pump (70), - resistor 20 which is connected to the outer casing (10) and heats the ambient air group (100), - connected to the outer casing (10) to the ambient air resistance group (100) blowing fan (110) that blows on and redirects it back to the environment, - hot air coming from the resistance group (100) on the outer casing (10) blower hood (150) that directs air into the environment by blowing forward, 25 - Selection of the device's stepped operating modes on the outer casing (10) providing selection key (180), - located inside the outer casing (10) and controlling the operating regime of the device and by controlling the ambient humidity and temperature to the set values. keeping the wastewater tank (60) full for the desired period of time PLC controller and signal that indicates the status audibly and visually. lamp (190), - placed in the ambient location via the outer casing (10) and the instantaneous ambient by measuring temperature and humidity values and sending them to the PLC controller and signal lamp. (190) transmitting ambient temperature and humidity sensor (200), 35 - placed in the ambient location via the outer casing (10) and the most of the ambient By measuring the temperature and humidity values at the cold (blind) point, the PLC Blind spot temperature and humidity transmitted to the controller and signal lamp (190). sensor (200), - 5 according to the signals from the PLC controller and the signal lamp (190). the device is controlled and its safety is ensured by the tilt contact. control and switchgear unit group (230), - bottom plate (250) located under the outer casing (10), - mains power is supplied to the device by connecting to the control and switchgear unit group (230). It includes the power grid cable (260) that provides energy. 10 2. A thermal processing device conforming to Claim 1, whose characteristic is that the aforementioned suction fan (30) dehumidification fan plate (40) which connects to the outer casing (10) It includes.
3. A thermal processing device that complies with Claim 1, and its feature is the aforementioned outer casing (10) located on it and the wastewater tank (60) and the wastewater discharge pump (70) It includes an access dehumidifier tank access hatch (80).
4. A thermal processing device that complies with Claim 1, and whose characteristic is; the aforementioned wastewater 20 warehouse (60) which ensures that the warehouse is kept fixed inside the outer casing (10) It includes a mounting foot (90).
5. A thermal processing device conforming to Claim 1, whose characteristic is; the aforementioned resistance. resistor 25 which enables the connection of the group (100) to the outer casing (10). It includes panel (120).
6. A thermal processing device conforming to Claim 1, whose characteristic is that the aforementioned blower fan (110), resistance group fan that connects to the outer casing (10). It includes the table (130). 30 7. A thermal processing device conforming to Claim 1, whose characteristic is the aforementioned resistor. resistance panel top grille (140) covering the group (100) inside the outer casing (10) It includes. 35 16 8. It is a thermal processing device that complies with Claim 1, and its feature is the aforementioned outer casing (10) inside the device limits the high temperature and prevents fire in case of excessive temperature. high temperature that shuts down the entire system by cutting off the power to reduce the risk It contains a safety thermostat (160).
9. It is a thermal processing device that complies with Claim 1, and its feature is the aforementioned outer casing (10) inside the device measures the internal temperature and when the internal temperature exceeds a predetermined value In case of this, the internal temperature of the device cools the resistance group (100). It contains the thermostat (170).
10. A thermal processing device that complies with Claim 1, and its feature is the aforementioned outer casing (10) It contains a top cover (220) that is closed on top.
11. A thermal processing device conforming to Claim 1, whose features include the aforementioned control and Upper control and power panel (240) housing the switchgear unit group (230) 15 It includes.
12. A thermal processing device conforming to Claim 1, whose characteristic is; the aforementioned energy grid ambient temperature and humidity sensor (200) with cable (260) and blind spot temperature and 20 cable holder that allows the humidity sensor (210) cables to enter the device. (270) is included.
13. A thermal processing device conforming to Claim 1, and its feature is the aforementioned bottom plate (250) wheel located on the bottom surface that enables the device to move (280) It includes. 25 14. A thermal processing device conforming to Claim 1, and its feature is the aforementioned bottom plate (250) front panel located on the bottom surface, which ensures the device remains stable on the ground. It contains feet (290).
15. It is a thermal processing device that complies with Claim 1, and its feature is the aforementioned outer casing (10) grip and carrying handles located on it, which allow the device to be held and carried. It includes the handle (300). 35