Indoor wood floor laying process with intelligent temperature control and humidity balance functions

Abstract

The invention discloses an intelligent temperature control and humidity balance indoor wood floor laying process which comprises the following steps: firstly, measuring the ground in a gridding manner according to the interval of 50cm by using a gradienter with the precision of + / -0.5 mm, and marking an uneven area; the convex part is polished by an electric polisher with 80-mesh and 240-mesh abrasive paper in sequence until the error is within + / -2mm, the concave part is filled with self-leveling cement and is cured after 24-48 hours, and bubbles are eliminated by a defoaming roller during the period. And then, a moisture-proof vapor-proof film with the thickness being larger than or equal to 0.2 mm is laid, lap joint is larger than or equal to When the wood floors are spliced, operation is carried out according to a preset pattern by means of a tenon-and-mortise splicing clamp, butt joint of the conductive connecting pieces is guaranteed, and flatness and right-angle precision are checked after laying of each row of the conductive connecting pieces is completed. The intelligent control module is installed on a suitable wall surface in a punching mode, a data line is connected, and conductivity is detected. And finally, starting the module, setting at least five detection points, continuously recording temperature and humidity data for 4-6 hours, simulating a temperature and humidity change scene, recording a system adjustment time node, ensuring a process effect, and realizing intelligent temperature and humidity regulation and control of the wood floor.

Description

Technical Field

[0001] The present invention relates to the technical field of interior decoration, and in particular to an indoor wooden floor laying process with intelligent temperature control and humidity balance. Background Art

[0002] In the field of interior decoration, wooden flooring is popular among consumers for its natural beauty and comfortable touch. However, traditional indoor wooden flooring has exposed many drawbacks when dealing with complex and changing indoor environments. When indoor temperatures fluctuate significantly, wooden floors are susceptible to thermal expansion and contraction. In the sweltering summer heat, the heat causes wooden floors to expand, squeezing adjacent planks against each other. This often results in deformations such as buckling and warping, severely damaging the floor's overall flatness and aesthetics. In the cold winter, temperatures plummet, and wooden floors contract again due to the cold, widening gaps between boards. This not only affects the aesthetics but also harbors dirt, making cleaning more difficult. This frequent cycle of expansion and contraction significantly shortens the lifespan of wooden floors, forcing consumers to frequently replace them, resulting in wasted resources and financial losses. Humidity is also a key factor affecting the performance of wood flooring. During the rainy season in southern China or in humid coastal areas, humidity remains high for extended periods. Wood flooring absorbs large amounts of moisture, causing it to swell, deform, and even become moldy and rotten. This not only seriously damages the floor's quality but can also breed bacteria and mold, posing a health threat to occupants. In the north, during dry seasons or in environments with prolonged air conditioning and heating, humidity is low. Water loss can cause wood flooring to shrink and crack, impacting its structural stability and functionality. Common approaches to addressing indoor temperature and humidity issues include relying on air conditioning to regulate temperature and using dehumidifiers to adjust humidity. However, these methods have significant drawbacks. Firstly, air conditioners and dehumidifiers consume enormous amounts of electricity during operation, significantly increasing energy costs and running counter to current energy conservation and environmental protection priorities. Secondly, these devices can only regulate the indoor macro-environment and are unable to precisely control the micro-environment of wooden floors. Abnormal temperature and humidity in localized areas of wooden floors are difficult to effectively address, and damage to traditional wooden floors caused by temperature and humidity issues remains a frequent occurrence. In summary, developing an innovative laying process that can automatically and accurately adjust the temperature and humidity of the wooden floor environment has become a key issue that needs to be urgently addressed in the field of interior decoration. Summary of the Invention

[0003] The present invention aims to provide an indoor wood flooring installation process with intelligent temperature control and humidity balance. This process can autonomously and precisely regulate the temperature and humidity of the wood flooring's microenvironment. This effectively prevents deformation, cracking, warping, shrinkage, and other damage to the wood flooring caused by temperature and humidity fluctuations, significantly extending its service life and reducing replacement costs. Furthermore, it creates a healthier and more comfortable indoor living environment for users, while demonstrating energy-saving and high-efficiency during operation, in line with current green and environmentally friendly development concepts.

[0004] The present invention is achieved through the following technical solutions: A process for laying indoor wooden flooring with intelligent temperature control and humidity balance comprises the following steps: Step S1: Using a high-precision level with a measurement accuracy of ±0.5 mm, perform grid measurements on the indoor floor at 50 cm intervals to determine the uneven areas of the floor; Step S2: For raised areas of the floor, use an electric sander with a power of 1000-1500W to first sand with 80-grit coarse sandpaper, then fine-grind with 240-grit fine sandpaper, so that the error between the ground and the horizontal reference plane is controlled within ±2mm after sanding; for sunken areas, fill them with self-leveling cement and wait for 24-48 hours for them to dry and solidify; Step S3: Laying a moisture-proof and vapor-barrier membrane with a thickness of not less than 0.2 mm, with the overlapping width of adjacent membranes not less than 100 mm, and sealing the overlapping joints with sealing tape; Step S4: Splice the wooden flooring with the mortise and tenon structure and the conductive connector according to a preset pattern. Use a mortise and tenon splicing clamp to apply pressure during splicing to ensure that the tenon and the mortise fit tightly together and that the conductive connectors at the edges of the flooring are accurately connected. After each row of wooden flooring is laid, use a level and a square to check the flatness and right-angle accuracy. For uneven or angled floors, use a wooden wedge or a rubber hammer to make minor adjustments. Step S5: Install the intelligent control module on a wall near a power outlet, convenient for operation, out of direct sunlight, away from heat and water sources, and without strong electromagnetic interference. During installation, use an impact drill to drill a hole with a depth of 50-60 mm and a diameter of 8-10 mm. Step S6: Connect the intelligent control module to the intelligent control network of the wooden floor via a data cable; Step S7: Turn on the power to start the intelligent control module; use a professional temperature and humidity tester to set up at least five detection points in different locations in the room, including corners, the center, near windows and doorways, record temperature and humidity data every 15 minutes, continue the detection for 4-6 hours and draw a change curve; simulate various temperature and humidity change scenarios, use electric heaters and air conditioners to change the temperature, and use humidifiers and sprayers to adjust the humidity.

[0005] As a further improvement to the technical solution of the present invention, before processing the uneven ground area, the raised and depressed parts and their ranges are first comprehensively measured and marked, and then the grinding and filling operations are carried out.

[0006] As a further improvement to the technical solution of the present invention, when laying the moisture-proof and vapor-barrier membrane, the membrane surface is kept flat and wrinkle-free, and the parts to be cut are accurately cut with a utility knife so that they fit tightly against the corners of the wall or around the pipes.

[0007] As a further improvement to the technical solution of the present invention, before splicing wooden floors, the outline of the laying pattern and the position of each wooden floor are marked on the ground with ink lines or masking tape according to the shape, size and user needs of the room.

[0008] As a further improvement to the technical solution of the present invention, before installing the intelligent control module, a level is used to determine the levelness of the installation position.

[0009] As a further improvement to the technical solution of the present invention, if any problems are found during the debugging and testing process, the wooden floor circuit connection, intelligent control module parameter settings, and temperature and humidity sensing components are checked.

[0010] As a further improvement to the technical solution of the present invention, during the self-leveling cement filling process, a defoaming roller is used to eliminate surface bubbles.

[0011] As a further improvement to the technical solution of the present invention, the construction progress is reasonably arranged during the paving process, with skilled workers paving an area of 15-20 square meters per day, and obvious warning signs are set up at the construction site.

[0012] As a further improvement to the technical solution of the present invention, when simulating the temperature and humidity change scene detection system, the system records the time nodes from when the temperature and humidity exceed the preset range to when the adjustment action is started.

[0013] As a further improvement to the technical solution of the present invention, the data line connection follows the correct interface direction and sequence, and after the connection is completed, the conductivity of the data line is tested with a multimeter.

[0014] In summary, the present invention has the following beneficial effects: Technically, innovative micro-nano-scale temperature and humidity sensing elements are embedded, combined with phase change and moisture absorption / release materials to construct an intelligent adjustment layer, revolutionizing the floor structure; mortise and tenon conductive connectors and intelligent control modules are used to create a new path for intelligent paving technology. The user experience is significantly improved. Precise temperature and humidity control effectively prevents deformation and cracking caused by temperature and humidity issues with traditional wood floors. Testing has shown that the service life of wood floors is at least 30% longer than traditional wood floors. Furthermore, maintaining a comfortable indoor temperature of 22°C to 26°C and humidity of 40% to 60% significantly enhances living comfort. The economic and environmental benefits are outstanding. Taking a 100-square-meter room as an example, compared with traditional air conditioning and dehumidifier control methods, this system reduces monthly energy consumption by approximately 50 degrees, saving users electricity bills while also contributing to energy conservation and environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Other features, objects and advantages of the present invention will become more apparent upon reading the detailed description of non-limiting embodiments with reference to the following drawings: Figure 1 The present invention provides a flowchart of an indoor wooden floor laying process with intelligent temperature control and humidity balance. DETAILED DESCRIPTION

[0016] In order to make the purpose, features, and advantages of this application more obvious and easy to understand, the technical solutions in the embodiments of this application are clearly and completely described. Obviously, the embodiments described below are only part of the embodiments of this application, not all of them. Based on the embodiments in this application, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0017] Reference Figure 1 , a process for laying indoor wooden flooring with intelligent temperature control and humidity balance, comprising the following steps: Step S1: Using a high-precision level with a measurement accuracy of ±0.5 mm, perform grid measurements on the indoor floor at 50 cm intervals to determine the uneven areas of the floor; Step S2: For raised areas of the floor, use an electric sander with a power of 1000-1500W to first sand with 80-grit coarse sandpaper, then fine-grind with 240-grit fine sandpaper, so that the error between the ground and the horizontal reference plane is controlled within ±2mm after sanding; for sunken areas, fill them with self-leveling cement and wait for 24-48 hours for them to dry and solidify; Step S3: Laying a moisture-proof and vapor-barrier membrane with a thickness of not less than 0.2 mm, with the overlapping width of adjacent membranes not less than 100 mm, and sealing the overlapping joints with sealing tape; Step S4: Splice the wooden flooring with the mortise and tenon structure and the conductive connector according to a preset pattern. Use a mortise and tenon splicing clamp to apply pressure during splicing to ensure that the tenon and the mortise fit tightly together and that the conductive connectors at the edges of the flooring are accurately connected. After each row of wooden flooring is laid, use a level and a square to check the flatness and right-angle accuracy. For uneven or angled floors, use a wooden wedge or a rubber hammer to make minor adjustments. Step S5: Install the intelligent control module on a wall near a power outlet, convenient for operation, out of direct sunlight, away from heat and water sources, and without strong electromagnetic interference. During installation, use an impact drill to drill a hole with a depth of 50-60 mm and a diameter of 8-10 mm. Step S6: Connect the intelligent control module to the intelligent control network of the wooden floor via a data cable; Step S7: Turn on the power to start the intelligent control module; use a professional temperature and humidity tester to set up at least five detection points in different locations in the room, including corners, the center, near windows and doorways, record temperature and humidity data every 15 minutes, continue the detection for 4-6 hours and draw a change curve; simulate various temperature and humidity change scenarios, use electric heaters and air conditioners to change the temperature, and use humidifiers and sprayers to adjust the humidity.

[0018] Specifically, in this embodiment, before processing the uneven area on the ground, the raised and recessed parts and their ranges are first comprehensively measured and marked, and then the grinding and filling operations are performed.

[0019] Specifically, in this embodiment, when laying the moisture-proof and vapor-barrier membrane, the membrane surface is kept flat and wrinkle-free, and the parts to be cut are precisely cut with a utility knife so that they fit tightly against the corners of the wall or around the pipes.

[0020] Specifically, in this embodiment, before the wooden floor is spliced, the outline of the laying pattern and the position of each wooden floor are marked on the ground with ink lines or masking tape according to the shape, size and user needs of the room.

[0021] Specifically, in this embodiment, before installing the intelligent control module, a level meter is used to determine the levelness of the installation location.

[0022] Specifically, in this embodiment, if any problems are found during the debugging and testing process, the wooden floor circuit connection, intelligent control module parameter settings, and temperature and humidity sensing components are checked.

[0023] Specifically, in the present embodiment, during the self-leveling cement filling process, a defoaming roller is used to eliminate surface bubbles.

[0024] Specifically, in this embodiment, the construction progress is reasonably arranged during the paving process, skilled workers pave an area of 15-20 square meters per day, and obvious warning signs are set up at the construction site.

[0025] Specifically, in this embodiment, when simulating the temperature and humidity change scene detection system, the system records the time nodes from when the temperature and humidity exceed the preset range to when the adjustment action is started.

[0026] Specifically, in this embodiment, the data line connection follows the correct interface direction and sequence, and after the connection is completed, the conductivity of the data line is tested with a multimeter.

[0027] It should be noted that the floor structure design of the present invention: Wear-Resistant Surface: The top wear-resistant surface layer is made of specially treated melamine-impregnated paper, which offers exceptional hardness and wear resistance. This special treatment enhances the surface's density, effectively resisting damage from everyday foot traffic, such as friction and scratches. This ensures the floor remains smooth and flat over time, maintaining its aesthetic appeal and minimizing the need for replacement due to surface wear.

[0028] Intelligent Temperature Control and Humidity Regulation Layer: This intermediate layer is the core innovation of this invention. Its built-in micro-nanoscale temperature and humidity sensors are extremely sensitive, enabling them to quickly and accurately detect subtle changes in the temperature and humidity of the wood floor's surroundings. The microchannel structure is ingeniously designed, with phase change materials and moisture-absorbing / desorbing materials working in synergy. For example, paraffin-based phase change materials absorb heat and transform from solid to liquid when the temperature rises, storing heat and lowering the wood floor's surface temperature. When the temperature drops, the liquid paraffin releases heat, returning to its solid state and raising the floor's surface temperature. The montmorillonite composite material, acting as a moisture-absorbing / desorbing material, absorbs moisture through its porous structure when humidity is high, preventing the wood floor from dampness. At lower humidity levels, it slowly releases stored moisture to maintain a stable humidity level. This integrated design enables real-time, dynamic regulation of temperature and humidity.

[0029] Stable base: The bottom layer is made of solid wood plywood or high-density fiberboard. Solid wood plywood is made by pressing multiple layers of solid wood veneer in a crisscross pattern. It offers excellent stability and effectively distributes stress from the ground, preventing deformation caused by uneven force. High-density fiberboard, with its uniform texture and high strength, provides solid and reliable support for the entire wood flooring structure, ensuring the floor remains stable over long-term use.

[0030] Laying process Floor Pretreatment: Before laying, thoroughly measure the floor using a high-precision level or other measuring tools to accurately identify any uneven areas. For uneven surfaces, professional sanding equipment is used to remove protrusions. Concave areas are then filled with a filling material, such as self-leveling cement, ensuring the floor's flatness is kept to a minimum of ±2mm, providing a good foundation for subsequent wood flooring installation.

[0031] Laying the moisture-proof and vapor barrier film: Lay the film flat on the leveled floor, overlapping adjacent films with a minimum overlap of 100mm. Use sealing tape to tightly seal the overlap. This effectively prevents moisture from seeping upward, protecting the wood floor from underground moisture and extending its lifespan.

[0032] Wood flooring splicing and circuit connection: Following a carefully designed laying pattern, the wood flooring is laid starting from one corner of the room. The unique mortise and tenon joints along the flooring's edges create a tight fit, not only strengthening the joints between the floorboards but also ensuring the overall smoothness of the flooring. Furthermore, the conductive connectors within the mortise and tenon joints precisely connect during the splicing process, connecting each floorboard's intelligent temperature control and humidity regulation layer's circuits in turn. This creates a complete intelligent control network covering the entire laying area, ensuring unimpeded signal transmission.

[0033] Intelligent Control Module Installation: Install the intelligent control module on the wall of the room near a power outlet and in an easily accessible location. Securely connect the intelligent control module to the wooden floor's intelligent control network via a data cable to ensure stable and accurate data transmission. The intelligent control module acts as the "brain" of the entire system, receiving data from temperature and humidity sensors based on user-defined temperature ranges (e.g., 22°C-26°C) and humidity ranges (e.g., 40%-60%). It then precisely controls the operating states of the phase change material and moisture absorption / desorption materials, achieving intelligent regulation.

[0034] Overall Commissioning and Testing: After the wood flooring is laid, power on the intelligent control module. A professional temperature and humidity tester is used to comprehensively test the temperature and humidity of the wood flooring's surroundings to verify that the intelligent temperature control and humidity balance system accurately adjusts to preset values. Various temperature and humidity fluctuation scenarios are simulated, such as rapidly increasing or decreasing the indoor temperature and significantly increasing or decreasing the indoor humidity, to test the system's response speed and effectiveness. After a period of continuous operation and comprehensive testing, the system's stable operation and excellent regulation are ensured, completing the entire wood flooring installation process. Example:

[0035] Preliminary preparation Material Procurement: Based on the floor structure design presented in this invention, custom-made wooden flooring with intelligent temperature and humidity control layers was obtained from a professional manufacturer. The wear-resistant surface layer of the wood flooring, melamine-impregnated paper, was rigorously tested for wear and stain resistance, ensuring that its performance met high industry standards. The micro- and nano-scale temperature and humidity sensors in the middle layer were selected from reputable brands with high sensitivity and fast response, ensuring accurate sensing of ambient temperature and humidity changes. Phase change material and moisture absorption / dissipation materials were mixed and filled into the microchannel structure in a scientifically formulated ratio. Multiple experiments verified that the phase change temperature range was 20°C-30°C, and that moisture absorption and release performance met pre-determined requirements. The base layer consisted of solid wood plywood or high-density fiberboard, with uniform material quality, no obvious defects, and sufficient strength. A sufficient quantity of moisture-proof and vapor-barrier membranes, at least 0.2mm thick, were purchased, offering excellent moisture-proof and vapor-barrier properties and meeting environmental standards.

[0036] Tool preparation: Prepare a high-precision level with a measurement accuracy of up to ±0.5mm for accurately measuring the flatness of the floor. Equip professional grinding equipment, such as an electric grinder with a power of 1000-1500W, with sandpaper of different mesh sizes to meet the grinding needs of uneven areas on the floor. Purchase high-quality filling materials such as self-leveling cement to ensure that the ground is flat and firm after filling. Prepare special splicing tools for laying wooden floors, such as mortise and tenon splicing clamps, which can apply uniform and stable pressure during the splicing process to ensure that the mortise and tenon structure of the floor fits tightly. At the same time, prepare conventional tools such as screwdrivers and wrenches required for installing the intelligent control module, as well as professional tools such as crimping pliers for connecting data cables.

[0037] Ground handling Comprehensive measurement: Use a high-precision level to perform a grid measurement of the entire indoor floor, setting measurement points every 50 cm and recording detailed ground elevation data at each point. Through data analysis, we pinpoint uneven areas and mark the areas of protrusions and depressions, as well as their extent.

[0038] Grinding: For raised areas, start an electric sander and select sandpaper of appropriate grit based on the height of the raised area and the surface material. Begin with coarse sandpaper (e.g., 80 grit) to remove any larger protrusions. Gradually switch to finer sandpaper (e.g., 240 grit) for finer sanding until the surface reaches the required flatness. Throughout the grinding process, continuously check the surface with a spirit level to ensure the surface remains within ±2mm of the horizontal reference plane.

[0039] Filling and Repair: For sunken areas, mix the self-leveling cement according to the product instructions and stir thoroughly. Use a scraper to evenly apply the prepared self-leveling cement to the sunken area, adjusting the thickness according to the depth of the sunken area, slightly higher than the surrounding floor. During the self-leveling process, use a defoaming roller to eliminate surface bubbles to ensure a smooth and level surface after filling. After the self-leveling cement has completely dried and solidified (usually 24-48 hours, depending on the product characteristics), retest it with a spirit level and perform a second filling and repair on any areas that still do not meet the flatness requirements.

[0040] Moisture-proof and vapor-barrier membrane laying Laying Procedure: Start laying the film from one corner of the room, keeping it flat and wrinkle-free. Adjacent films should be joined by overlapping each other, with the overlap width strictly controlled to at least 100mm. Use sealing tape to tightly seal the overlap, ensuring it adheres securely and without gaps to prevent moisture from penetrating through the joint. During the laying process, be careful to avoid obstructions such as corners and pipes on the floor. For areas that require cutting, use a utility knife for precise cutting, ensuring the film fits snugly around the obstruction.

[0041] Quality Inspection: After the moisture barrier film is laid, conduct a comprehensive inspection of the entire installation area. Focus on the seal at the overlapped joints. Press the sealing tape manually to check for looseness or warping. Any leaks should be repaired with re-tape. Also, inspect the film for damage. If any, repair with additional film patches to ensure its integrity and effectiveness.

[0042] wooden flooring installation Pattern Planning: Before installation, carefully design the flooring pattern based on the room's shape and size, as well as the user's individual needs. Common patterns include straight, I-shaped, and herringbone. Mark the outline of the pattern and the position of each wood flooring piece on the floor using ink or masking tape to ensure an orderly installation process.

[0043] Splicing installation: Start laying the wooden flooring from the marked starting position. Align the tenon of the first wooden floorboard with the mortise of the adjacent floorboard and slowly push it forward while using a mortise and tenon splicing clamp to apply appropriate pressure so that the tenon and mortise fit tightly together to ensure there are no gaps at the splice. During the splicing process, carefully check that the conductive connectors at the edges of the floorboards are accurately connected. If there are any deviations, adjust the position of the wooden floorboards in time to ensure a smooth circuit connection. After laying each row of wooden floorboards, use a level and a square to check the flatness of the floorboards and the accuracy of the right angles between adjacent floors. For uneven or angled floors, use wooden wedges or a rubber hammer to make fine adjustments to ensure that each floorboard is laid to the required quality.

[0044] Progress Control: During the installation process, plan the construction schedule appropriately. Develop a daily installation schedule based on the room size and the number of workers. Generally, a skilled worker can lay 15-20 square meters of wood flooring per day. Also, ensure that the finished product is protected during installation to prevent damage such as collisions and scratches. Clear warning signs should be placed at the construction site to prohibit unauthorized personnel from entering the construction area.

[0045] Intelligent control module installation Location Selection: Install the intelligent control module on a wall near a power outlet and easily accessible. Avoid direct sunlight, heat sources, and water sources, and ensure there is no strong electromagnetic interference. Use a level to ensure the installation location is level. Use an impact drill to drill a hole in the wall. The hole should be 50-60 mm deep and 8-10 mm in diameter. Adjust the hole size according to the specifications of the intelligent control module mounting bracket.

[0046] Module Fixing: Secure the mounting bracket to the wall with expansion bolts, ensuring the bracket is securely installed without shaking. Install the intelligent control module on the bracket and tighten the fixing screws with a screwdriver to ensure a tight connection between the intelligent control module and the bracket.

[0047] Wiring connection: Use a data cable to connect the intelligent control module to the intelligent control network of the wood floor. Ensure the data cable is securely connected, following the correct interface orientation and connection sequence. After the connection is complete, use a multimeter to test the data cable's conductivity and signal transmission quality to ensure stable and accurate data transmission.

[0048] Debugging and testing Initial Setup: Turn on the power and start the intelligent control module. Enter the intelligent control module's settings interface and, based on user needs and indoor environmental characteristics, set the preset temperature range to 22°C to 26°C and the humidity range to 40% to 60%. Also, set the system response time to 1-2 minutes and the alarm thresholds based on actual needs to ensure the system operates as expected.

[0049] Comprehensive Testing: Use a professional temperature and humidity meter to measure the temperature and humidity of the wood floor's surroundings at multiple locations. Set up at least five test points throughout the room, including corners, the center, and near windows and doorways. Record the initial temperature and humidity readings at each test point to verify that the intelligent temperature control and humidity balance system is maintaining preset values. Record test data every 15 minutes for 4-6 hours, plotting temperature and humidity curves to analyze the system's effectiveness and stability.

[0050] Simulation testing: This test simulates various temperature and humidity fluctuations, such as using an electric heater or air conditioner to quickly raise the indoor temperature, or using a humidifier or sprayer to increase the indoor humidity. This test verifies the system's response speed and adjustment capabilities. When the temperature or humidity exceeds the preset range, the system is observed to see whether it can promptly activate the adjustment function to restore the temperature and humidity to the preset range. The system's response time and adjustment range are recorded to evaluate the system's performance.

[0051] Troubleshooting and Resolution: During the commissioning and testing process, if any issues are discovered, such as abnormal temperature regulation, inaccurate humidity control, or data transmission failures, they will be promptly identified and resolved. Check for loose connections in the wood flooring, correct parameter settings in the intelligent control module, and damage to the temperature and humidity sensors. Targeted solutions will be implemented for any identified issues, such as reconnecting circuits, adjusting parameters, or replacing damaged components. After multiple rounds of commissioning and testing to ensure stable system operation and satisfactory regulation, the entire wood flooring installation process is completed.

[0052] During the entire implementation process, we strictly follow the relevant construction specifications and quality standards, pay attention to the details of each link, ensure that the indoor wooden floor laying process with intelligent temperature control and humidity balance of the present invention can be completed with high quality, and provide users with high-quality and intelligent wooden floor laying services.

[0053] In summary, compared with the existing technology, the indoor wooden floor laying process with intelligent temperature control and humidity balance proposed by the present invention brings many revolutionary advantages to the field of interior decoration.

[0054] From the perspective of technological innovation, flooring structure has achieved a qualitative leap. Innovatively embedding micro-nanoscale temperature and humidity sensors within the wood flooring, combined with phase change materials and moisture absorbing / releasing materials to create an intelligent temperature control and humidity regulation layer, this ingenious micro-level design has significantly expanded the functional scope of wood flooring. Traditional wood flooring serves solely as a decorative and load-bearing structure, but this invention empowers wood flooring with the ability to sense and regulate temperature and humidity in real time. This unique feature opens up a new direction in the design of intelligent wood flooring structures. Furthermore, a significant breakthrough has been achieved in the installation process. By utilizing conductive connectors within the mortise and tenon structure at the floor's edges, an intelligent control network is established, enabling precise control in conjunction with intelligent control modules. This breaks the limitations of traditional installation methods, which focus solely on physical splicing, and opens a new path for the intelligent development of wood flooring installation.

[0055] This has resulted in comprehensive improvements to the user experience. It significantly extends the lifespan of flooring. The precise temperature and humidity control function effectively prevents deformation and cracking caused by temperature fluctuations, as well as expansion and contraction due to moisture and shrinkage caused by humidity changes. Field testing has shown that under comparable conditions, flooring laid using this process extends its lifespan by at least 30% compared to traditional wood flooring, significantly reducing replacement costs and maintenance workload. Furthermore, it precisely maintains indoor temperature between 22°C and 26°C, and humidity between 40% and 60%, the optimal comfort range for humans. This effectively mitigates the discomfort associated with excessively high or low temperatures and humidity, such as skin problems and respiratory illnesses caused by dryness, and the health risks of mold growth caused by dampness. This creates a comfortable, warm and pleasant living environment for users year-round, significantly improving their quality of life.

[0056] This invention also demonstrates impressive economic and environmental benefits. Compared to traditional methods that rely on air conditioners and dehumidifiers to regulate indoor temperature and humidity, this intelligent temperature control and humidity balance system significantly reduces energy consumption. For example, for a 100-square-meter room, with the same temperature and humidity control requirements, monthly energy consumption is reduced by 50 degrees Celsius compared to traditional methods. This not only saves users considerable electricity costs and achieves efficient temperature and humidity control, but also actively responds to the social call for energy conservation and environmental protection, reducing energy consumption and carbon emissions, and making a positive contribution to environmental protection.

[0057] The technical solutions provided by the embodiments of the present invention are introduced in detail above. Specific examples are used herein to illustrate the principles and implementation methods of the embodiments of the present invention. The description of the above embodiments is only applicable to help understand the principles of the embodiments of the present invention. At the same time, for those skilled in the art, according to the embodiments of the present invention, there may be changes in the specific implementation methods and application scopes. In summary, the contents of this specification should not be understood as limiting the present invention.

Claims

1. A process for laying indoor wooden floor with intelligent temperature control and humidity balance, characterized in that: The following steps are involved: Step S1: Using a high-precision level with a measurement accuracy of ±0.5 mm, perform grid measurements on the indoor floor at 50 cm intervals to determine the uneven areas of the floor; Step S2: For raised areas of the floor, use an electric sander with a power of 1000-1500W to first sand with 80-grit coarse sandpaper, then fine-grind with 240-grit fine sandpaper, so that the error between the ground and the horizontal reference plane is controlled within ±2mm after sanding; for sunken areas, fill them with self-leveling cement and wait for 24-48 hours for them to dry and solidify; Step S3: Laying a moisture-proof and vapor-barrier membrane with a thickness of not less than 0.2 mm, with the overlapping width of adjacent membranes not less than 100 mm, and sealing the overlapping joints with sealing tape; Step S4: Splice the wooden flooring with the mortise and tenon structure and the conductive connector according to a preset pattern. Use a mortise and tenon splicing clamp to apply pressure during splicing to ensure that the tenon and the mortise fit tightly together and that the conductive connectors at the edges of the flooring are accurately connected. After each row of wooden flooring is laid, use a level and a square to check the flatness and right-angle accuracy. For uneven or angled floors, use a wooden wedge or a rubber hammer to make minor adjustments. Step S5: Install the intelligent control module on a wall near a power outlet, convenient for operation, out of direct sunlight, away from heat and water sources, and without strong electromagnetic interference. During installation, use an impact drill to drill a hole with a depth of 50-60 mm and a diameter of 8-10 mm. Step S6: Connect the intelligent control module to the intelligent control network of the wooden floor via a data cable; Step S7: Turn on the power to start the intelligent control module; use a professional temperature and humidity tester to set up at least five detection points in different locations in the room, including corners, the center, near windows and doorways, record temperature and humidity data every 15 minutes, continue the detection for 4-6 hours and draw a change curve; simulate various temperature and humidity change scenarios, use electric heaters and air conditioners to change the temperature, and use humidifiers and sprayers to adjust the humidity.

2. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: Before dealing with uneven areas on the ground, first fully measure and mark the raised and depressed parts and their scope, and then proceed with grinding and filling operations.

3. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: When laying moisture-proof and vapor barrier membrane, keep the membrane surface flat and wrinkle-free, and use a utility knife to accurately cut the parts that need to be cut so that they fit tightly around the wall corners or pipes.

4. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1 is characterized by: Before splicing wooden floors, use ink lines or masking tape to mark the outline of the laying pattern and the position of each wooden floor on the ground according to the shape, size and user needs of the room.

5. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1 is characterized by: Before installing the intelligent control module, use a level to confirm the levelness of the installation location.

6. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: During the debugging and testing process, if any problems are found, check the wooden floor circuit connection, intelligent control module parameter settings, and temperature and humidity sensing components.

7. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: During the self-leveling cement filling process, use a defoaming roller to eliminate surface bubbles.

8. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: During the paving process, the construction progress is arranged reasonably. Skilled workers pave an area of 15-20 square meters per day, and obvious warning signs are set up at the construction site.

9. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: When simulating the temperature and humidity change scene detection system, record the time nodes from when the temperature and humidity exceed the preset range to when the adjustment action is initiated.

10. The process for laying indoor wooden flooring with intelligent temperature control and humidity balance according to claim 1, characterized in that: The data cable connection follows the correct interface direction and sequence. After the connection is completed, use a multimeter to check the conductivity of the data cable.

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