Micro-innovative flower painting manufacturing system based on virtual reality technology and terminal building application of micro-innovative flower painting manufacturing system

Abstract

The invention relates to the technical field of smart landscape engineering construction systems, and discloses a virtual reality technology-based micro-innovative flower painting making system and terminal building application thereof, the virtual reality technology-based micro-innovative flower painting making system comprises a flower painting display area configured to bear fresh flower rhizome parts and display fresh flower postures after micro-innovation; the remote sensing control module is used for extracting image data of the flower postures; the temperature and humidity control module is used for extracting environment data of the temperature and humidity of the environment where the flowers are located; the monomer cultivation modules are configured to carry out water control treatment on the interior of the fresh flower cultivation area, a fresh flower growth simulation scene is automatically generated in the simulation scene construction end, and the fresh flower growth simulation scene combines environment data extracted from the temperature and humidity control module with an updated image gray area to carry out water control treatment on the interior of the fresh flower cultivation area; and the single body cultivation module is controlled to perform quantitative and timed spraying in the fresh flower cultivation area. The method simulates the survival time of the flowers in the flower painting works in each region of the terminal, and obtains the service life of the flower painting works in a certain region of the terminal in advance.

Description

Technical Field

[0001] The present invention relates to the technical field of smart landscape engineering construction systems, and in particular to a micro-innovation flower painting production system based on virtual reality technology and an airport terminal application thereof. Background Art

[0002] Virtual reality technology encompasses computers, electronic information, and simulation technology. Its basic implementation method is based on computer technology, utilizing and integrating the latest developments in three-dimensional graphics technology, multimedia technology, simulation technology, display technology, servo technology, and other high-tech technologies. With the help of computers and other equipment, it creates a realistic three-dimensional virtual world with multiple sensory experiences such as vision, touch, and smell, thereby giving people in the virtual world a sense of being immersed in the world.

[0003] However, after searching, no existing technology was found to apply virtual reality technology to the production of terminal flower paintings. Terminal flower painting production is an important step in the interior landscape design of our company's airport terminal. Traditional flower painting production mostly uses fresh flowers as raw materials, and creates flower paintings with artistic beauty through painting, collage and other methods. The interior landscape of the terminal is constructed with flower paintings, which makes each area in the terminal present a landscape beauty to enhance the travel experience of passengers.

[0004] However, since the terminal itself has the characteristics of a large area and a large flow of people, the environment in which the landscape is arranged in various areas of the terminal is not the same, resulting in different environments for the flowers in the flower paintings in the landscape. Some flower paintings are in an environment with sufficient light, which can prolong the survival time of the flowers in the flower paintings to a certain extent. On the contrary, the flowers in the flower paintings in the shade are very easy to wither. After the flowers wither, the flower paintings will no longer be able to show beauty, thus affecting the beauty of the landscape in various areas indoor of the terminal.

[0005] In order to avoid the above situation, the inventors have studied the survival time of flowers in terminal flower paintings, and designed a device that can simulate the survival time of flowers in flower paintings in various areas of the terminal, so as to know in advance the service life of flower paintings in the landscape of a certain area of ​​the terminal, and extend the survival time of flowers in flower paintings through a micro-innovation flower painting production system. Summary of the invention

[0006] The present invention aims to provide a micro-innovation flower painting production system based on virtual reality technology and its terminal application, to design a system that can simulate the survival time of flowers in flower paintings in the landscape of various areas of the terminal, to know in advance the service life of flower paintings in the landscape of a certain area of ​​the terminal, and to extend the survival time of flowers in flower paintings through the micro-innovation flower painting production system.

[0007] In order to achieve the above object, the present invention adopts the following technical scheme:

[0008] 1) A micro-innovation flower painting production system based on virtual reality technology, including:

[0009] The flower painting display area is configured to carry the root and stem parts of flowers and display the postures of flowers after micro-innovation;

[0010] The remote sensing control module is surrounded by the circumferential direction of the flower painting display area, and reciprocates along the circumferential direction to extract image data of the flower posture;

[0011] The temperature and humidity control module is set in the flower painting display area and extracts environmental data of the temperature and humidity of the environment where the flowers are located;

[0012] Several single cultivation modules divide the flower painting display area in the radial direction or the longitudinal direction to form several flower cultivation areas. The single cultivation modules are configured to control water in the flower cultivation area. The specific method is as follows:

[0013] The original image grayscale area is extracted from the image data, and then the center lines of the two sides of the area of ​​the image grayscale area are used as the standard to construct the center lines of the two sides of the flower cultivation area, and the center line is calibrated as the edge contour in the monomer cultivation module. According to the edge contour of each monomer cultivation module, a feature data packet of the flower growth characteristics in the flower cultivation area is comprehensively formulated and transmitted to the simulation scene construction end; the flower growth simulation scene is automatically generated according to the simulation scene construction end. The flower growth simulation scene combines the updated image grayscale area with the environmental data extracted from the temperature and humidity control module to control the monomer cultivation module to perform quantitative and timed spraying in the flower cultivation area.

[0014] The present invention uses several single cultivation modules to divide the flower painting display area along the radial direction or the longitudinal direction to form several fresh flower cultivation areas, and the fresh flower cultivation areas are used to carry the root and stem parts of the fresh flowers to display the posture of the fresh flowers; when the remote sensing control module reciprocates along the circumferential direction of the flower painting display area, the image data of the fresh flower posture in the fresh flower cultivation area is extracted, and the original image grayscale area is extracted from the image data, and the original image grayscale area is represented as the fading state of the fresh flower posture.

[0015] Then, taking the side lines on both sides of the grayscale area of ​​the image in a single flower cultivation area as the standard, construct the center line of the side lines on both sides of the flower cultivation area, and use this center line to calibrate the edge contour in the single cultivation module. According to the edge contour of each single cultivation module, a feature data packet of the flower growth characteristics in the flower cultivation area is comprehensively formulated and transmitted to the simulation scene construction end, and the flower growth simulation scene is automatically generated in the simulation scene construction end.

[0016] By combining the updated image grayscale area with the environmental data extracted from the temperature and humidity control module in the flower growth simulation scene, it is possible to determine whether the flowers are in a withering state, mark them, and know in advance the service life of the flowers in the terminal flower painting. At the same time, the single-body cultivation module is controlled in real time to carry out quantitative and timed spraying in the flower cultivation area to extend the survival time of the flowers. The remote sensing control module is then used to extract image data in real time and update the flower growth simulation scene. It is possible to dynamically know whether the flowers are alive or withered, even if the flower painting is replaced.

[0017] 2) According to the micro-innovation flower painting production system based on virtual reality technology described in 1), the flower painting display area for carrying the rhizome of flowers and displaying the posture of flowers after micro-innovation includes a display board with a hollow structure, wherein a plurality of flower cultivation areas are arranged in the display board, and a plurality of planting holes are evenly distributed in each flower cultivation area, and each planting hole can allow the rhizome of flowers to be embedded and fixedly carried;

[0018] The flower rhizome part is micro-innovated to remove rotten or damaged rhizomes, and retain the complete flower rhizome part that can absorb water independently. The flower rhizome part is divided into an upper rhizome, a lower rhizome and a tail rhizome along the length direction. The upper rhizome is fixed in the planting hole by using a thermoplastic adhesive, the lower rhizome is soaked in formalin solution for 1-2 minutes, and the tail rhizome passes through the planting hole and extends to the internal space of the display board. The internal space of the display board has a monomer cultivation module that can spray nutrient solution on the tail rhizome.

[0019] The display board in the airport terminal is generally used for flower exhibition works showing the postures of flowers. The display board of the present invention has a hollow structure so that it has an internal space, and a plurality of flower cultivation areas are arranged in the display board, and each part of the display board is finely divided. At the same time, each flower cultivation area corresponds to a plurality of planting holes, and the planting holes have two functions. The first function is to allow the root and stem of the flower to be inserted and fixed, so that the flower can be fixed on the display board to form a flower painting work for passengers to watch and appreciate;

[0020] The second function is to divide the rhizome of the flower into upper rhizome, lower rhizome and tail rhizome. The upper rhizome is fixed to the planting hole with thermoplastic adhesive to support the posture of the whole flower. The lower rhizome is soaked in formalin solution for 1-2 minutes to prevent the lower rhizome from rotting and increase the survival life of the rhizome of the flower. The tail rhizome extends through the planting hole to the internal space of the display board, and the tail rhizome is supplied with nutrient solution through the monomer cultivation module to increase the survival life of the flower.

[0021] 3) The micro-innovation flower painting production system based on virtual reality technology according to 2), wherein:

[0022] The single cell cultivation module comprises a water pipe, which extends in a wave shape along a plurality of planting holes. The water pipe is located in the inner space of the display board. The water pipe is provided with spray holes connected to the planting holes along its axial direction. The water inlet end of the water pipe is connected to a water supply pipe. The water inlet end of the water supply pipe is connected to a water storage tank located at the bottom of the display board via a water pump. The water storage tank is used to store excess nutrient water of the display board.

[0023] The present invention places a water pipe in the inner space of a display board, and the water pipe is arranged in a wave shape with a plurality of planting holes, so that the positions of the spray holes on the water pipe correspond to the positions of the planting holes one by one, and the planting holes are connected with the spray holes, so that the tail rhizomes of the flowers pass through the planting holes and are located in the spray holes, and the nutrient water in the water storage tank is introduced into the water pipe through the water delivery pipe, and the nutrient water is sprayed on the tail rhizomes of the flowers located in the spray holes, so as to promote the growth of the flowers and prolong the survival life of the flowers in the flower painting works.

[0024] 4) According to the micro-innovation flower painting production system based on virtual reality technology described in 1), the remote sensing control module is surrounded by the circumferential direction of the flower painting display area and moves back and forth along the circumferential direction to extract image data of the flower posture, including a remote sensing frame, the remote sensing frame is arranged on one side of the flower painting display area, and a camera facing the flower painting display area is slidably connected to the remote sensing frame, and the camera can move along the circumferential direction of the flower painting display area and capture and obtain the fixed flower posture image data.

[0025] The present invention uses a remote sensing frame to support the camera, and the remote sensing frame is arranged in a circumferential direction surrounding the flower painting display area. The camera captures image data of fixed flower postures in the flower painting display area, and the state of the flower postures in the flower painting works is known in real time. This makes it easy to remotely understand the state of the flowers in the flower painting works in the flower painting display area, predict their survival time according to the state of the flower postures, and know the service life of the flower painting works in advance.

[0026] 5) The micro-innovation flower painting production system based on virtual reality technology according to 4), wherein:

[0027] A sliding hole is provided on the upper surface of the remote sensing frame along the circumferential direction of the flower painting display area, a sliding block is slidably connected in the sliding hole, the end of the sliding block facing the flower painting display area is fixedly connected to the camera, the end of the sliding block away from the flower painting display area passes through the remote sensing frame and is fixed with a driving mechanism, and the driving mechanism drives the sliding block to move along the running direction of the sliding hole.

[0028] The present invention drives the sliding block to move along the circumferential direction of the flower painting display area through a driving mechanism, so that the camera at the end of the sliding block can capture the posture of flowers in the flower painting display area and form image data, but the present invention is not limited to this method of extracting image data of flower postures.

[0029] 6) The micro-innovation flower painting production system based on virtual reality technology according to 1), wherein:

[0030] The simulation scene construction end receives characteristic data packets of the flower cultivation areas in different monomer cultivation modules, and processes different characteristic data packets to construct simulation scenes in sequence, specifically in the following manner:

[0031] Processing the received characteristic data packets of several flower cultivation areas, sorting them in order, and marking them as Ai, where i=1, 2, ..., n, and n represents the number of characteristic data packets;

[0032] A set of parameters with the smallest capacity value is selected from several characteristic data packets received in a period of time, and the format of this parameter is determined, and this format is marked as the initial format Aj, where j∈i, and the specific duration of converting the recognition logic of this format Aj into other format recognition logic is searched and marked as St, where t=1, 2, ..., m, and m represents the number of durations, and m=n-1, and the minimum value is selected from m St, and the corresponding format is determined, which is used as the second type format of the initial format Aj;

[0033] Then, the second-class format is used as the standard, and the specific time length of converting the recognition logic of the second-class format into the recognition logic of other formats is searched and marked as Sq, where q = 1, 2, ..., p, where p = n-2, and then the minimum value is selected from p Sq, and the corresponding format is determined, which is used as the third-class format of the second-class format. Similarly, the received formats are sorted in sequence, and a format sorting table is generated. If the same format exists in the process of selecting the minimum value, it can be randomly selected;

[0034] According to the format sorting table, several feature data packets are sorted to generate the best processing sequence. According to the front-to-back arrangement order of the best processing sequence, the specified feature data packets are processed in sequence to complete the overall construction of the entire simulation scene.

[0035] 7) According to the micro-innovation flower painting production system based on virtual reality technology described in 1, the flower growth simulation scene is automatically generated in the simulation scene construction terminal, including the following steps:

[0036] Step S1, parsing different feature data packets to obtain other feature data packets of the first associated topology network contained in the flower growth simulation scene corresponding to the current feature data packet;

[0037] Step S2, screening the remaining characteristic data packets in the first association topology network with key objects, generating a sub-network of the first association topology network, and obtaining a new characteristic data packet of flower growth characteristics;

[0038] In step S3, the image grayscale area in the corresponding flower cultivation area is determined according to the feature data packet of the flower growth feature of the sub-network, and the flower growth simulation scene is automatically updated in real time.

[0039] 8) The micro-innovation flower painting production system based on virtual reality technology according to 7), wherein:

[0040] In step S1, each feature data packet in the first association topology network is a feature data packet included in the current camera image data, and the association relationship between the feature data packets in the first association topology network is the topological relationship between the feature data packets included in the current camera image data.

[0041] 9) The micro-innovation flower painting production system based on virtual reality technology according to 7), wherein:

[0042] In step S2, the remaining characteristic data packets in the first associated topology network are screened by key objects to generate a sub-network of the first associated topology network, including:

[0043] Obtaining the importance index corresponding to each characteristic data packet in the subnetwork in the first associated topology network;

[0044] When the sub-network includes a first target feature image object sequence, the grayscale area data of the first target feature image object sequence is configured to include image data of each feature data packet in the first target feature image object sequence, wherein the importance index corresponding to each feature data packet in the first target feature image object sequence in the first association topology network is greater than a first set threshold;

[0045] When the sub-network includes a second target feature image object sequence, the difference in image data coordinates between each feature data packet in the second target feature image object sequence and the corresponding matching associated remaining feature data packets in the association relationship is used as a grayscale area data update parameter, and the grayscale area data of the second target feature image object sequence is configured to include the image data of each feature data packet in the second target feature image object sequence and the grayscale area data update parameter, wherein the importance index corresponding to each feature data packet in the second target feature image object sequence in the first association topology network is greater than a second set threshold.

[0046] 10) Terminal application of micro-innovation flower painting production system based on virtual reality technology, including:

[0047] The flower paintings produced by the micro-innovation flower painting production system based on virtual reality technology described in 1)-9) will be placed in the areas divided by the terminal and displayed to the outside.

[0048] Compared with the prior art, the present invention also has the following technical effects:

[0049] The present invention applies virtual reality technology to the link of flower painting production, divides the flower painting display area along the radial or longitudinal direction through the monomer cultivation module to form several fresh flower cultivation areas, and the flower painting display area is the flower painting work in the flower painting production link, and uses the remote sensing control module to extract the posture image data of the flowers in the flower painting work formed by the flower painting production, and extracts the original image grayscale area through the image data, and constructs the center line of the two side lines of the fresh flower cultivation area with the two side lines of the image grayscale area as the standard, and marks the center line as the edge contour in the monomer cultivation module, and comprehensively proposes a feature data packet of the fresh flower growth characteristics in the fresh flower cultivation area according to the edge contour of each monomer cultivation module, so that the constructed fresh flower growth simulation scene has higher realism.

[0050] Through the flower growth simulation scene, the display of flowers in the flower paintings in various areas of the terminal can be directly and remotely obtained, and the survival time of flowers in a flower painting in a certain area of ​​the terminal can be known in advance. On the one hand, the flower paintings can be replaced in advance, thereby reducing the impact of the withering of flowers in the flower paintings on the beauty of the terminal landscape. On the other hand, the flowers in each refined flower cultivation area can also be sprayed with nutrient solution through the single-body cultivation module, thereby extending the survival life and use time of the flowers in the flower paintings. BRIEF DESCRIPTION OF THE DRAWINGS

[0051] Figure 1 It is a framework diagram of the micro-innovation flower painting production system based on virtual reality technology of the present invention;

[0052] Figure 2 A flow chart of automatically generating a flower growth simulation scene by a simulation scene construction end in the micro-innovation flower painting production system based on virtual reality technology of the present invention;

[0053] Figure 3 It is a structural schematic diagram of the flower painting display area in the micro-innovation flower painting production system based on virtual reality technology of the present invention. DETAILED DESCRIPTION

[0054] The following is further described in detail through specific implementation methods:

[0055] The reference numerals in the drawings of the specification include: display board 1, remote sensing frame 2, water pipe 3, water storage tank 4, water pipe 5, sliding hole 6, sliding block 7, camera 8, planting hole 9.

[0056] Now will be referred to in detail the embodiments disclosed in the present invention, although the present disclosure will be described in conjunction with the embodiments and / or examples, they are not intended to limit the present disclosure to these embodiments and / or examples. On the contrary, the present disclosure covers alternatives, modifications and equivalents.

[0057] Example 1

[0058] See also Figure 1 As shown, the micro-innovation flower painting production system based on virtual reality technology in this embodiment includes a flower painting display area, a remote sensing control module, a temperature and humidity control module and several monomer cultivation modules, wherein the flower painting display area is configured to carry the root and stem parts of fresh flowers and display the posture of fresh flowers after micro-innovation; the remote sensing control module is surrounded by the circumferential direction of the flower painting display area, and reciprocates along the circumferential direction to extract image data of the flower posture; the temperature and humidity control module is arranged in the flower painting display area, and extracts environmental data of the temperature and humidity of the environment in which the flowers are located.

[0059] Several single cultivation modules divide the flower painting display area along the radial direction or the longitudinal direction to form several fresh flower cultivation areas. The single cultivation modules are configured to control water in the fresh flower cultivation areas. The specific method is as follows: the original image grayscale area is extracted through image data, and then the two side edges of the image grayscale area are used as the standard to construct the center line of the two side edges of the fresh flower cultivation area. The center line is calibrated as the edge contour in the single cultivation module. According to the edge contour of each single cultivation module, a feature data packet of fresh flower growth characteristics in the fresh flower cultivation area is comprehensively formulated and transmitted to the simulation scene construction end; the fresh flower growth simulation scene is automatically generated according to the simulation scene construction end. The fresh flower growth simulation scene uses the updated image grayscale area combined with the environmental data extracted from the temperature and humidity control module to control the single cultivation module to perform quantitative and timed spraying in the fresh flower cultivation area.

[0060] A flower painting display area is divided into a plurality of fresh flower cultivation areas along a radial direction or a longitudinal direction by a plurality of single cultivation modules, and the fresh flower cultivation areas are used to carry the root and stem parts of fresh flowers to display the posture of fresh flowers; when the remote sensing control module reciprocates along the circumferential direction of the flower painting display area, image data of the flower posture in the fresh flower cultivation area is extracted, and the original image grayscale area is extracted from the image data, and the original image grayscale area represents the fading state of the flower posture.

[0061] Then, taking the side lines on both sides of the grayscale area of ​​the image in a single flower cultivation area as the standard, construct the center line of the side lines on both sides of the flower cultivation area, and use this center line to calibrate the edge contour in the single cultivation module. According to the edge contour of each single cultivation module, a feature data packet of the flower growth characteristics in the flower cultivation area is comprehensively formulated and transmitted to the simulation scene construction end, and the flower growth simulation scene is automatically generated in the simulation scene construction end.

[0062] By combining the updated image grayscale area with the environmental data extracted from the temperature and humidity control module in the flower growth simulation scene, it is possible to determine whether the flowers are in a withering state, mark them, and know in advance the service life of the flowers in the terminal flower painting. At the same time, the single-body cultivation module is controlled in real time to carry out quantitative and timed spraying in the flower cultivation area to extend the survival time of the flowers. The remote sensing control module is then used to extract image data in real time and update the flower growth simulation scene. It is possible to dynamically know whether the flowers are alive or withered, even if the flower painting is replaced.

[0063] See also Figure 2 As shown, in this embodiment, the flower growth simulation scene is automatically generated in the simulation scene construction terminal, including the following steps:

[0064] Step S1, parsing different feature data packets to obtain other feature data packets of the first associated topology network contained in the flower growth simulation scene corresponding to the current feature data packet;

[0065] Step S2, screening the remaining characteristic data packets in the first association topology network with key objects, generating a sub-network of the first association topology network, and obtaining a new characteristic data packet of flower growth characteristics;

[0066] In step S3, the image grayscale area in the corresponding flower cultivation area is determined according to the feature data packet of the flower growth feature of the sub-network, and the flower growth simulation scene is automatically updated in real time.

[0067] Among them, in step S1, each feature data packet in the first association topology network is a feature data packet included in the current camera 8 image data, and the association relationship between the feature data packets in the first association topology network is the topological relationship between the feature data packets included in the current camera 8 image data.

[0068] In step S2, the remaining characteristic data packets in the first associated topology network are screened by key objects to generate a sub-network of the first associated topology network, including:

[0069] Obtaining the importance index corresponding to each characteristic data packet in the sub-network in the first associated topology network;

[0070] When the sub-network includes a first target feature image object sequence, the grayscale area data of the first target feature image object sequence is configured to include image data of each feature data packet in the first target feature image object sequence, wherein the importance index corresponding to each feature data packet in the first target feature image object sequence in the first association topology network is greater than a first set threshold;

[0071] When the sub-network includes a second target feature image object sequence, the difference in image data coordinates between each feature data packet in the second target feature image object sequence and the corresponding matching associated remaining feature data packets in the association relationship is used as a grayscale area data update parameter, and the grayscale area data of the second target feature image object sequence is configured to include image data and grayscale area data update parameters for each feature data packet in the second target feature image object sequence, wherein the importance index corresponding to each feature data packet in the second target feature image object sequence in the first association topology network is greater than a second set threshold.

[0072] Obtaining the importance index corresponding to each characteristic data packet in the sub-network in the first associated topology network, including:

[0073] The historical statistical record information of the image data extracted from the camera is parsed, and the target historical statistical record information corresponding to each feature data packet is filtered out according to the received timestamp filtering label in the historical statistical information, and the target historical statistical record information is the historical statistical record information obtained by searching for different target feature image object sequences, and each target feature image object sequence corresponds to a feature data packet;

[0074] The historical statistical times corresponding to each target feature image object sequence are extracted from the target historical statistical record information; based on the historical statistical times corresponding to each target feature image object sequence and the corresponding preset weight parameters, a target importance index corresponding to each target feature image object sequence is generated to obtain the importance index corresponding to each feature data packet in the second association topology network in the first association topology network.

[0075] In addition, according to the historical statistical times corresponding to each target feature image object sequence, the data statistical frequency corresponding to each target feature image object sequence is generated; according to each data statistical frequency, the importance analysis strategy corresponding to the target feature image object sequence is determined, wherein the data statistical frequencies in different intervals correspond to different importance analysis strategies, and the importance analysis strategy is used to indicate that the historical statistical times corresponding to the target feature image object sequence are analyzed through multiple dimensions, and the importance analysis strategy includes a statistical frequency analysis strategy, a weight ratio analysis strategy, and a sorting order analysis strategy;

[0076] Analyze the historical statistical times using the statistical frequency analysis strategy to obtain the first importance contribution value corresponding to each target feature image object sequence;

[0077] Using the weight ratio analysis strategy corresponding to each target feature image object sequence, the first important program index corresponding to each target feature image object sequence is updated to obtain the second important degree contribution value corresponding to each target feature image object sequence;

[0078] According to the sorting order analysis strategy, the second importance contribution values ​​corresponding to all target feature image object sequences are sorted and analyzed to obtain the third importance contribution value corresponding to each target feature image object sequence, wherein each third importance contribution value is used to indicate the importance corresponding to each target feature image object sequence under the importance analysis strategy;

[0079] According to the contribution value interval to which each third importance contribution value belongs, finding out the first contribution level score corresponding to each target feature image object sequence from the preset contribution strategy;

[0080] Using a statistical frequency analysis strategy to process each first contribution level score, generating a second contribution level score corresponding to each target feature image object sequence;

[0081] Processing each second contribution level score according to a weight ratio analysis strategy to generate a third contribution level score corresponding to each target feature image object sequence;

[0082] Processing each third contribution level score according to the sorting order analysis strategy to generate a fourth contribution level score corresponding to each target feature image object sequence;

[0083] The second contribution level score, the third contribution level score and the fourth contribution level score corresponding to each target feature image object sequence are weightedly summed to generate a comprehensive contribution score corresponding to each target feature image object sequence;

[0084] The ratio of the contribution comprehensive score corresponding to each target feature image object sequence to all the contribution comprehensive scores is determined as the target importance index corresponding to each target feature image object sequence.

[0085] In addition, the simulation scene construction end receives characteristic data packets of the flower cultivation areas in different monomer cultivation modules, and processes different characteristic data packets to construct simulation scenes in sequence. The specific method is as follows:

[0086] Processing the received characteristic data packets of several flower cultivation areas, sorting them in order, and marking them as Ai, where i=1, 2, ..., n, and n represents the number of characteristic data packets;

[0087] A set of parameters with the smallest capacity value is selected from several characteristic data packets received in a period of time, and the format of this parameter is determined, and this format is marked as the initial format Aj, where j∈i, and the specific duration of converting the recognition logic of this format Aj into other format recognition logic is searched and marked as St, where t=1, 2, ..., m, and m represents the number of durations, and m=n 1, and the minimum value is selected from m St, and the corresponding format is determined, which is used as the second type format of the initial format Aj;

[0088] Then, the second-class format is used as the standard, and the specific time length of converting the recognition logic of the second-class format into the recognition logic of other formats is searched and marked as Sq, where q = 1, 2, ..., p, where p = n 2, and then the minimum value is selected from the p Sq, and the corresponding format is determined, which is used as the third-class format of the second-class format. Similarly, the received formats are sorted in sequence, and a format sorting table is generated. If the same format exists in the process of selecting the minimum value, it can be randomly selected;

[0089] According to the format sorting table, several feature data packets are sorted to generate the best processing sequence. According to the front-to-back arrangement order of the best processing sequence, the specified feature data packets are processed in sequence to complete the overall construction of the entire simulation scene.

[0090] in

[0091] Example 2

[0092] See also Figure 3 As shown, based on the embodiment 1, this embodiment is a flower painting display area that carries the rhizome of flowers and displays the posture of flowers after micro-innovation, including a display board 1 with a hollow structure, and a plurality of flower cultivation areas are arranged in the display board 1. A plurality of planting holes 9 are evenly distributed in each flower cultivation area, and each planting hole 9 can allow the rhizome of the flower to be embedded and fixedly carried;

[0093] The rhizome of the flower is micro-innovated to remove rotten or damaged rhizomes, and the rhizome of the flower is kept intact and capable of absorbing water independently. The rhizome of the flower is divided into an upper rhizome, a lower rhizome and a tail rhizome along the length direction. The upper rhizome is fixed in the planting hole 9 with a thermoplastic adhesive, the lower rhizome is soaked in formalin solution for 1-2 minutes, and the tail rhizome passes through the planting hole 9 and extends to the internal space of the display board 1. The internal space of the display board 1 has a monomer cultivation module that can spray nutrient solution on the tail rhizome.

[0094] The display board 1 in the airport terminal is generally used for flower exhibition works showing the postures of flowers. The display board 1 of the present invention has a hollow structure so that it has an internal space, and a plurality of flower cultivation areas are arranged in the display board 1, and each part of the display board 1 is finely divided. At the same time, each flower cultivation area corresponds to a plurality of planting holes 9, and the planting holes 9 have two functions. The first function is to insert and fix the root and stem parts of the flowers, so that the flowers can be fixed on the display board 1 to form flower paintings for passengers to watch and appreciate;

[0095] The second function is to divide the rhizome of the flower into an upper rhizome, a lower rhizome and a tail rhizome. The upper rhizome is fixed to the planting hole 9 using a thermoplastic adhesive to support the entire flower posture. The lower rhizome is soaked in formalin solution for 1-2 minutes to prevent the lower rhizome from rotting and improve the survival life of the rhizome of the flower. The tail rhizome extends through the planting hole 9 to the internal space of the display board 1, and the tail rhizome is supplied with nutrient solution through the monomer cultivation module to improve the survival life of the flower.

[0096] Among them, the single-body cultivation module includes a water pipe 3, which extends in a wave-like manner along the arrangement of several planting holes 9. The water pipe 3 is located in the internal space of the display board 1. The water pipe 3 is provided with spray holes connected to the planting holes 9 along its axial direction. The water inlet end of the water pipe 3 is connected to a water supply pipe 5. The water inlet end of the water supply pipe 5 is connected to a water storage tank 4 located at the bottom of the display board 1 through a water pump. The water storage tank 4 is used to store excess nutrient water of the display board 1.

[0097] The water pipe 3 is placed in the internal space of the display board 1. The water pipe 3 is arranged in a wave-like manner with several planting holes 9, so that the positions of the spray holes on the water pipe 3 correspond to the positions of the planting holes 9 one by one. The planting holes 9 are connected to the spray holes, so that the tail rhizomes of the flowers pass through the planting holes 9 and are located in the spray holes. The nutrient water in the water storage tank 4 is introduced into the water pipe 3 through the water supply pipe 5. The nutrient water is sprayed on the tail rhizomes of the flowers located in the spray holes, which promotes the growth of the flowers and prolongs the survival life of the flowers in the flower painting.

[0098] In this embodiment, the remote sensing control module is surrounded by the circumferential direction of the flower painting display area and reciprocates along the circumferential direction to extract image data of the flower posture, including a remote sensing frame 2, the remote sensing frame 2 is arranged on one side of the flower painting display area, and the remote sensing frame 2 is slidably connected with a camera 8 facing the flower painting display area. The camera 8 can move along the circumferential direction of the flower painting display area and shoot to obtain its fixed flower posture image data.

[0099] The remote sensing frame 2 is used to support the camera 8, and the remote sensing frame 2 is set in the circumferential direction surrounding the flower painting display area. The camera 8 captures image data of fixed flower postures in the flower painting display area, and the state of the flower posture in the flower painting work is known in real time. This makes it easy to remotely understand the state of the flowers in the flower painting works in the flower painting display area, predict their survival time according to the state of the flower posture, and know the service life of the flower painting works in advance.

[0100] In addition, a sliding hole 6 is opened on the upper surface of the remote sensing frame 2 along the circumferential direction of the flower painting display area, and a sliding block 7 is slidably connected in the sliding hole 6. The sliding block 7 is fixedly connected to the camera 8 at the end facing the flower painting display area, and a driving mechanism is fixed on the end of the sliding block 7 facing away from the flower painting display area through the remote sensing frame 2. The driving mechanism is operated in the form of a manipulator, and the driving mechanism drives the sliding block 7 to move along the operating direction of the sliding hole 6.

[0101] The driving mechanism drives the sliding block 7 to move along the circumferential direction of the flower painting display area, so that the camera 8 at the end of the sliding block 7 can capture the posture of the flowers in the flower painting display area and form image data, but the present invention is not limited to this method of extracting image data of the flower posture.

[0102] The terminal application of the micro-innovation flower painting production system based on virtual reality technology includes placing the flower paintings produced by the micro-innovation flower painting production system based on virtual reality technology in the areas divided by the terminal and displaying them externally.

[0103] Virtual reality technology is applied to the flower painting production process. The flower painting display area is divided into several flower cultivation areas in radial or longitudinal directions through the single cultivation module. The flower painting display area is the flower painting work in the flower painting production process. The remote sensing control module is used to extract the posture image data of the flowers in the flower painting work formed by the flower painting production. The original image grayscale area is extracted through the image data, and the center line of the two side lines of the image grayscale area is constructed based on the side lines of the area. The center line is calibrated as the edge contour in the single cultivation module. According to the edge contour of each single cultivation module, it is comprehensively proposed as a feature data packet of the flower growth characteristics in the flower cultivation area. The constructed flower growth simulation scene has higher realism.

[0104] Through the flower growth simulation scene, the display of flowers in the flower paintings in various areas of the terminal can be directly and remotely obtained, and the survival time of flowers in a flower painting in a certain area of ​​the terminal can be known in advance. On the one hand, the flower paintings can be replaced in advance, thereby reducing the impact of the withering of flowers in the flower paintings on the beauty of the terminal landscape. On the other hand, the flowers in each refined flower cultivation area can also be sprayed with nutrient solution through the single-body cultivation module, thereby extending the survival life and use time of the flowers in the flower paintings.

[0105] The above are only embodiments of the present invention, and the common knowledge such as the known specific technical solutions and / or characteristics in the solution are not described in detail here. It should be pointed out that for those skilled in the art, several modifications and improvements can be made without departing from the technical solution of the present invention, which should also be regarded as the protection scope of the present invention, and these will not affect the effect of the implementation of the present invention and the practicality of the patent. The scope of protection required by this application shall be based on the content of its claims, and the specific implementation methods and other records in the specification can be used to interpret the content of the claims.

Claims

1. A micro-innovation flower painting production system based on virtual reality technology, characterized by: include: The flower painting display area is configured to carry the root and stem parts of flowers and display the postures of flowers after micro-innovation; The remote sensing control module is surrounded by the circumferential direction of the flower painting display area, and reciprocates along the circumferential direction to extract image data of the flower posture; The temperature and humidity control module is set in the flower painting display area and extracts environmental data on the temperature and humidity of the environment where the flowers are located; Several single cultivation modules divide the flower painting display area in the radial direction or the longitudinal direction to form several flower cultivation areas. The single cultivation modules are configured to control water in the flower cultivation area. The specific method is as follows: The original image grayscale area is extracted from the image data, and then the center lines of the two sides of the area of ​​the image grayscale area are used as the standard to construct the center lines of the two sides of the flower cultivation area, and the center line is calibrated as the edge contour in the monomer cultivation module. According to the edge contour of each monomer cultivation module, a feature data packet of the flower growth characteristics in the flower cultivation area is comprehensively formulated and transmitted to the simulation scene construction end; the flower growth simulation scene is automatically generated according to the simulation scene construction end. The flower growth simulation scene combines the updated image grayscale area with the environmental data extracted from the temperature and humidity control module to control the monomer cultivation module to perform quantitative and timed spraying in the flower cultivation area.

2. The micro-innovation flower painting production system based on virtual reality technology according to claim 1 is characterized by: The flower painting display area that carries the rhizome of flowers and displays the posture of flowers after micro-innovation includes a display board with a hollow structure, wherein a plurality of flower cultivation areas are arranged in the display board, and a plurality of planting holes are evenly distributed in each flower cultivation area, and each planting hole can allow the rhizome of flowers to be embedded and fixedly carried; The flower rhizome part is micro-innovated to remove rotten or damaged rhizomes, and retain the complete flower rhizome part that can absorb water independently. The flower rhizome part is divided into an upper rhizome, a lower rhizome and a tail rhizome along the length direction. The upper rhizome is fixed in the planting hole by using a thermoplastic adhesive, the lower rhizome is soaked in formalin solution for 1-2 minutes, and the tail rhizome passes through the planting hole and extends to the internal space of the display board. The internal space of the display board has a monomer cultivation module that can spray nutrient solution on the tail rhizome.

3. The micro-innovation flower painting production system based on virtual reality technology according to claim 2 is characterized by: The single cell cultivation module comprises a water pipe, which extends in a wave shape along a plurality of planting holes. The water pipe is located in the inner space of the display board. The water pipe is provided with spray holes connected to the planting holes along its axial direction. The water inlet end of the water pipe is connected to a water supply pipe. The water inlet end of the water supply pipe is connected to a water storage tank located at the bottom of the display board via a water pump. The water storage tank is used to store excess nutrient water of the display board.

4. The micro-innovation flower painting production system based on virtual reality technology according to claim 1 is characterized in that: The remote sensing control module is surrounded by the circumferential direction of the flower painting display area and moves back and forth along the circumferential direction to extract image data of the flower posture, including a remote sensing frame, which is arranged on one side of the flower painting display area. A camera facing the flower painting display area is slidably connected to the remote sensing frame, and the camera can move along the circumferential direction of the flower painting display area and shoot to obtain the fixed flower posture image data.

5. The micro-innovation flower painting production system based on virtual reality technology according to claim 4 is characterized by: A sliding hole is provided on the upper surface of the remote sensing frame along the circumferential direction of the flower painting display area, a sliding block is slidably connected in the sliding hole, the end of the sliding block facing the flower painting display area is fixedly connected to the camera, the end of the sliding block away from the flower painting display area passes through the remote sensing frame and is fixed with a driving mechanism, and the driving mechanism drives the sliding block to move along the running direction of the sliding hole.

6. The micro-innovation flower painting production system based on virtual reality technology according to claim 1 is characterized by: The simulation scene construction end receives characteristic data packets of the flower cultivation areas in different monomer cultivation modules, and processes different characteristic data packets to construct simulation scenes in sequence, specifically in the following manner: Processing the received characteristic data packets of several flower cultivation areas, sorting them in order, and marking them as Ai, where i=1, 2, ..., n, and n represents the number of characteristic data packets; A set of parameters with the smallest capacity value is selected from several characteristic data packets received in a period of time, and the format of this parameter is determined, and this format is marked as the initial format Aj, where j∈i, and the specific duration of converting the recognition logic of this format Aj into other format recognition logic is searched and marked as St, where t=1, 2, ..., m, and m represents the number of durations, and m=n-1, and the minimum value is selected from m St, and the corresponding format is determined, which is used as the second type format of the initial format Aj; Then, the second-class format is used as the standard, and the specific time length of converting the recognition logic of the second-class format into the recognition logic of other formats is searched and marked as Sq, where q = 1, 2, ..., p, where p = n-2, and then the minimum value is selected from p Sq, and the corresponding format is determined, which is used as the third-class format of the second-class format. Similarly, the received formats are sorted in sequence, and a format sorting table is generated. If the same format exists in the process of selecting the minimum value, it can be randomly selected; According to the format sorting table, several feature data packets are sorted to generate the best processing sequence. According to the front-to-back arrangement order of the best processing sequence, the specified feature data packets are processed in sequence to complete the overall construction of the entire simulation scene.

7. The micro-innovation flower painting production system based on virtual reality technology according to claim 1 is characterized by: The step of automatically generating a flower growth simulation scene in the simulation scene construction terminal includes the following steps: Step S1, parsing different feature data packets to obtain other feature data packets of the first associated topology network contained in the flower growth simulation scene corresponding to the current feature data packet; Step S2, screening the remaining characteristic data packets in the first association topology network with key objects, generating a sub-network of the first association topology network, and obtaining a new characteristic data packet of flower growth characteristics; In step S3, the image grayscale area in the corresponding flower cultivation area is determined according to the feature data packet of the flower growth feature of the sub-network, and the flower growth simulation scene is automatically updated in real time.

8. The micro-innovation flower painting production system based on virtual reality technology according to claim 7 is characterized by: In step S1, each feature data packet in the first association topology network is a feature data packet included in the current camera image data, and the association relationship between the feature data packets in the first association topology network is the topological relationship between the feature data packets included in the current camera image data.

9. The micro-innovation flower painting production system based on virtual reality technology according to claim 7 is characterized by: In step S2, the remaining characteristic data packets in the first associated topology network are screened by key objects to generate a sub-network of the first associated topology network, including: Obtaining the importance index corresponding to each characteristic data packet in the subnetwork in the first associated topology network; When the sub-network includes a first target feature image object sequence, the grayscale area data of the first target feature image object sequence is configured to include image data of each feature data packet in the first target feature image object sequence, wherein the importance index corresponding to each feature data packet in the first target feature image object sequence in the first association topology network is greater than a first set threshold; When the sub-network includes a second target feature image object sequence, the difference in image data coordinates between each feature data packet in the second target feature image object sequence and the corresponding matching associated remaining feature data packets in the association relationship is used as a grayscale area data update parameter, and the grayscale area data of the second target feature image object sequence is configured to include the image data of each feature data packet in the second target feature image object sequence and the grayscale area data update parameter, wherein the importance index corresponding to each feature data packet in the second target feature image object sequence in the first association topology network is greater than a second set threshold.

10. The terminal application of the micro-innovation flower painting production system based on virtual reality technology is characterized by: include: The flower paintings produced by the micro-innovation flower painting production system based on virtual reality technology described in claims 1-9 are placed in the areas divided by the terminal and displayed externally.

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