Artificial ski field analogue simulation system and method based on Internet of Things
By integrating Internet of Things technology in artificial ski resorts, real-time collection and analysis of skier data, timely identification and prevention of dangers, and dynamically adjusting the ski resort environment and equipment status, the problem of skiers in the existing technology that it is difficult for skiers to timely warn and prevent dangers when using skiers, achieving higher safety and real experience.
Patent Information
- Application Number
- CN202510220866.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-02-27
- Publication Date
- 2025-06-13
AI Technical Summary
The prior art is difficult to ensure the real experience of skiers while promptly warning and preventing the dangers or potential dangers faced by skiers, leading to potential safety risks.
By integrating IoT technology in artificial ski resorts, skier attitude data and environmental data can be collected in real time, and reference data in the database can be used for intelligent analysis to identify hazards or potential hazards in a timely manner. Dynamically adjust the speed, slope and the working status of the snow removal device of the ski machine through the control module to reduce potential risks, and activate the protection device when necessary to ensure the safety of skiers.
It achieves earlier warning and prevention of dangerous or potential dangers for skiers, comprehensively improves the safety of skiing activities, and enhances the immersion and real experience of skiers.
Smart Images

Figure CN120145667A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of indoor skiing, and in particular, to a simulation system and method for an artificial ski resort based on the Internet of Things. Background Art
[0002] Skiing is a winter sport carried out on snow, which is deeply loved by the general public. Due to environmental constraints, traditional ski resorts can usually only be opened in cold winter weather, and are mainly concentrated in high-latitude or high-altitude areas to ensure sufficient natural snowfall or low-temperature conditions to maintain the ski slopes. This means that for ski enthusiasts in most areas, the opportunity to ski is relatively limited, and they need to invest more time and cost to go to the ski resort. In contrast, the emergence of artificial ski resorts provides more choices for ski enthusiasts. Through artificial snow-making technology, artificial ski resorts can provide sufficient snow volume during the ski season and extend the business cycle of the ski resort.
[0003] However, the construction and operation costs of existing artificial ski resorts are relatively high. In contrast, indoor simulation ski machines have more advantages. It is not restricted by seasons and time, and skiing training can be carried out at any time and any place throughout the year. The ski machine has a low error tolerance and a large frictional resistance, which can help skiers form muscle memory faster and improve skiing skills.
[0004] When skiers experience skiing using a ski machine, the existing technology provides an immersive visual experience for skiers through VR glasses, enabling skiers to see virtual skiing scenes as if they were in a real ski resort. However, this experience is limited to the visual level and lacks real tactile, auditory, and environmental feedback. This limitation is likely to cause skiers who train skiing using a ski machine to be disturbed and not adapt to the external environment when transitioning from a virtual environment to a real ski venue, thereby increasing potential risks.
[0005] Furthermore, when skiers use a ski machine for skiing, there is still a possibility of danger. For example, a skier may fall due to a mistake in their movements. Especially for novice skiers, this situation often brings them additional psychological burdens.
[0006] The Chinese invention patent with the publicly disclosed patent name "An Intelligent Indoor Skiing Machine System and Method Based on Deep Learning" and the publication number CN116889718A includes a skiing machine body, a slope adjustment device, a data acquisition module, a database module, a display terminal module, and an analysis and control system. This patent collects images and audio of skiers, analyzes and identifies the collected data through a deep learning model, evaluates the actions of skiers, and provides skiing skill suggestions. Moreover, this patent can also change the inclination angle of the ski belt. When a skier is in a dangerous state such as falling, the intelligent assistance system can accurately identify it in a timely manner, and make the skiing machine gradually stop and change to a gentle slope to reduce the harm suffered by the skier and improve the safety of the skiing machine. However, the current detection of dangerous states mainly relies on monitoring the posture of skiers, which means it mainly monitors impending or already occurred dangers. In this case, skiers may not be able to react in time or may already have been injured. Therefore, this system needs to be further optimized to achieve an earlier warning and prevention mechanism, so as to better ensure the safety of skiers. Summary of the Invention
[0007] The purpose of this application is to provide a simulation system and method for an artificial ski resort based on the Internet of Things, which solves the technical problem of providing earlier warnings or prevention for dangers or potential dangers while ensuring that skiers can enjoy a real skiing experience. This patent intelligently regulates external devices to prevent dangers from occurring when detecting early signs that a skier may be in danger. Even if a skier accidentally gets into a dangerous state, this system can quickly respond and take safety measures to protect the skier, comprehensively enhancing the safety of skiing activities.
[0008] To solve the above technical problems, the solution adopted in this application is as follows:
[0009] The present invention provides a simulation system for an artificial ski resort based on the Internet of Things, characterized in that it includes a data acquisition module, a data processing module, a control module, a human-computer interaction module, and a database; the data processing module is respectively connected to the data acquisition module, the control module, the human-computer interaction module, and the database, and the control module is connected to the human-computer interaction module;
[0010] The data acquisition module includes a posture data acquisition unit and an environmental data acquisition unit. The posture data acquisition unit is used to collect the posture data of skiers, and the environmental data acquisition unit is used to collect the environmental data of the artificial ski resort; the data collected by the posture data acquisition unit and the environmental data acquisition unit are respectively transmitted to the data processing module for further processing; the environmental data includes temperature, humidity, wind speed, wind direction, and snow surface conditions; the posture data includes, but is not limited to, skier posture, skier sliding speed, and the distance between the skier and obstacles;
[0011] The data processing module includes an attitude data processing unit, an environmental data processing unit, and a judgment unit. The attitude data processing unit is used to process the attitude data transmitted by the attitude data acquisition unit connected thereto; the environmental data processing unit is used to process the environmental data transmitted by the environmental data acquisition unit connected thereto;
[0012] The judgment unit is respectively connected to the attitude data processing unit, the environmental data processing unit, and the database. The judgment unit receives the attitude data and environmental data respectively transmitted by the attitude data processing unit and the environmental data processing unit. The judgment unit retrieves reference data from the database, and respectively judges the attitude data and environmental data according to the reference data, and the judgment results are respectively sent to the human-computer interaction module and the control module connected thereto;
[0013] The control module includes a device control unit and an environmental simulation unit;
[0014] The environmental simulation unit includes a first control unit and an environmental equipment group. The first control unit is connected to the judgment unit, and the first control unit controls the working mode of the environmental equipment group connected thereto according to the signal transmitted by the judgment unit; the environmental equipment group includes a snow flurry machine, a snow making machine, a refrigerator, and a hair dryer;
[0015] The device control unit includes a second control unit, an ice and snow clearing device, a ski machine, and a protection device. The second control unit is connected to the judgment unit, and the second control unit respectively controls the ice and snow clearing device, the ski machine, and the protection device connected thereto according to the signal transmitted by the judgment unit;
[0016] The database is used to store the equipment information and personnel information of the artificial ski resort, and remotely store and call the information;
[0017] The human-computer interaction module is used to interact with skiers to provide skiing guidance or safety tips.
[0018] In some embodiments, the judgment unit respectively judges the attitude data and environmental data according to the reference data, and the judgment results are respectively sent to the human-computer interaction module and the control module connected thereto. The above implementation includes the following steps:
[0019] Step S11: The judgment unit receives the attitude data and environmental data; the judgment unit retrieves reference data from the database; the reference data includes standard attitude data, attitude danger threshold data, and safe environment threshold data;
[0020] Step S12: Compare the attitude data with the standard attitude data to obtain attitude result data;
[0021] Step S13: Determine the attitude result data and the attitude danger threshold data. If the attitude result data exceeds the attitude danger threshold data, execute Step S14; if the attitude result data does not exceed the attitude danger threshold data, execute Step S15;
[0022] Step S14: Output the data from the judgment unit to the human-machine interaction module and the control module respectively; execute Step S16;
[0023] Step S15: Output the data from the judgment unit to the human-machine interaction module; execute Step S16;
[0024] Step S16: Determine the environmental data and the safe environment threshold. If the environmental data exceeds the safe environment threshold, execute Step S17; if the environmental data does not exceed the safe environment threshold, execute Step S18;
[0025] Step S17: Output the data from the judgment unit to the control module; execute Step S18;
[0026] Step S18: End.
[0027] In some embodiments, the judgment unit outputs data to the control module, and the data includes an instruction to adjust the speed of the ski machine, an instruction to adjust the slope of the ski machine, an instruction to turn on the ice clearing device, an instruction to turn off the ice clearing device, and an instruction to turn on the protection device;
[0028] If the judgment unit detects that the skier's attitude is a safe attitude but the ski machine has iced up, the judgment unit outputs an instruction to turn on the ice clearing device to the control module;
[0029] If the judgment unit detects that the skier's attitude is a dangerous attitude but the ski machine has not iced up, the judgment unit outputs an instruction to adjust the speed of the ski machine or an instruction to adjust the slope of the ski machine and an instruction to turn off the ice clearing device to the control module;
[0030] If the judgment unit detects that the skier's attitude is a dangerous attitude and the ski machine has iced up, the judgment unit outputs an instruction to adjust the speed of the ski machine or an instruction to adjust the slope of the ski machine and an instruction to turn on the ice clearing device to the control module;
[0031] If the judgment unit detects that the skier's attitude is a safe attitude and the ski machine has not iced up, the judgment unit outputs an instruction to turn off the ice clearing device or does not output an instruction to the control module.
[0032] In some embodiments, the dangerous attitudes are divided into first-level dangerous attitudes, second-level dangerous attitudes, and third-level dangerous attitudes;
[0033] The first-level dangerous posture means that the judgment unit outputs an instruction to adjust the speed of the ski machine to the control module;
[0034] The second-level dangerous posture means that the judgment unit outputs an instruction to adjust the slope of the ski machine to the control module;
[0035] The third-level dangerous posture means that the judgment unit outputs an instruction to adjust the speed of the ski machine and an instruction to adjust the slope of the ski machine to the control module.
[0036] In some embodiments, the first control unit controls the working mode of the connected environmental equipment group according to the signal transmitted by the judgment unit. The above implementation includes the following steps:
[0037] Step S21: The first control unit receives the control signal of the judgment unit and parses it to obtain adjustment data;
[0038] Step S22: Adjust the working parameters of the environmental equipment group according to the adjustment data;
[0039] Step S23: Monitor the working state of the environmental equipment group and make a judgment; if the working state is abnormal, execute step S204;
[0040] If the working state is normal, execute step S25;
[0041] Step S24: Adjust the working parameters of the environmental equipment group again according to the adjustment data, and count the number of times of adjusting the environmental equipment group; if the number of times does not exceed the preset number of times, execute step S23; if the number of times exceeds the preset number of times, execute step S25;
[0042] Step S25: The first control unit outputs feedback data to the judgment unit.
[0043] In some embodiments, in step S25, after receiving the feedback data, the judgment unit parses the feedback data and judges whether the equipment fails according to the parsed signal. The above implementation includes the following steps:
[0044] Step S251: The judgment unit receives the feedback data and parses it to obtain the data to be warned;
[0045] Step S252: Compare the data to be warned. If the data to be warned exceeds the preset threshold, execute step S253; if the data to be warned does not exceed the preset threshold, execute step S254;
[0046] Step S253: The judgment unit outputs a control signal to the human-machine interaction module and the control module according to the judgment result, and executes step S254;
[0047] Step S254: End.
[0048] In some embodiments, the second control unit controls the ice and snow clearing device, the ski machine, and the protection device connected thereto to work according to the signals transmitted by the judgment unit. The ski machine adjusts the slope or speed according to the signals transmitted by the second control unit. The ice and snow clearing device includes a surface snow scraping device, a lead screw, and a scraper control circuit. The scraper control circuit controls the surface snow scraping device connected thereto to contact the surface of the ski machine to perform snow or ice removal operations. The protection device includes a buffer air cushion, and the signal transmitted by the second control unit controls the buffer air cushion to pop up.
[0049] In some embodiments, the human-computer interaction module includes a display terminal and a voice terminal. The display terminal and the voice terminal are respectively connected to the data processing module.
[0050] The display terminal is used to display ski resort information in real time. The ski resort information includes, but is not limited to, the real-time status of ski slopes, the training data of skiers, and danger warnings.
[0051] The voice terminal is used for voice broadcast. The voice broadcast content includes, but is not limited to, danger warnings and ski skill guidance.
[0052] In some embodiments, the database includes a local database and an online database. The data processing module can retrieve data from either the local database or the online database.
[0053] The local database is used to store the equipment information and personnel information of the artificial ski resort. The equipment data includes, but is not limited to, equipment maintenance data, equipment operation status data, equipment usage time records, equipment failure alarm information, equipment maintenance history records, and equipment safety inspection results. The personnel information includes, but is not limited to, customer information and staff information. The customer information includes customer personal information, customer posture data, and customer preferences.
[0054] The online database is used to achieve remote storage and retrieval of data. The online database includes reference data. The data processing module retrieves the reference data from the database to determine whether there is a danger or potential danger. The reference data includes standard posture data, posture danger threshold data, and safety environment threshold data.
[0055] The present invention also provides a simulation method for an artificial ski resort based on the Internet of Things, characterized in that it is used to execute the simulation system for an artificial ski resort based on the Internet of Things described in any one of the above, and specifically includes the following steps:
[0056] Step S1: The data acquisition module collects the environmental data of the artificial ski resort and the posture data of the skiers in real time; after the collection is completed, the data is transmitted to the data processing module;
[0057] Step S2: The data processing module processes the environmental data and the posture data respectively to obtain the data to be compared;
[0058] Step S3: The data processing module retrieves the reference data from the database and judges the data to be compared with the reference data; if the safe state is judged, step S4 is executed; if the dangerous state is judged, step S5 is executed;
[0059] Step S4: The data processing module transmits the data to the human-computer interaction module for display or broadcast; step S1 is repeated;
[0060] Step S5: The data processing module transmits the data to the control module and the human-computer interaction module respectively; the control module adjusts the working states of the environmental equipment group, the ice and snow removal device, the ski machine, and the protection device; the human-computer interaction module displays or broadcasts the data; step S1 is repeated.
[0061] The technical solution of this application has at least the following advantages and beneficial effects:
[0062] 1. By collecting the posture data of skiers and the environmental data of the ski resort in real time and combining with the reference data in the database for intelligent analysis, the present invention can identify dangers or potential dangers in a timely manner. By dynamically adjusting the speed, slope of the ski machine and the working state of the ice and snow removal device through the control module, the potential risks can be effectively reduced, and the protection device can be activated when necessary to ensure the safety of skiers. At the same time, the environmental simulation unit can adjust the environmental parameters of the ski resort in real time according to the needs of skiers, further enhancing the immersion and real experience of skiers, thereby enhancing the fun and satisfaction of skiing while ensuring safety.
[0063] 2. The system stores data such as the historical posture data, preference information of skiers and the operating status of equipment in the database, and can provide personalized skiing guidance and services according to the personal habits and skill levels of skiers. The networked database supports remote data storage and retrieval, facilitating remote monitoring and equipment maintenance by the ski resort managers, improving management efficiency and reducing operating costs.
[0064] 3. By precisely controlling the environmental parameters of the ski resort through the environmental simulation unit, the present invention can simulate a real skiing environment and meet the needs of different skiers. BRIEF DESCRIPTION OF THE DRAWINGS
[0065] Figure 1 It is a schematic diagram of the overall structure of the present invention;
[0066] Figure 2 The flowchart of a specific embodiment of the present invention;
[0067] Figure 3 A scraper control circuit diagram of the present invention. Specific embodiments
[0068] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.
[0069] It should be noted that similar reference numerals and letters denote similar items in the following drawings. Therefore, once an item is defined in one drawing, it does not need to be further defined and explained in subsequent drawings. If terms such as "center", "upper", "lower", "inner", "outer", etc. indicate the orientation or positional relationship, it is based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship in which the product of this application is usually placed during use. It is only for the convenience of describing this application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus cannot be construed as a limitation to this application. It should also be noted that unless otherwise clearly defined and limited, if terms such as "set", "installed", "connected" are understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected, or indirectly connected through an intermediate medium, and it can be the internal communication of two elements. For those of ordinary skill in the art, the specific meanings of the above terms in this application can be understood in specific situations.
[0070] Embodiment 1
[0071] Please refer to Figures 1 - 3 , the present invention provides a simulation system for an artificial ski resort based on the Internet of Things, including a data acquisition module, a data processing module, a control module, a human-computer interaction module, and a database; the data processing module is respectively connected to the data acquisition module, the control module, the human-computer interaction module, and the database, and the control module is connected to the human-computer interaction module;
[0072] The data acquisition module includes an attitude data acquisition unit and an environmental data acquisition unit. The attitude data acquisition unit is used to acquire the attitude data of the skier, and the environmental data acquisition unit is used to acquire the environmental data of the artificial ski resort. The data acquired by the attitude data acquisition unit and the environmental data acquisition unit are respectively transmitted to the data processing module for further processing. The environmental data includes temperature, humidity, wind speed, wind direction, and snow surface condition. The attitude data includes, but is not limited to, the skier's posture, the skier's skiing speed, and the distance between the skier and the obstacle.
[0073] The data processing module includes an attitude data processing unit, an environmental data processing unit, and a judgment unit. The attitude data processing unit is used to process the attitude data transmitted by the attitude data acquisition unit connected to it. The environmental data processing unit is used to process the environmental data transmitted by the environmental data acquisition unit connected to it.
[0074] The judgment unit is respectively connected to the attitude data processing unit, the environmental data processing unit, and the database. The judgment unit receives the attitude data and environmental data respectively transmitted by the attitude data processing unit and the environmental data processing unit. The judgment unit retrieves reference data from the database and judges the attitude data and environmental data respectively according to the reference data. The judgment results are respectively sent to the human-computer interaction module and the control module connected to it.
[0075] The control module includes a device control unit and an environmental simulation unit.
[0076] The environmental simulation unit includes a first control unit and an environmental equipment group. The first control unit is connected to the judgment unit, and the first control unit controls the working mode of the environmental equipment group connected to it according to the signal transmitted by the judgment unit. The environmental equipment group includes a snow blower, a snowmaker, a refrigerator, and a hair dryer.
[0077] The device control unit includes a second control unit, an ice and snow clearing device, a ski machine, and a protection device. The second control unit is connected to the judgment unit, and the second control unit controls the ice and snow clearing device, the ski machine, and the protection device connected to it respectively according to the signal transmitted by the judgment unit.
[0078] The database is used to store the equipment information and personnel information of the artificial ski resort and to remotely store and call the information.
[0079] The human-computer interaction module is used to interact with the skier to provide skiing guidance or safety tips.
[0080] Specifically, the judgment unit judges the attitude data and environmental data respectively according to the reference data, and the judgment results are respectively sent to the human-computer interaction module and the control module connected to it. The above implementation includes the following steps:
[0081] Step S11: The judgment unit receives attitude data and environmental data; the judgment unit retrieves reference data from the database; the reference data includes standard attitude data, attitude danger threshold data, and safe environment threshold data;
[0082] Step S12: Compare the attitude data with the standard attitude data to obtain attitude result data;
[0083] Step S13: Judge the attitude result data against the attitude danger threshold data. If the attitude result data exceeds the attitude danger threshold data, execute Step S14; if the attitude result data does not exceed the attitude danger threshold data, execute Step S15;
[0084] Step S14: The judgment unit outputs data to the human-machine interaction module and the control module respectively; execute Step S16;
[0085] Step S15: The judgment unit outputs data to the human-machine interaction module; execute Step S16;
[0086] Step S16: Judge the environmental data against the safe environment threshold. If the environmental data exceeds the safe environment threshold, execute Step S17; if the environmental data does not exceed the safe environment threshold, execute Step S18;
[0087] Step S17: The judgment unit outputs data to the control module; execute Step S18;
[0088] Step S18: End.
[0089] Furthermore, the judgment unit outputs data to the control module, and the data includes instructions for adjusting the speed of the ski machine, adjusting the slope of the ski machine, turning on the ice clearing device, turning off the ice clearing device, and turning on the protection device;
[0090] If the judgment unit detects that the skier's attitude is a safe attitude but the ski machine has icing, the judgment unit outputs an instruction to turn on the ice clearing device to the control module;
[0091] If the judgment unit detects that the skier's attitude is a dangerous attitude but the ski machine has no icing, the judgment unit outputs an instruction for adjusting the speed of the ski machine or adjusting the slope of the ski machine and an instruction to turn off the ice clearing device to the control module;
[0092] If the judgment unit detects that the skier's attitude is a dangerous attitude and the ski machine has icing, the judgment unit outputs an instruction for adjusting the speed of the ski machine or adjusting the slope of the ski machine and an instruction to turn on the ice clearing device to the control module;
[0093] If the judgment unit detects that the skier's posture is a safe posture and the ski machine does not show icing, the judgment unit outputs an instruction to turn off the ice removal device or does not output an instruction to the control module.
[0094] It should be noted that the dangerous postures are divided into first-level dangerous postures, second-level dangerous postures, and third-level dangerous postures;
[0095] The first-level dangerous posture means that the judgment unit outputs an instruction to adjust the speed of the ski machine to the control module;
[0096] The second-level dangerous posture means that the judgment unit outputs an instruction to adjust the slope of the ski machine to the control module;
[0097] The third-level dangerous posture means that the judgment unit outputs an instruction to adjust the speed of the ski machine and an instruction to adjust the slope of the ski machine to the control module.
[0098] It should be noted that when the system issues an instruction according to the dangerous posture, it preferentially selects to adjust the speed of the ski machine, and then selects to adjust the slope of the ski machine. The reason is that the speed adjustment is relatively gentle and will not have too much impact on the overall experience of the skier, while the sudden change of the slope may make the skier feel uncomfortable.
[0099] Specifically, if the system detects that the skier's skiing speed is relatively fast, but the skier's posture and the distance between the skier and the obstacle are within the normal range, it is determined as a first-level dangerous posture, and the skiing speed of the skier is directly reduced by adjusting the speed of the ski machine, so as to reduce the potential risk caused by too fast speed; if the system detects that the skier's skiing speed is relatively fast and the skier's posture and the distance between the skier and the obstacle exceed the normal range, it is determined as a second-level dangerous posture, and the gravity component can be reduced by reducing the slope, so as to reduce the acceleration and skiing speed of the skier, and at the same time allow the skier to have enough reaction time to improve the skier's posture and the distance relationship with the obstacle; if the system detects that the skier's posture is in a falling state, it is determined as a third-level dangerous posture, and at this time, it is necessary to adjust the speed and slope of the ski machine at the same time to prevent the risk of secondary injury after the skier falls.
[0100] It should be noted that the obstacles include but are not limited to the edge of the ski machine and other skiers on the ski machine.
[0101] It should be noted that when the judgment unit judges the icing phenomenon, the judgment unit will also output a signal to the environmental simulation unit to adjust the indoor environment.
[0102] Specifically, the first control unit controls the working mode of the environmental equipment group connected to it according to the signal transmitted by the judgment unit. The above implementation includes the following steps:
[0103] Step S21: The first control unit receives the control signal of the judgment unit and parses it to obtain adjustment data;
[0104] Step S22: Adjust the working parameters of the environmental equipment group according to the adjustment data;
[0105] Step S23: Monitor the working status of the environmental equipment group and make a judgment; if the working status is abnormal, execute Step S204;
[0106] If the working status is normal, execute Step S25;
[0107] Step S24: Adjust the working parameters of the environmental equipment group again according to the adjustment data, and count the number of times of adjusting the environmental equipment group; if the number of times does not exceed the preset number of times, execute Step S23; if the number of times exceeds the preset number of times, execute Step S25;
[0108] Step S25: The first control unit outputs feedback data to the judgment unit.
[0109] It should be noted that in the above Step S25, after receiving the feedback data, the judgment unit analyzes the feedback data, and judges whether the device fails according to the analyzed signal. The above implementation includes the following steps:
[0110] Step S251: The judgment unit receives the feedback data and analyzes it to obtain the data to be warned;
[0111] Step S252: Compare the data to be warned. If the data to be warned exceeds the preset threshold, execute Step S253; if the data to be warned does not exceed the preset threshold, execute Step S254;
[0112] Step S253: The judgment unit outputs a control signal to the human-machine interaction module and the control module according to the judgment result, and execute Step S254;
[0113] Step S254: End.
[0114] It should be noted that in the above Step S22, the adjustment of the working parameters of the environmental equipment group includes the following methods:
[0115] Adjust the snowfall parameters of the snow machine, and the snowfall parameters include but are not limited to snowfall amount, snowfall direction, and snowfall time;
[0116] Adjust the snow-making parameters of the snow-making machine, and the snow-making parameters include but are not limited to snow-making amount and snow-making frequency;
[0117] Adjust the refrigeration parameters of the refrigerator, and the refrigeration parameters include but are not limited to refrigeration power and refrigeration time;
[0118] Adjust the blowing parameters of the hair dryer, and the blowing parameters include but are not limited to wind speed, wind direction, and blowing time.
[0119] It should be noted that the hair dryer is used for blowing to give skiers a real skiing experience. Especially when skiers are practicing turning, appropriate blowing can enhance the skiers' immersion.
[0120] Furthermore, the second control unit controls the ice and snow removal device, the ski machine, and the protection device connected thereto to work respectively according to the signals transmitted by the judgment unit. The ski machine adjusts the slope or speed according to the signals transmitted by the second control unit; the ice and snow removal device includes a surface snow scraping device, a lead screw, and a scraper control circuit. The scraper control circuit controls the surface snow scraping device connected thereto to contact the surface of the ski machine for snow or ice removal operations; the protection device includes a buffer air cushion, and the signals transmitted by the second control unit control the buffer air cushion to pop out.
[0121] It should be noted that the buffer air cushions are embedded on the upper side, lower side, left side, and right side of the ski machine. When the system detects that a skier has fallen, it immediately controls the buffer air cushions to pop out and stops the movement of the ski machine to protect the skier from secondary injuries;
[0122] It should be noted that in the ice and snow removal device, the surface snow scraping device is used to scrape the frozen parts on the ski machine; for the structure, installation position, and working mode of the surface snow scraping device, please refer to the Chinese utility model patent with the patent name "Surface Snow Scraping Device for Ski Magic Carpet Conveyor Belt" and the publication number CN217857546U. The surface snow scraping device in the present invention has the same principle and structure as the surface snow scraping device in the said patent, and the said patent has been publicly disclosed as the prior art, so it will not be described in detail here.
[0123] It should be noted that the ski machine includes a ski carpet, and skiers perform skiing actions on the ski carpet; the icing of the ski machine mentioned in the present invention means the icing of the ski carpet.
[0124] To prevent the surface snow scraping device from continuously scraping the ice on the ski carpet surface of the ski machine and thus causing damage to the ski carpet, the surface snow scraping device is controlled by a lead screw. When it is necessary to scrape the ice on the ski carpet, the lead screw pushes the surface snow scraping device to contact the ski carpet surface for ice scraping treatment; after the treatment is completed, the lead screw retracts the surface snow scraping device to make the surface snow scraping device leave the ski carpet surface.
[0125] It should be noted that the lead screw is controlled by the scraper control circuit;
[0126] In this embodiment, as Figure 3 shown, the scraper control circuit includes triodes Q1, Q2, Q3, Q4, and a motor U1;
[0127] Specifically, the base of the triode Q1 is set as the IN1 input terminal. The collector of the triode Q1 is connected to the collector of the triode Q2 and is connected to the power supply. The emitter of the triode Q1, the collector of the triode Q3, and the pin 1 of the motor U1 are connected. The base of the triode Q3 is set as the IN3 input terminal. The emitter of the triode Q3 and the emitter of the triode Q4 are connected and grounded. The base of the triode Q4 is set as the IN4 input terminal. The collector of the triode Q4, the emitter of the triode Q2, and the pin 2 of the motor U1 are connected. The base of the triode Q2 is set as IN2.
[0128] It should be noted that the IN1 input terminal, the IN2 input terminal, the IN3 input terminal, and the IN4 input terminal are all connected to the main control chip and are controlled by the main control chip. When the control signals are received at the IN1 input terminal and the IN4 input terminal, the lead screw advances to push the surface snow scraping device into contact with the surface of the ski carpet. When the control signals are received at the IN2 input terminal and the IN3 input terminal, the lead screw retreats to make the surface snow scraping device leave the surface of the ski carpet.
[0129] The human-computer interaction module includes a display terminal and a voice terminal. The display terminal and the voice terminal are respectively connected to the data processing module.
[0130] The display terminal is used to display the ski resort information in real time. The ski resort information includes but is not limited to the real-time status of the ski slopes, the training data of the skiers, and the danger warnings.
[0131] The voice terminal is used for voice broadcast. The voice broadcast content includes but is not limited to danger warnings and skiing skill guidance.
[0132] It should be noted that the skier can manually adjust the ski machine or the ski resort environment through the human-computer interaction module.
[0133] Specifically, the human-computer interaction module transmits data to the control module, and the control module adjusts the slope or speed of the ski machine and the snow drifting state or the blowing state of the ski resort according to the data.
[0134] The database includes a local database and an online database. The data processing module can retrieve data from either the local database or the online database.
[0135] The local database is used to store the equipment information and personnel information of the artificial ski resort. The equipment data includes but is not limited to equipment maintenance data, equipment operation status data, equipment usage time records, equipment fault alarm information, equipment maintenance history records, and equipment safety inspection results. The personnel information includes but is not limited to customer information and staff information. The customer information includes customer personal information, customer posture data, and customer preferences. The customer posture data is the customer's historical posture data.
[0136] An Internet-connected database for realizing remote storage and calling of data; the Internet-connected database includes reference data, and the data processing module retrieves the reference data from the database to determine whether there is a danger or potential danger; the reference data includes standard posture data, posture danger threshold data, and safe environment threshold data.
[0137] It should be noted that the danger or potential danger includes, but is not limited to, skiers falling, skiers getting too close to the border, the ski machine icing, improper setting of the speed or slope of the ski machine, and improper actions of skiers.
[0138] It should be noted that this system can adjust the environment and ski machine parameters according to the customer's posture data and customer preferences.
[0139] In some embodiments, this system determines the skier's skill level based on the customer's posture data, and then dynamically adjusts the danger determination criteria; the skill levels include novice and expert.
[0140] Specifically, if the posture data of a customer is determined to be a novice, when determining danger, the system will intervene earlier to avoid potential dangerous actions; if the posture data of a customer is determined to be an expert, when determining danger, the system will allow higher-risk actions and delay the intervention time to avoid overly restricting the customer's freedom while ensuring safety.
[0141] The present invention also provides a simulation method for an artificial ski resort based on the Internet of Things, which is used to execute the above-mentioned simulation system for an artificial ski resort based on the Internet of Things, and specifically includes the following steps:
[0142] Step S1: The data acquisition module continuously acquires the environmental data of the artificial ski resort and the posture data of the skier; after the acquisition is completed, the data is transmitted to the data processing module.
[0143] Step S2: The data processing module processes the environmental data and the posture data respectively to obtain the data to be compared.
[0144] Step S3: The data processing module retrieves the reference data from the database and judges the data to be compared with the reference data; if the safety state is judged, step S4 is executed; if the dangerous state is judged, step S5 is executed.
[0145] Step S4: The data processing module transmits the data to the human-computer interaction module for display or broadcast; step S1 is repeatedly executed.
[0146] Step S5: The data processing module transmits the data to the control module and the human-computer interaction module respectively; the control module adjusts the working states of the environmental equipment group, the ice and snow removal device, the ski machine, and the protection device; the human-computer interaction module displays or broadcasts the data; step S1 is repeatedly executed.
[0147] So far, the embodiments of the present invention have been described in detail. To avoid obscuring the concept of the present invention, some details well known in the art have not been described. Those skilled in the art can fully understand how to implement the technical solutions of the invention herein according to the above description, and the scope of the present invention is defined by the appended claims.
Claims
1. A simulation system of an artificial ski resort based on the Internet of Things, characterized by: It includes a data acquisition module, a data processing module, a control module, a human-computer interaction module, and a database; the data processing module is connected to the data acquisition module, the control module, the human-computer interaction module, and the database respectively, and the control module is connected to the human-computer interaction module; The data acquisition module includes a posture data acquisition unit and an environmental data acquisition unit. The posture data acquisition unit is used to collect posture data of the skier, and the environmental data acquisition unit is used to collect environmental data of the artificial ski resort. The data collected by the posture data acquisition unit and the environmental data acquisition unit are respectively transmitted to the data processing module for further processing. The environmental data includes temperature, humidity, wind speed and direction, and snow surface conditions. The posture data includes but is not limited to the posture of the skier, the sliding speed of the skier, and the distance between the skier and the obstacle. The data processing module includes a posture data processing unit, an environment data processing unit, and a judgment unit. The posture data processing unit is used to process the posture data transmitted by the posture data acquisition unit connected thereto; the environment data processing unit is used to process the environment data transmitted by the environment data acquisition unit connected thereto; The judgment unit is connected to the posture data processing unit, the environment data processing unit, and the database respectively. The judgment unit receives the posture data and environment data transmitted by the posture data processing unit and the environment data processing unit respectively. The judgment unit retrieves reference data from the database, judges the posture data and environment data respectively according to the reference data, and sends the judgment results to the human-computer interaction module and the control module connected thereto respectively. The control module includes a device control unit and an environment simulation unit; The environmental simulation unit includes a first control unit and an environmental equipment group. The first control unit is connected to the judgment unit. The first control unit controls the working mode of the environmental equipment group connected thereto according to the signal transmitted by the judgment unit. The environmental equipment group includes a snow drifter, a snow making machine, a refrigerator, and a hair dryer. The equipment control unit includes a second control unit, an ice and snow removal device, a ski machine, and a protection device. The second control unit is connected to the judgment unit. The second control unit controls the ice and snow removal device, the ski machine, and the protection device connected thereto according to the signal transmitted by the judgment unit. The database is used to store equipment information and personnel information of the artificial ski resort and to remotely store and call the information; The human-computer interaction module is used to interact with the skier to provide skiing guidance or safety tips.
2. The artificial ski resort simulation system based on the Internet of Things according to claim 1 is characterized in that: The judgment unit judges the posture data and the environmental data respectively according to the reference data, and sends the judgment results to the human-computer interaction module and the control module connected thereto respectively. The above implementation includes the following steps: Step S11: the judgment unit receives posture data and environment data; the judgment unit retrieves reference data from a database; the reference data includes standard posture data, posture danger threshold data, and safety environment threshold data; Step S12: comparing the posture data with the standard posture data to obtain posture result data; Step S13: the posture result data is judged against the posture danger threshold data. If the posture result data exceeds the posture danger threshold data, step S14 is executed; if the posture result data does not exceed the posture danger threshold data, step S15 is executed; Step S14: the judgment unit outputs data to the human-computer interaction module and the control module respectively; and step S16 is executed; Step S15: the judgment unit outputs data to the human-computer interaction module; and executes step S16; Step S16: the environmental data is judged against the security environment threshold. If the environmental data exceeds the security environment threshold, step S17 is executed; if the environmental data does not exceed the security environment threshold, step S18 is executed; Step S17: the judgment unit outputs data to the control module; and step S18 is executed; Step S18: End.
3. The artificial ski resort simulation system based on the Internet of Things according to claim 2 is characterized in that: The judgment unit outputs data to the control module, the data including a ski machine speed adjustment instruction, a ski machine slope adjustment instruction, an ice and snow removal device opening instruction, an ice and snow removal device closing instruction, and a protection device opening instruction; If the judgment unit detects that the skier's posture is a safe posture but the ski machine is iced, the judgment unit outputs an instruction to start the ice and snow removal device to the control module; If the judgment unit detects that the skier's posture is dangerous but the ski machine is not frozen, the judgment unit outputs a command to adjust the speed of the ski machine or a command to adjust the slope of the ski machine and a command to turn off the ice and snow removal device to the control module; If the judgment unit detects that the skier's posture is dangerous and the ski machine is iced, the judgment unit outputs a ski machine speed adjustment instruction or a ski machine slope adjustment instruction and an ice and snow removal device activation instruction to the control module; If the judgment unit detects that the skier's posture is a safe posture and the ski machine is not frozen, the judgment unit outputs a command to turn off the ice and snow removal device or does not output a command to the control module.
4. The simulation system of an artificial ski resort based on the Internet of Things according to claim 3 is characterized in that: The dangerous posture is divided into level one dangerous posture, level two dangerous posture, and level three dangerous posture; The first-level dangerous posture indicates that the judgment unit outputs a ski machine speed adjustment instruction to the control module; The second-level dangerous posture indicates that the judgment unit outputs a ski machine slope adjustment instruction to the control module; The third level of dangerous posture means that the judgment unit outputs a ski machine speed adjustment instruction and a ski machine slope adjustment instruction to the control module.
5. The artificial ski resort simulation system based on the Internet of Things according to claim 1 is characterized in that: The first control unit controls the working mode of the environmental equipment group connected thereto according to the signal transmitted by the judgment unit, and the above implementation includes the following steps: Step S21: the first control unit receives and analyzes the control signal of the judgment unit to obtain adjustment data; Step S22: adjusting the working parameters of the environmental equipment group according to the adjustment data; Step S23: monitor the working status of the environmental equipment group and make a judgment; if the working status is abnormal, execute step S204; If the working status is normal, execute step S25; Step S24: adjusting the working parameters of the environmental equipment group again according to the adjustment data, and counting the number of times the environmental equipment group is adjusted; if the number does not exceed the preset number, executing step S23; if the number exceeds the preset number, executing step S25; Step S25: the first control unit outputs feedback data to the judgment unit.
6. The artificial ski resort simulation system based on the Internet of Things according to claim 3 is characterized in that: In step S25, the judgment unit parses the feedback data after receiving the feedback data, and judges whether the device fails according to the parsed signal. The above implementation includes the following steps: Step S251: the judgment unit receives and analyzes the feedback data to obtain data to be warned; Step S252: Compare the data to be warned. If the data to be warned exceeds the preset threshold, execute step S253; if the data to be warned does not exceed the preset threshold, execute step S254; Step S253: the judgment unit outputs a control signal to the human-computer interaction module and the control module according to the judgment result, and then executes step S254; Step S254: End.
7. The artificial ski resort simulation system based on the Internet of Things according to claim 1 is characterized in that: The second control unit controls the operation of the ice and snow removal device, the ski machine and the protective device connected thereto respectively according to the signal transmitted by the judgment unit. The ski machine adjusts the slope or speed according to the signal transmitted by the second control unit. The ice and snow removal device includes a surface snow scraper, a screw and a scraper control circuit. The scraper control circuit controls the surface snow scraper connected thereto to contact the surface of the ski machine to perform snow or ice removal operations. The protective device includes a buffer air cushion, and the signal transmitted by the second control unit controls the buffer air cushion to pop out.
8. The artificial ski resort simulation system based on the Internet of Things according to claim 1, characterized in that: The human-computer interaction module includes a display terminal and a voice terminal; the display terminal and the voice terminal are respectively connected to the data processing module; The display terminal is used to display ski resort information in real time, and the ski resort information includes but is not limited to the real-time status of ski slopes, skier training data, and danger warnings; The voice terminal is used for voice broadcasting, and the content of the voice broadcasting includes but is not limited to danger warning and skiing technique guidance.
9. The artificial ski resort simulation system based on the Internet of Things according to claim 1, characterized in that: The database includes a local database and a networked database, and the data processing module can retrieve data from the local database or the networked database; The local database is used to store equipment information and personnel information of the artificial ski resort; the equipment data includes but is not limited to equipment maintenance data, equipment operation status data, equipment usage time records, equipment failure alarm information, equipment maintenance history records, and equipment safety inspection results; the personnel information includes but is not limited to customer information and staff information; customer information includes customer personal information, customer posture data, and customer preferences; The networked database is used to realize remote storage and call of data; the networked database includes reference data, and the data processing module retrieves reference data from the database to determine whether there is danger or potential danger; the reference data includes standard posture data, posture danger threshold data, and safety environment threshold data.
10. A simulation method for an artificial ski resort based on the Internet of Things, characterized in that: A simulation system for an artificial ski resort based on the Internet of Things for executing any one of claims 1 to 9, specifically comprising the following steps: Step S1: the data acquisition module collects the environmental data of the artificial ski resort and the posture data of the skier in real time; after the collection is completed, the data is transmitted to the data processing module; Step S2: the data processing module processes the environment data and the posture data respectively to obtain data to be compared; Step S3: the data processing module retrieves reference data from the database, and compares the data to be compared with the reference data; if it is judged to be a safe state, step S4 is executed; if it is judged to be a dangerous state, step S5 is executed; Step S4: the data processing module transmits the data to the human-computer interaction module for display or broadcasting; and step S1 is repeated; Step S5: the data processing module transmits data to the control module and the human-computer interaction module respectively; the control module adjusts the working status of the environmental equipment group and the ice and snow removal device, the ski machine, and the protection device; the human-computer interaction module displays or broadcasts the data; and step S1 is repeated.
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