CN219627729U - Intelligent passenger control device based on microwave imaging technology - Google Patents
Intelligent passenger control device based on microwave imaging technology Download PDFInfo
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- CN219627729U CN219627729U CN202223230596.3U CN202223230596U CN219627729U CN 219627729 U CN219627729 U CN 219627729U CN 202223230596 U CN202223230596 U CN 202223230596U CN 219627729 U CN219627729 U CN 219627729U
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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- Y02P—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
- Y02P90/00—Enabling technologies with a potential contribution to greenhouse gas [GHG] emissions mitigation
- Y02P90/02—Total factory control, e.g. smart factories, flexible manufacturing systems [FMS] or integrated manufacturing systems [IMS]
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Abstract
The utility model discloses an intelligent passenger control device based on a microwave imaging technology, which comprises: the system comprises a microwave transmitter, a receiving and processing unit, a gateway, a guest room intelligent controller, terminal equipment and a storage unit; the receiving processing unit is in communication connection with the gateway, the gateway is integrated in the intelligent guest room controller, the storage unit is in communication connection with the intelligent guest room controller, and the intelligent guest room controller is in communication connection with the terminal equipment; the running state of the terminal equipment is controlled by a guest room intelligent controller; the intelligent guest room controller controls the signals of the running state of the terminal equipment and is determined by the comparison result of the signals received by the receiving and processing unit and the pre-stored signals in the storage unit. The beneficial effects are that: the privacy of the user is not exposed, the state and the position of the user can be accurately identified, and the linkage is carried out on the guest room facilities through comprehensive judgment, so that more careful perception and experience can be brought to the user.
Description
Technical Field
The utility model relates to the field of artificial intelligence, in particular to an intelligent passenger control method and device based on a microwave imaging technology.
Background
With the continuous improvement of living standard of people, the demands of traveling and going out are continuously improved, and the hotel industry is always in an increasing situation. But the homogenization is serious, and the competition is strong and the problems and challenges facing the hotel industry. The intelligent transformation of hotels is an important trend of hotel development, on one hand, the living experience of residents can be improved, the competitiveness and the profit capability of the hotels are enhanced, on the other hand, the internet of things technology and the intelligent technology are introduced, hotel resources (such as energy consumption, personnel cost and the like) can be saved, and the operation cost of the hotels is reduced.
The current hotel intelligent system, namely 'intelligent' is a hotel intelligent guest control system which is manufactured based on a natural semantic recognition technology and combined with an internet of things technology, and guests control facilities in a guest room, such as lights, curtains, televisions, air conditioners and the like, through active awakening and active instructions. This approach can be somewhat convenient for guests to control the facilities of the guest room, but all instructions require the guest to issue actively, either by voice or by small programs. In some situations, the requirements of the client cannot be well met, for example, the client cannot recognize the accent problem, for example, the client cannot speak loudly or the client cannot speak or is inconvenient, and the like in some situations, so that the current perception of the client is not good enough and intelligent. While the current mature scheme is performed by a camera in view of actively monitoring the status of guests, relying on a perception system with motion capture and gesture recording functions, in hotel and home scenarios, the sensitivity of the client to privacy results in the inability to deploy the camera. And therefore can only be performed by other, non-imaging, motion capture mechanisms.
Disclosure of Invention
The utility model provides an intelligent guest control method and device based on a microwave imaging technology, aiming at solving the technical problem that the state of a user can be actively and accurately monitored on the premise of not exposing the privacy of the user, thereby realizing an intelligent guest control system in a true sense.
The utility model is realized by the following technical scheme:
an intelligent passenger control device based on microwave imaging technology, comprising: the system comprises a microwave transmitter, a receiving and processing unit, a gateway, a guest room intelligent controller, terminal equipment and a storage unit; the receiving processing unit is in communication connection with the gateway, the gateway is integrated in the intelligent guest room controller, the storage unit is in communication connection with the intelligent guest room controller, and the intelligent guest room controller is in communication connection with the terminal equipment; the running state of the terminal equipment is controlled by a guest room intelligent controller; the intelligent guest room controller controls the signals of the running state of the terminal equipment and is determined by the comparison result of the signals received by the receiving and processing unit and the pre-stored signals in the storage unit.
Further, the microwave transmitters are provided with a plurality of microwave transmitters which are uniformly and fixedly arranged at different positions of a room; the two receiving and processing units are fixedly connected in a room (opposite sides of the transmitter), and microwave signals sent by the plurality of microwave transmitters are transmitted in the room and then are received by the receiving and processing units as signals; after the receiving and processing unit performs data matching, the matched result (position+action) is connected with the gateway through 485 bus protocol, zigbee protocol, BLE Mesh protocol, thread protocol or Matter protocol in a wireless communication manner.
Further, the microwave transmitter is a four-terminal antenna microwave transmitter; the receiving and processing unit comprises an array or a directional antenna and a signal processing and transmitting unit, wherein the array or the directional antenna receives microwave signals and transmits the microwave signals to the gateway through the signal processing and transmitting unit; the terminal equipment comprises a lamp, a curtain, cooling and heating equipment, a humidifier and an alarm; the storage unit is an electronic device with a cross-platform transmission application program, a cloud server with microwave signal data, or an embedded system with microwave signals.
The utility model has the beneficial effects that: the privacy of the user is not exposed, the state and the position of the user can be accurately identified, and the linkage is carried out on the guest room facilities through comprehensive judgment, so that more careful perception and experience can be brought to the user. The accurate requirements of the guests can be extracted through the key elements such as the gestures, the actions, the positions and the like of the guests actively captured and the machine learning algorithm, so that the guest room facilities are actively controlled. For example, a guest sits in front of a desk, and the system can automatically turn on a reading lamp in front of the desk without sounding the guest; for example, a plurality of guests sit on a sofa, and the system automatically lightens the light to start a guest receiving mode; for example, a guest "lying in bed" the system automatically dims the lights, leaving only the bedside lights. For example, the guests lie in a 'bed in a contracted form', the temperature of the air conditioner is automatically adjusted by the system.
Drawings
Fig. 1: the embodiment of the utility model discloses a structural schematic diagram of an intelligent passenger control device based on a microwave imaging technology;
fig. 2: the arrangement schematic diagram of the intelligent passenger control device based on the microwave imaging technology in the embodiment of the utility model;
in the figure: the system comprises a microwave transmitter 1, a receiving and processing unit 2, a gateway 3, a guest room intelligent controller 4, a terminal device 5 and a storage unit 6.
Detailed Description
The utility model is further described with reference to the drawings and detailed description which follow:
examples: as shown in fig. 1 and 2, an intelligent passenger control device based on a microwave imaging technology comprises a microwave transmitter 1, a receiving and processing unit 2, a gateway 3, a guest room intelligent controller 4, a terminal device 5 and a storage unit 6; the receiving processing unit 2 is in communication connection with the gateway 3, the gateway 3 is integrated in the guest room intelligent controller 4, the storage unit 6 is in communication connection with the guest room intelligent controller 4, and the guest room intelligent controller 4 is in communication connection with the terminal equipment 5; the running state of the terminal equipment 5 is controlled by the guest room intelligent controller 4; the intelligent guest room controller 4 controls the signal of the running state of the terminal equipment 5 and is determined by the comparison result of the signal received by the receiving and processing unit 2 and the signal stored in the storage unit 6 in advance.
Wherein: four microwave transmitters 1 are fixedly connected to four corners of the room close to the roof; the two receiving and processing units 2 are fixedly connected in a room, and microwave signals sent by the four microwave transmitters 1 are transmitted in the room and then are received by the receiving and processing units 2 as signals; the receiving processing unit 2 is in wireless communication connection with the gateway 3 through 485 bus protocol, zigbee protocol or BLE Mesh protocol.
Wherein: the microwave transmitter 1 is a four-terminal antenna microwave transmitter; the receiving and processing unit 2 comprises an array or a directional antenna and a signal processing and transmitting unit, and the array or the directional antenna receives the microwave signals and transmits the microwave signals to the gateway 3 through the signal processing and transmitting unit; the terminal equipment 5 comprises a lamp, a curtain, cooling and heating equipment, a humidifier and an alarm; the storage unit 6 is an electronic device on which a cross-platform transmission application program is mounted, a cloud server on which microwave signal data is mounted, or an embedded system on which a microwave signal is mounted.
The working principle of the utility model is as follows: a 24G microwave emitter 1 and a receiving and processing unit 2 are deployed in a guest room, and the information of a known sequence of the microwave emitter 1 is based on the synchronous information of the receiving and processing unit 2; the reception processing unit 2 performs recording by receiving the propagated microwave signal. And meanwhile, according to the gestures in the current test environment, the recognition judgment model under different gestures and under different positions is obtained through a machine learning neural network algorithm based on the result of the received information.
In a new environment, the position and the gesture of the guest in the guest room can be estimated through the matching of the obtained identification judgment model by the received signals. In order to ensure the accuracy of evaluation and prediction, the microwave transmitter 1 adopts a 4-terminal antenna, which is equivalent to transmitting 4 paths of different information simultaneously, thereby ensuring that the receiving processing unit 2 receives data with enough information quantity, and the obtained identification judgment model is more accurate and stable. In a specific time period window, each receiving processing unit 2 receives a plurality of sets of 16 Received Signal Strength (RSSI) values periodically, determines a plurality of postures and a position evaluation model according to a machine learning algorithm, comprehensively evaluates the results of the two receiving processing units 2, and outputs the results to the intelligent guest room controller 4 for linkage of corresponding decisions.
The specific flow of the utility model in operation is as follows:
1. dividing and defining the space position in the room, including rest areas, leisure areas, working areas and other areas; the rest area is an area where the bed is located, and the rest area working area and other areas can be divided into any number according to guest room conditions.
2. The method for establishing the microwave imaging identification judgment model aiming at the personnel state in the room comprises the following specific steps:
firstly, data collection is carried out, and a plurality of sample data sets are established; each data sample in the sample dataset includes a respiratory state variable, a motion variable, and a position variable; samples of respiratory state variables include respiratory and non-respiratory; samples of motion variables include lying, sitting, standing; samples of the positional variables include rest areas, leisure areas, work areas, and other areas; a total of 24 data samples per sample dataset; the data collection step comprises the following steps: establishing a scene corresponding to each data sample in a room in sequence for simulation, and performing microwave imaging to obtain microwave original data; naming and storing each piece of obtained microwave original data, and summarizing the data into a sample data set; the variable sample categories for the sample dataset are shown in the following table:
then constructing a deep learning model which is constructed as a convolutional neural network, and performing machine learning on a plurality of sample data sets;
and finally, outputting the identification judgment model, and performing model deployment, wherein the model deployment comprises the step of performing model deployment through an application program transmitted across platforms, or performing model deployment through a cloud server, or performing model deployment through an embedded system.
3. Finally, real-time microwave imaging monitoring is carried out in the room, monitoring data are transmitted to a system carrying an identification judgment model for matching, then the system is combined with the current time and environmental parameters for decision making, and the response of the terminal equipment is controlled according to the preset actions, so that the position of the personnel in the room and the current actions are judged, and the terminal equipment is controlled to respond; illuminance value, temperature value, humidity value and noise decibel value; the acquisition modes are respectively an illumination sensor, a temperature and humidity sensor and a noise sensor; the terminal equipment comprises a lamp, an electric curtain, cooling and heating equipment, a humidifier and an alarm.
The conditional dimension of the present utility model is much more abundant than the prior art. Whether people exist in the guest room or not can be accurately detected, the current position and the current gesture of the guest can be accurately estimated, and linkage is carried out on guest room facilities through comprehensive judgment, so that more careful perception and experience can be brought to the guest.
For example, the guest can lie on the bed, and the light and sunshade system of the guest room can be adjusted according to the illumination and the time period of the guest room, so that the guest can be in a more comfortable environment by accident. The intelligent guest room control can automatically condition the desk lamp after detecting that the guest sits in front of the desk, so that better perception is brought to the guest.
In addition to these more comfortable and discreet behaviors for the guest, the present utility model is also able to detect some abnormal states of the guest in the guest room. For example, if the guest lies in other areas for a period of time, the intelligent guest room control can infer whether the guest falls down and cannot be recovered autonomously, and at this time, the intelligent guest room control can inform the hotel to carry out emergency treatment, so that serious consequences caused by accidents of the guest are reduced. Meanwhile, the system can also monitor that people exist in the guest room, but does not monitor that breathing micro-motion exists, so that the guests are likely to have accidents, and the hotel can be reminded to rescue in time.
With the continuous evolution and upgrading of the method, the algorithm is continuously optimized, and the method can be used for wider scenes, such as home care, application of intelligent home in families and the like, and a new application scene of the intelligent home is opened up.
Finally, it should be noted that: the foregoing description of the preferred embodiments of the present utility model is not intended to be limiting, but rather, although the present utility model has been described in detail with reference to the foregoing embodiments, it will be apparent to those skilled in the art that modifications may be made to the embodiments described, or equivalents may be substituted for elements thereof, and any modifications, equivalents, improvements or changes may be made without departing from the spirit and principles of the present utility model.
Claims (3)
1. An intelligent passenger control device based on microwave imaging technology, which is characterized by comprising: the system comprises a microwave transmitter (1), a receiving and processing unit (2), a gateway (3), a guest room intelligent controller (4), terminal equipment (5) and a storage unit (6); the receiving processing unit (2) is in communication connection with the gateway (3), the gateway (3) is integrated in the guest room intelligent controller (4), the storage unit (6) is in communication connection with the guest room intelligent controller (4), and the guest room intelligent controller (4) is in communication connection with the terminal equipment (5); the running state of the terminal equipment (5) is controlled by a guest room intelligent controller (4); the intelligent guest room controller (4) controls signals of the running state of the terminal equipment (5) and is determined by comparing the signals received by the receiving and processing unit (2) with the pre-stored signals in the storage unit (6).
2. The intelligent passenger control device based on the microwave imaging technology according to claim 1, wherein four microwave transmitters (1) are arranged and fixedly connected at four corners of a room close to the roof; the two receiving processing units (2) are fixedly connected in a room, and microwave signals sent by the four microwave transmitters (1) are transmitted in the room and then are received by the receiving processing units (2) as signals; the receiving processing unit (2) is in wireless communication connection with the gateway (3) through 485 bus protocol, zigbee protocol or BLE Mesh protocol.
3. The intelligent passenger control device based on the microwave imaging technology as claimed in claim 2, wherein the microwave transmitter (1) is a four-terminal antenna microwave transmitter; the receiving and processing unit (2) comprises an array or a directional antenna and a signal processing and transmitting unit, and the array or the directional antenna receives microwave signals and transmits the microwave signals to the gateway (3) through the signal processing and transmitting unit; the terminal equipment (5) comprises a lamp, a curtain, cooling and heating equipment, a humidifier and an alarm; the storage unit (6) is an electronic device with a cross-platform transmission application program, a cloud server with microwave signal data, or an embedded system with microwave signals.
Priority Applications (1)
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CN202223230596.3U CN219627729U (en) | 2022-12-03 | 2022-12-03 | Intelligent passenger control device based on microwave imaging technology |
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CN202223230596.3U CN219627729U (en) | 2022-12-03 | 2022-12-03 | Intelligent passenger control device based on microwave imaging technology |
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CN219627729U true CN219627729U (en) | 2023-09-01 |
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CN202223230596.3U Active CN219627729U (en) | 2022-12-03 | 2022-12-03 | Intelligent passenger control device based on microwave imaging technology |
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2022
- 2022-12-03 CN CN202223230596.3U patent/CN219627729U/en active Active
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