Apparatus for calculating paint quantity through floor plan analysis
The paint quantity calculation device addresses inaccuracies in conventional methods by using AI to calculate paint quantities from 3D drawings, ensuring accurate and timely delivery based on material and environmental data.
Patent Information
- Authority / Receiving Office
- WO · WO
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2025-03-27
- Publication Date
- 2026-03-05
AI Technical Summary
Conventional methods for assessing construction quantities, particularly paint quantities, are time-consuming, costly, prone to errors, and inaccurate due to manual input and reliance on painted area calculations, leading to potential shortages and construction delays.
A paint quantity calculation device using an artificial intelligence model that calculates paint quantities based on 3D drawing information, considering material ratios, environmental conditions, and standard building conditions, incorporating data from external devices to ensure accurate and efficient paint dosage.
Enhances construction workability by providing precise paint quantities, accounting for environmental factors and building standards, reducing errors, and ensuring timely delivery of materials.
Smart Images

Figure KR2025003905_05032026_PF_FP_ABST
Abstract
Description
Paint quantity calculation device through drawing analysis
[0001] The present invention relates to a paint quantity calculation device through drawing analysis, and more specifically, to a paint quantity calculation device through drawing analysis that calculates the required paint quantity for a building using an artificial intelligence model.
[0002] Material and process management at construction sites is essential to the successful execution of a project, and accurately assessing construction quantities in real time is crucial. Conventional methods for assessing on-site construction quantities typically involve workers visually inspecting and inputting quantities.
[0003] Therefore, it requires significant time, manpower, and cost, and there's a high risk of errors and omissions in the input of material / quantity information. Furthermore, simply checking the quantity of materials transported from the warehouse to the site makes it difficult to accurately determine the quantity of materials actually being constructed in real time.
[0004] In particular, paint quantities can be set using drawings for new buildings. However, since these quantities are calculated based on the painted area, the calculations can be inaccurate when multiple conditions are combined. This can lead to construction delays due to paint shortages.
[0005] Accordingly, the purpose of the present invention is to provide a paint quantity calculation device through drawing analysis that can accurately calculate the paint quantity by considering the material ratio of concrete and the standard conditions of a building.
[0006] In order to achieve the above object, the present invention provides a device for calculating paint quantity through drawing analysis, including: a communication unit that receives 3D drawing data from an external device; and a control unit that stores the material ratio of concrete and the absorption rates of a plurality of paints for the material ratio of the concrete and the paint dosage according to the absorption rates, and, when receiving 3D drawing information on a building structure and material, calculates a painting area of paint including a waterproofing agent from the received 3D drawing information using an artificial intelligence model, and calculates the paint quantity based on the material ratio of concrete in the calculated painting area and the standard conditions of the building. Since the painting area and the painting area are calculated based on the 3D drawing information on the building structure and material, and the paint quantity is calculated based on the material ratio of concrete and the standard conditions of the building, the construction workability of the building can be improved due to the accurate paint quantity.
[0007] Here, the control unit requests data on the material ratio of the concrete and the paint dosage from a plurality of external devices through a network, calculates the absorption rate of each of the plurality of paints for the material ratio of the concrete based on the received data on the material ratio of the concrete and the paint dosage in response to the request, and stores the calculated absorption rate of each of the plurality of paints and the paint dosage corresponding to the calculated absorption rate of each of the plurality of paints, so that the material ratio and the paint dosage of the concrete are collected from the outside, the absorption rate of each of the plurality of paints for the material ratio of the concrete is calculated, and the accurate paint dosage is stored, so that an accurate paint amount can be calculated, which is preferable.
[0008] And the control unit collects external environmental conditions including the material ratio of the concrete, the amount of paint input, and humidity and temperature from a plurality of external devices through a network, and calculates the absorption rate of each of the plurality of paints for the material ratio of the concrete based on the collected external environmental conditions and the amount of paint input, so that the amount of paint input may differ depending on the collected external environmental conditions and the amount of paint input, and this can be taken into account in advance, which is preferable.
[0009] Here, the control unit calculates an absorption rate correction value range for the environmental conditions of the building based on the location and climate history information of the building, and by correcting the paint input amount for each of a plurality of paints based on the calculated absorption rate correction value range, it is preferable to calculate an amount of paint that can improve durability according to the environmental conditions of the building.
[0010] And it further includes an input section for inputting a user's command, and when a user's requirement for painting is input, it determines whether the input user's requirement conforms to the building's standard condition, and if it conforms as a result of the determination, the painting area is recalculated based on the input user's requirement, and by calculating the amount of paint for the recalculated painting area, it is possible to confirm whether the user's requirement conforms to the building's standard condition, so that accurate construction can be performed, which is desirable.
[0011] Here, the control unit collects cases with similar building reference conditions and user requirements using an artificial intelligence model, and additionally collects features that are supplemented during maintenance of similar cases to correct the recalculated paint area and paint quantity, which is desirable because it allows construction to be carried out properly without repeating mistakes made in the field in the past through trial and error.
[0012] In order to achieve the above object, the method for calculating the amount of paint through drawing analysis according to the present invention includes the steps of: storing the material ratio of concrete, the absorption rates of a plurality of paints for the material ratio of the concrete, and the paint input amounts according to the absorption rates; receiving 3D drawing information on a building structure and materials, calculating a painting area of paint including a waterproofing agent from the received 3D drawing information using an artificial intelligence model; and calculating the amount of paint based on the material ratio of concrete in the calculated painting area and the standard conditions of the building. Since the painting area and the painted area are calculated based on the 3D drawing information on the building structure and materials, and the paint amount is calculated based on the material ratio of concrete and the standard conditions of the building, the construction workability of the building can be improved due to the accurate amount of paint.
[0013] Here, the step of storing the paint dosage includes the step of requesting data on the material ratio of the concrete and the paint dosage from a plurality of external devices through a network; the step of calculating the absorption rate of each of the plurality of paints for the material ratio of the concrete based on the data on the material ratio of the concrete and the paint dosage received in response to the request; and the step of storing the calculated absorption rate of each of the plurality of paints and the paint dosage corresponding to the calculated absorption rate of each of the plurality of paints, so that the material ratio and the paint dosage of the concrete are collected from the outside, the absorption rate of each of the plurality of paints for the material ratio of the concrete is calculated, and the accurate paint dosage is stored, so that an accurate paint quantity can be calculated, which is preferable.
[0014] And the step of calculating the absorption rate includes the step of collecting external environmental conditions including the material ratio of the concrete, the paint input amount, and humidity and temperature from a plurality of external devices through a network; and the step of calculating the absorption rate of each of the plurality of paints for the material ratio of the concrete based on the collected external environmental conditions and paint input amounts. Since the paint input amount may differ depending on the collected external environmental conditions and paint input amounts, this can be taken into account in advance, which is preferable.
[0015] Here, it is preferable to further include a step of calculating a range of absorption rate correction values for the environmental conditions of the building based on the location and climate history information of the building; and a step of correcting the paint input amount for each of a plurality of paints based on the calculated range of absorption rate correction values, so that an amount of paint that can improve durability can be calculated according to the environmental conditions of the building.
[0016] And, if a user's requirement for painting is input, a step of determining whether the input user's requirement conforms to the building's standard conditions is further included; a step of recalculating the painting area based on the input user's requirement if the determination result conforms; and a step of calculating the amount of paint for the recalculated painting area are further included, so that it is possible to confirm whether the user's requirement conforms to the building's standard conditions, thereby enabling accurate construction. This is desirable.
[0017] Here, it is desirable to include a step of collecting cases with similar building reference conditions and user requirements using an artificial intelligence model; and a step of additionally collecting supplementary features during maintenance of similar cases to correct the recalculated paint area and paint quantity, thereby ensuring proper construction without repeating the mistakes made in the field in the past through trial and error.
[0018] According to the present invention, the painting area and painting area are calculated based on 3D drawing information about the building structure and materials, and the paint quantity is calculated based on the material ratio of concrete and the standard conditions of the building, so that the construction workability of the building can be improved due to the accurate paint quantity.
[0019] In addition, the material ratio and paint input amount of concrete are collected from the outside, the absorption rate of each of multiple paints for the material ratio of concrete are calculated, and the exact paint input amount is stored, so the exact paint amount can be calculated, and since the paint input amount may differ depending on the collected external environmental conditions and paint input amount, this has the effect of being able to take this into account in advance.
[0020] Additionally, it is possible to calculate the amount of paint that can improve durability according to the environmental conditions of the building, and it is possible to check whether the user's requirements meet the standard conditions of the building, which has the effect of enabling accurate construction.
[0021] Additionally, it has the effect of ensuring that construction is carried out properly without repeating the mistakes that occurred in the past through trial and error.
[0022] Figure 1 is a control block diagram of a paint quantity calculation device through drawing analysis according to the present invention.
[0023] Figure 2 is a flowchart of a first embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis according to the present invention.
[0024] Figure 3 is a flowchart of a second embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0025] Figure 4 is a flowchart of a third embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0026] Figure 5 is a flowchart of a fourth embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0027] Figure 6 is a flowchart of a fifth embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0028] Figure 7 is a flowchart of a sixth embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0029] Hereinafter, with reference to the attached drawings, a paint quantity calculation device (1) through drawing analysis according to a preferred embodiment of the present invention will be described in detail.
[0030] Figure 1 is a control block diagram of a paint quantity calculation device (1) through drawing analysis according to the present invention.
[0031] A paint quantity calculation device (1) through drawing analysis includes a communication unit (10), a display unit (20), an input unit (30), and a control unit (40).
[0032] The communication unit (10) receives 3D drawing data from an external device. The communication unit (10) can perform wireless communication, and the wireless communication includes at least one of infrared communication, RF, Zigbee, and Bluetooth. The communication unit (10) receives a video signal and transmits it to the control unit (40) described later, and can be implemented in various ways corresponding to the standard of the video signal to be received and the implementation form of the user terminal. For example, the communication unit (10) can wirelessly receive an RF (radio frequency) signal transmitted from a broadcasting station (not shown), or can wiredly receive a video signal according to the composite video, component video, super video, SCART, HDMI (high definition multimedia interface) standard, etc. When the video signal is a broadcast signal, the communication unit (10) can include a tuner that tunes the broadcast signal by channel.
[0033] The display unit (20) displays an image based on an image signal processed by image processing. The implementation method of the display unit (20) is not limited, and may be implemented in various display methods such as liquid crystal, plasma, light-emitting diode, organic light-emitting diode, surface conduction electron-emitter, carbon nano-tube, nano-crystal, etc.
[0034] The display unit (20) may additionally include additional components depending on its implementation method. For example, when the display unit (20) is a liquid crystal display, the display unit (20) includes a liquid crystal display panel (not shown), a backlight unit (not shown) that supplies light thereto, and a panel driving board (not shown) that drives the panel (not shown). The display unit (20) may display a voice recognition result as information on the recognized voice. Here, the voice recognition result may be displayed in various forms such as text, graphics, and icons, and the text may include letters and numbers. The display unit (20) may further display candidate commands and application information according to the voice recognition result. The user may check whether the voice has been correctly recognized by the voice recognition result displayed on the display unit (20), and may select a command corresponding to the voice spoken by the user from among the displayed candidate commands by operating the input unit (30) provided on the remote control, or select and check information related to the voice recognition result.
[0035] The input unit (30) can input a user's command. The input unit (30) can receive a user's touch input or a user's remote input using a remote controller and transmit it to the corresponding control unit (40). In addition, the input unit (30) can receive a voice input spoken by the user and transmit the voice signal to the control unit (40). In this case, the input unit (30) can be implemented with, for example, a microphone. The input unit (30) can also perform signal processing on the received voice signal on its own. However, the form of the user input that the input unit (30) can receive is not limited thereto, and for example, user input through motion recognition, etc. can also be received.
[0036] The control unit (40) stores the material ratio of concrete and the absorption rate of multiple paints for the material ratio of concrete and the amount of paint to be applied according to the absorption rate, and when receiving 3D drawing information on the building structure and materials, it calculates the paint area including the waterproofing agent from the received 3D drawing information using an artificial intelligence model, and calculates the amount of paint based on the material ratio of concrete in the calculated paint area and the standard conditions of the building.
[0037] The control unit (40) requests data on the material ratio of concrete and the amount of paint to be applied to multiple external devices through a network, calculates the absorption rate of each of the multiple paints for the material ratio of concrete based on the received data on the material ratio of concrete and the amount of paint to be applied in response to the request, and stores the calculated absorption rate of each of the multiple paints and the amount of paint to be applied corresponding to the calculated absorption rate of each of the multiple paints.
[0038] The control unit (40) collects external environmental conditions including the material ratio of concrete, paint input amount, and humidity and temperature from multiple external devices through a network, and can calculate the absorption rate of each of the multiple paints for the material ratio of concrete based on the collected external environmental conditions and paint input amount.
[0039] The control unit (40) calculates an absorption rate correction value range for the environmental conditions of the building based on the location and climate history information of the building, and can correct the paint input amount for each of the plurality of paints based on the calculated absorption rate correction value range.
[0040] When a user's requirement for painting is input, the control unit (40) determines whether the input user's requirement conforms to the building's standard conditions, and if so, recalculates the painting area based on the input user's requirement, and can calculate the paint quantity for the recalculated painting area.
[0041] The control unit (40) uses an artificial intelligence model to collect cases in which the building's standard conditions and user requirements are similar, and additionally collects features that are supplemented during maintenance of similar cases to correct the recalculated paint area and paint quantity.
[0042] Figure 2 is a flowchart of a first embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis according to the present invention.
[0043] Store the material ratio of concrete and the absorption rate of multiple paints for the material ratio of concrete and the paint input amount according to the absorption rate (S1).
[0044] When 3D drawing information on building structure and materials is received, an artificial intelligence model is used to calculate a paint area including a waterproofing agent from the received 3D drawing information (S2).
[0045] The amount of paint is calculated based on the material ratio of the concrete in the produced paint area and the existing conditions of the building (S3).
[0046] Figure 3 is a flowchart of a second embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0047] Data on the material ratio of concrete and the amount of paint applied are requested from multiple external devices through the network (S11).
[0048] Based on the received concrete material ratio and paint input data in response to the request, the absorption rate of each of the multiple paints for the concrete material ratio is calculated (S12).
[0049] The absorption rate of each of the plurality of paints produced and the paint input amount corresponding to the absorption rate of each of the plurality of paints produced are stored (S13).
[0050] When 3D drawing information on building structure and materials is received, an artificial intelligence model is used to calculate a paint area including a waterproofing agent from the received 3D drawing information (S14).
[0051] The amount of paint is calculated based on the material ratio of the concrete in the produced paint area and the standard conditions of the building (S15).
[0052] Figure 4 is a flowchart of a third embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0053] Data on the material ratio of concrete and the amount of paint applied are requested from multiple external devices through the network (S21).
[0054] External environmental conditions including concrete material ratio, paint application amount, humidity, and temperature are collected from multiple external devices through a network (S22).
[0055] Based on the received concrete material ratio and paint dosage data in response to the request and the collected external environmental conditions and paint dosage, the absorption rate of each of the multiple paints for the concrete material ratio is calculated (S23).
[0056] The absorption rate of each of the plurality of paints produced and the paint input amount corresponding to the absorption rate of each of the plurality of paints produced are stored (S24).
[0057] When 3D drawing information on building structure and materials is received, an artificial intelligence model is used to calculate a paint area including a waterproofing agent from the received 3D drawing information (S25).
[0058] The amount of paint is calculated based on the material ratio of the concrete in the produced paint area and the standard conditions of the building (S26).
[0059] Figure 5 is a flowchart of a fourth embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0060] Data on the material ratio of concrete and the amount of paint applied are requested from multiple external devices through the network (S31).
[0061] External environmental conditions including concrete material ratio, paint application amount, humidity, and temperature are collected from multiple external devices through a network (S32).
[0062] Based on the received concrete material ratio and paint dosage data in response to the request and the collected external environmental conditions and paint dosage, the absorption rate of each of the multiple paints for the concrete material ratio is calculated (S33).
[0063] The absorption rate of each of the plurality of paints produced and the paint input amount corresponding to the absorption rate of each of the plurality of paints produced are stored (S34).
[0064] Based on the location and climate history information of the building, the range of absorption rate correction values for the environmental conditions of the building is calculated (S35).
[0065] Based on the calculated absorption rate correction value range, the paint dosage for each of the multiple paints is corrected (S36).
[0066] When 3D drawing information on building structure and materials is received, an artificial intelligence model is used to calculate a paint area including a waterproofing agent from the received 3D drawing information (S27).
[0067] The paint quantity is calculated based on the material ratio of the concrete in the produced paint area and the building's standard conditions (S38).
[0068] Figure 6 is a flowchart of a fifth embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0069] Data on the material ratio of concrete and the amount of paint applied are requested from multiple external devices through the network (S41).
[0070] External environmental conditions including concrete material ratio, paint application amount, humidity, and temperature are collected from multiple external devices through a network (S42).
[0071] Based on the received concrete material ratio and paint input data in response to the request and the collected external environmental conditions and paint input data, the absorption rate of each of the multiple paints for the concrete material ratio is calculated (S43).
[0072] The absorption rate of each of the plurality of paints produced and the paint input amount corresponding to the absorption rate of each of the plurality of paints produced are stored (S44).
[0073] Based on the location and climate history information of the building, the range of absorption rate correction values for the environmental conditions of the building is calculated (S45).
[0074] Based on the calculated absorption rate correction value range, the paint input amount for each of the multiple paints is corrected (S46).
[0075] When 3D drawing information on building structure and materials is received, an artificial intelligence model is used to calculate a paint area including a waterproofing agent from the received 3D drawing information (S47).
[0076] When the user's requirements for painting are entered, it is determined whether the entered user requirements meet the building's standard conditions (S48).
[0077] If the judgment result is consistent, the painting area is recalculated based on the input user requirements (S49).
[0078] The amount of paint for the recalculated painted area is calculated based on the material ratio of the concrete in the calculated painted area and the standard conditions of the building (S50).
[0079] Figure 7 is a flowchart of a sixth embodiment of a paint quantity calculation method through drawing analysis using a paint quantity calculation device through drawing analysis.
[0080] Data on the material ratio of concrete and the amount of paint applied are requested from multiple external devices through the network (S51).
[0081] External environmental conditions including concrete material ratio, paint application amount, humidity, and temperature are collected from multiple external devices through a network (S52).
[0082] Based on the received concrete material ratio and paint dosage data in response to the request and the collected external environmental conditions and paint dosage, the absorption rate of each of the multiple paints for the concrete material ratio is calculated (S53).
[0083] The absorption rate of each of the plurality of paints produced and the paint input amount corresponding to the absorption rate of each of the plurality of paints produced are stored (S54).
[0084] Based on the location and climate history information of the building, the range of absorption rate correction values for the environmental conditions of the building is calculated (S55).
[0085] Based on the calculated absorption rate correction value range, the paint input amount for each of the multiple paints is corrected (S56).
[0086] When 3D drawing information on building structure and materials is received, an artificial intelligence model is used to calculate a paint area including a waterproofing agent from the received 3D drawing information (S57).
[0087] When the user's requirements for painting are entered, it is determined whether the entered user requirements meet the building's standard conditions (S58).
[0088] If the judgment result is consistent, the painting area is recalculated based on the input user requirements (S59).
[0089] The amount of paint for the recalculated painted area is calculated based on the material ratio of the concrete in the calculated painted area and the standard conditions of the building (S60).
[0090] Using an artificial intelligence model, cases with similar building standards and user requirements are collected (S61).
[0091] During the maintenance of similar cases, additional features are collected to compensate for the recalculated paint area and paint quantity (S62).
[0092] Describes embodiments that can be modified other than the above embodiments.
[0093] The control unit receives images of the interior and exterior of a building for remodeling, analyzes the received images using an artificial intelligence model to generate 3D drawing data for the building for remodeling, calculates multiple painting areas based on the generated 3D drawing data, generates multiple painting models for the generated multiple painting areas, and calculates the amount of paint for each of the generated multiple painting models.
[0094] The control unit can control the drone, the drone communication unit, and the camera to move to the interior and exterior of the building for remodeling and take pictures and transmit them based on the images of the interior and exterior of the building for remodeling taken by the camera.
[0095] The control unit determines the state of the concrete, including the dry state, surface state, and paint state of the concrete, based on the captured image and user input regarding the concrete of the building inputted to the input unit (30), and can calculate the amount of paint for each of the plurality of paint models based on the determined state of the concrete.
[0096] The control unit collects external environmental conditions including humidity and temperature through a network, and can calculate the validity period and replacement time of painting performed by the amount of paint calculated based on the collected external environmental conditions.
[0097] The control unit stores the paint absorption rate and the paint dosage according to the absorption rate for the state of a plurality of concretes, and can calculate the paint amount for each of the plurality of paint models by correcting the paint absorption rate and the paint dosage according to the absorption rate based on the identified state of the concrete.
[0098] The control unit calculates an absorption rate correction value for the condition of multiple concretes of the building based on the location and climate history information of the building, and can correct the paint application amount for each of the multiple paints based on the calculated absorption rate correction value.
[0099] A paint quantity calculation device through drawing analysis can select paint and provide paint information.
[0100] The control unit uses an artificial intelligence model to store the painting efficiency of each of a plurality of paints for each of the material ratio of the concrete of the building, the dry state of the concrete, the surface condition of the concrete, and the painting state of the concrete, and when at least one of the material ratio of the concrete of the building for new construction and remodeling, the dry state of the concrete, the surface condition of the concrete, and the painting state of the concrete is input from the user input unit, the control unit searches for a paint with a high painting efficiency and provides information on a preset number of top-ranked paints with high painting efficiency.
[0101] The control unit collects the painting efficiency of multiple new paints for each of the material ratio of the building's concrete, the drying state of the concrete, the surface state of the concrete, and the painting state of the concrete from an external device through a network, and can store and update the collected painting efficiency according to the multiple new paints.
[0102] The control unit can divide the screen area of the display unit by a preset number of high-ranking paints, and control the display unit so that each divided screen displays a building painted with a preset number of high-ranking paints having high painting efficiency.
[0103] The control unit stores the material ratio of concrete, the absorption rates of multiple paints for the material ratio of concrete, and the painting efficiency according to the absorption rates, and when information about the material ratio of concrete in an area to be painted is input, the control unit calculates the absorption rates of multiple paints according to the material ratio of concrete, calculates the painting efficiency according to the calculated absorption rates, and provides corresponding paint information according to the calculated painting efficiency.
[0104] The control unit collects the location of the building, climate history information, and external environmental conditions including humidity and temperature through a network, and can calculate the validity period and replacement time of the paint performed by the paint of the provided paint information based on the collected climate history information and external environmental conditions.
[0105] By using the paint quantity calculation device (1) through the above drawing analysis, the paint area and paint area are calculated based on the 3D drawing information on the building structure and materials, and the paint quantity is calculated based on the material ratio of the concrete and the standard conditions of the building, so that the construction workability of the building can be improved due to the accurate paint quantity.
[0106] In addition, the material ratio of concrete and the amount of paint input are collected from the outside, the absorption rate of each of multiple paints for the material ratio of concrete are calculated, and the exact amount of paint input is stored, so the exact amount of paint can be calculated, and since the amount of paint input may differ depending on the collected external environmental conditions and the amount of paint input, this can be taken into account in advance.
[0107] In addition, it is possible to calculate the amount of paint that can improve durability according to the environmental conditions of the building, and it is possible to confirm whether the user's requirements meet the standard conditions of the building, so that accurate construction can be performed.
[0108] Additionally, it can ensure that construction is carried out properly without repeating the mistakes that occurred in the past through trial and error.
Claims
1. In the paint quantity calculation device through drawing analysis, A communication unit that receives 3D drawing data from an external device; and A paint quantity calculation device through drawing analysis, characterized in that it includes a control unit that stores the material ratio of concrete and the absorption rate of a plurality of paints for the material ratio of the concrete and the paint input amount according to the absorption rate, and when receiving 3D drawing information on the building structure and materials, calculates a paint area including a waterproofing agent from the received 3D drawing information using an artificial intelligence model, and calculates the paint quantity based on the material ratio of concrete of the calculated paint area and the standard conditions of the building.
2. In paragraph 1, The above control unit, A paint quantity calculation device through drawing analysis, characterized in that it requests data on the material ratio and paint dosage of the concrete from a plurality of external devices through a network, calculates the absorption rate of each of the plurality of paints for the material ratio of the concrete based on the received data on the material ratio and paint dosage of the concrete in response to the request, and stores the calculated absorption rate of each of the plurality of paints and the paint dosage corresponding to the calculated absorption rate of each of the plurality of paints.
3. In paragraph 2, The above control unit, A paint quantity calculation device through drawing analysis, characterized in that it collects external environmental conditions including the material ratio of the concrete, the amount of paint input, and humidity and temperature from a plurality of external devices through a network, and calculates the absorption rate of each of the plurality of paints for the material ratio of the concrete based on the collected external environmental conditions and the amount of paint input.
4. In paragraph 3, The above control unit, A paint quantity calculation device through drawing analysis, characterized in that it calculates an absorption rate correction value range for the environmental conditions of the building based on the location and climate history information of the building, and corrects the paint input amount for each of a plurality of paints based on the calculated absorption rate correction value range.
5. In paragraph 1, It further includes an input section for entering user commands, A paint quantity calculation device through drawing analysis, characterized in that when a user's requirement for painting is input, it determines whether the input user's requirement conforms to the building's standard condition, and if the determination result conforms, it recalculates the paint area based on the input user's requirement, and calculates the paint quantity for the recalculated paint area.
6. In paragraph 5, The above control unit, A paint quantity calculation device using drawing analysis, characterized by collecting cases with similar building reference conditions and user requirements using an artificial intelligence model, and additionally collecting features that are supplemented during maintenance of similar cases to correct the paint area and paint quantity of the recalculated paint.
7. In the method of calculating the amount of paint through drawing analysis, A step of storing the material ratio of concrete and the absorption rate of a plurality of paints for the material ratio of the concrete and the paint input amount according to the absorption rate; A step of receiving 3D drawing information on a building structure and materials, and calculating a paint area including a waterproofing agent from the received 3D drawing information using an artificial intelligence model; A method for calculating paint quantity through drawing analysis, characterized in that it includes a step of calculating paint quantity based on the material ratio of the concrete of the calculated paint area and the standard conditions of the building.
8. In paragraph 7, The step of storing the above paint input amount is: A step of requesting data on the material ratio and paint application amount of the concrete from multiple external devices through a network; A step of calculating the absorption rate of each of a plurality of paints for the material ratio of the concrete based on the material ratio and paint input amount data of the concrete received in response to the request; and A method for calculating paint quantity through drawing analysis, characterized in that it includes a step of storing the absorption rate of each of the plurality of paints produced and the paint input amount corresponding to the absorption rate of each of the plurality of paints produced.
9. In paragraph 8, The step of calculating the above absorption rate is: A step of collecting external environmental conditions including the material ratio of the concrete, the amount of paint applied, and humidity and temperature from multiple external devices through a network; and A method for calculating paint quantity through drawing analysis, characterized in that it includes a step of calculating the absorption rate of each of a plurality of paints for the material ratio of the concrete based on the collected external environmental conditions and paint input amount.
10. In paragraph 9, A step of calculating a range of absorption rate correction values for the environmental conditions of the building based on the location and climate history information of the building; and A method for calculating paint quantity through drawing analysis, characterized in that it further includes a step of correcting the paint amount for each of a plurality of paints based on the calculated absorption rate correction value range.
11. In paragraph 7, A step of determining whether the user's requirements for painting are entered and whether the entered user requirements meet the building's standard conditions; A step of recalculating the painting area based on the input user requirements if the judgment result matches; and A paint quantity calculation device through drawing analysis, characterized in that it further includes a step of calculating the paint quantity for the recalculated paint area.
12. In paragraph 11, A step of collecting cases with similar building standards and user requirements using an artificial intelligence model; and A method for calculating paint quantity through drawing analysis, characterized in that it further includes a step of correcting the paint area and paint quantity of the recalculated paint by additionally collecting supplementary features during maintenance of similar cases.
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