A smart hotel energy-saving management method and system

Abstract

The present invention relates to the technical field of hotel management, and provides an intelligent hotel energy-saving management method and system, comprising: obtaining first sensing information, the first sensing information representing that a guest enters a hotel guest room, and starting a current hotel guest room master control device; obtaining a scene control instruction on the current hotel guest room on the master control device, and starting a corresponding guest room intelligent control scheme; determining modular energy-consuming equipment in the hotel guest room according to the guest room intelligent control scheme; obtaining second sensing information according to the modular energy-consuming equipment; wherein the second sensing information is used to represent that the guest enters a functional area of ​​the modular energy-consuming equipment; when the second sensing information is triggered again and the first sensing information is not triggered again, the modular energy-consuming equipment in the corresponding functional area is turned off; when the first sensing information is triggered again, all modular energy-consuming equipment in the hotel guest room is turned off by the master control device.

Description

Technical Field

[0001] The present invention relates to the field of smart hotel management, and in particular to a smart hotel energy-saving management method and system. Background Art

[0002] At present, a smart hotel refers to a hotel with a complete intelligent system, which realizes the informatization of hotel management and services through digitization and networking. It is a high-end design that integrates information and communication technology with hotel management based on meeting the personalized needs of guests, improving the quality, efficiency and satisfaction of hotel management and services.

[0003] Hotel customers can use a dedicated APP or other program to set up the required room services before check-in, such as controlling the air conditioning temperature, lighting system, etc. in advance; however, for smart hotels, the existing technology focuses more on services, but it is difficult to supervise electricity consumption, and the operation of energy-consuming equipment is a complete waste of electricity. In addition, there may be areas where users are not present, but energy-consuming equipment is always turned on, which not only wastes energy but also has a poor user experience. Summary of the invention

[0004] The present invention proposes a smart hotel energy-saving management method and system, which is used to solve the problem that existing smart hotels pay more attention to services, but it is difficult to supervise electricity consumption, and the operation process of energy-consuming equipment is a complete waste of electricity. In addition, there may be areas where users are not present, but energy-consuming equipment is always turned on, which not only wastes energy but also has a poor user experience.

[0005] In a first aspect, the present invention proposes an intelligent hotel energy-saving management method, comprising:

[0006] Acquire first sensing information, the first sensing information indicates that the guest has entered the hotel room, and activate the current hotel room master control device;

[0007] Obtain the scene control instructions of the current hotel guest room on the master control device, and start the corresponding guest room smart control solution; wherein the guest room smart control solution includes the first smart control solution pre-uploaded by the current hotel guest room user and the second smart control solution set by default;

[0008] Determine the modular energy-using equipment in hotel guest rooms according to the guest room intelligent control solution;

[0009] According to the modular energy-consuming device, second sensing information is obtained; wherein the second sensing information is used to indicate that the guest has entered a functional area of ​​the modular energy-consuming device;

[0010] When the second sensing information is triggered again and the first sensing information is not triggered again, the modular energy-consuming equipment in the corresponding functional area is turned off;

[0011] When the first sensing information is triggered again, all modular energy-consuming devices in the hotel guest rooms are shut down through the master control device.

[0012] Furthermore, before the first sensing information or the second sensing information is triggered again, if the master control device receives a maintenance instruction from any modular energy-consuming device, the first sensing information or the second sensing information is removed from the master control device.

[0013] Furthermore, the step of obtaining the scene control instruction of the current hotel room on the master control device further includes:

[0014] Obtain the functional requirements applied on the master control device, and determine the energy control instructions of the corresponding modular energy-consuming equipment; wherein the energy control instructions are used to determine the scene control behavior; wherein the scene control behavior is not unique;

[0015] Generate the scene space of hotel rooms based on scene control behavior;

[0016] Determine scene control instructions based on the scene space.

[0017] Furthermore, the master control device is also used for:

[0018] According to the scene space, the budgeted total energy consumption of the modular energy-consuming equipment in the hotel guest rooms and the actual total energy consumption of the scene space corresponding to the generation of the modular energy-consuming equipment are obtained;

[0019] When the actual total energy consumption is greater than the budgeted total energy consumption, the energy-saving control mode is started, and the abnormal energy-consuming equipment is determined according to the first spatial efficiency of the budgeted total energy consumption and the second spatial efficiency of the actual total energy consumption; the first spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the budgeted total energy consumption; the second spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the actual total energy consumption;

[0020] Among them, when the actual total energy consumption is not greater than the preset total energy consumption, the silent energy-saving control mode is used.

[0021] Furthermore, in the energy-saving control mode:

[0022] By pre-creating the energy consumption area of ​​each modular energy consumption device and the distribution topological relationship of different modular energy consumption devices on the master control device;

[0023] According to the distribution topology, determine the power consumption data and user entry time when the user enters the corresponding area in the hotel room;

[0024] Calculate the actual electricity consumption data of the energy consumption areas in turn;

[0025] Calculate the expected power consumption data based on the user's entry time and the energy-consuming equipment in the corresponding area;

[0026] Based on actual electricity consumption data and expected electricity consumption data, determine the modular energy-saving and optimized energy-consuming equipment.

[0027] Furthermore, when the first intelligent control scheme is started, it also includes:

[0028] According to the first intelligent control solution, determine the energy consumption time periods of different modular energy-consuming devices;

[0029] According to the energy consumption time period, the sensing mode for the energy consumption device is started; wherein the sensing mode includes single sensing, sequential sensing and pre-sensing;

[0030] When any target modular energy-consuming device receives the corresponding second sensing information, the corresponding modular energy-consuming device is started; wherein the second sensing information is generated only when the target modular energy-consuming device executes any sensing mode.

[0031] Furthermore, when the user enters the hotel room, the master control device further includes:

[0032] Collect the actual energy usage data in the hotel guest rooms and the regional sensing data of the guest room area where the user is located;

[0033] Calculate multiple energy-saving indicators based on regional sensing data and actual energy consumption data;

[0034] Determine multiple determination index data sequences of modular energy-consuming equipment according to multiple determination index data;

[0035] Whether the modular energy-consuming device generates user behavior interaction is determined based on at least one determination indicator data sequence, wherein the user behavior interaction is used to characterize whether the user generates behavior requirements for the modular energy-consuming device in the guest room area.

[0036] Furthermore, the master control device is also used for:

[0037] Obtain the control data of different modular energy-consuming devices in the hotel guest rooms by users, and set the control intervals of different modular energy-consuming devices; wherein the control intervals include time intervals and control parameter intervals;

[0038] According to the time interval, set the common time period of the corresponding modular energy-consuming equipment;

[0039] According to the control parameter range, set the control threshold of the corresponding modular energy-consuming equipment;

[0040] According to the control threshold, when the real-time parameters of the corresponding modular energy-consuming equipment are not within the control threshold, the corresponding modular energy-consuming equipment is adaptively controlled through a common time period.

[0041] Furthermore, the master control device is also used for:

[0042] Obtain lighting data in hotel rooms in real time to determine the current environmental clarity in hotel rooms;

[0043] According to the environmental clarity, determine whether the environmental clarity of the area where the customer is located in the hotel room is not within the preset clarity range, and adjust the environmental clarity of the area where the user is located;

[0044] When adjusting the ambient brightness of the user's area, energy-saving control is performed on lighting equipment that is not in the user's area;

[0045] Among them, energy-saving control processing includes:

[0046] Determine the necessity of turning on lights in areas where no users are located, and turn off the lights in areas where there is no need to turn on lights.

[0047] In a second aspect, the present invention proposes an intelligent hotel energy-saving management system, the system comprising:

[0048] The first sensing module is used to obtain the first sensing information, which indicates that the guest has entered the hotel room, and start the current hotel room master control device;

[0049] Smart control module: used to obtain the scene control instructions of the current hotel guest room on the master control device and start the corresponding guest room smart control plan; wherein the guest room smart control plan includes the first smart control plan pre-uploaded by the current hotel guest room user and the second smart control plan set by default;

[0050] Energy-consuming equipment determination module: used to determine the modular energy-consuming equipment in hotel guest rooms according to the guest room intelligent control solution;

[0051] The second sensing module is used to obtain second sensing information according to the modular energy-consuming device; wherein the second sensing information is used to indicate that the guest has entered a functional area of ​​the modular energy-consuming device;

[0052] Equipment trigger determination module: used for shutting down the modular energy-consuming equipment in the corresponding functional area when the second sensing information is triggered again and the first sensing information is not triggered again;

[0053] Equipment shutdown control module: used to shut down all modular energy-consuming equipment in the hotel guest rooms through the master control device when the first sensing information is triggered again.

[0054] The beneficial effects of the present invention are:

[0055] The present invention uses intelligent sensing technology to enable corresponding modular energy-consuming equipment only when guests actually enter the functional area, effectively reducing unnecessary energy consumption and achieving the purpose of energy saving. When guests check in, they can automatically start personalized smart control solutions according to their own pre-set settings or hotel default settings, providing a more comfortable and convenient accommodation experience. The automated management of guest room energy-consuming equipment is realized, reducing the manual intervention of hotel staff, and improving management efficiency and service quality. When the guest room is unoccupied, all energy-consuming equipment can be automatically shut down, which not only saves energy, but also reduces safety hazards and improves the safety of the hotel.

[0056] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description and the accompanying drawings.

[0057] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0058] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0059] Figure 1 A system composition diagram of a method flow chart of an intelligent hotel energy-saving management method in an embodiment of the present invention;

[0060] Figure 2 This is a system composition diagram of an intelligent hotel energy-saving management system in an embodiment of the present invention;

[0061] Figure 3 A flowchart for obtaining scene control instructions for a current hotel room on a master control device in an embodiment of the present invention;

[0062] Figure 4 This is a flow chart of energy-consuming equipment determination for energy consumption calculation performed by the master control device in an embodiment of the present invention. DETAILED DESCRIPTION

[0063] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0064] like Figure 1 As shown, this embodiment provides a smart hotel energy-saving management method, including:

[0065] Acquire first sensing information, the first sensing information indicates that the guest has entered the hotel room, and activate the current hotel room master control device;

[0066] Obtain the scene control instructions of the current hotel guest room on the master control device, and start the corresponding guest room smart control solution; wherein the guest room smart control solution includes the first smart control solution pre-uploaded by the current hotel guest room user and the second smart control solution set by default;

[0067] Determine the modular energy-using equipment in hotel guest rooms according to the guest room intelligent control solution;

[0068] According to the modular energy-consuming device, second sensing information is obtained; wherein the second sensing information is used to indicate that the guest has entered a functional area of ​​the modular energy-consuming device;

[0069] When the second sensing information is triggered again and the first sensing information is not triggered again, the modular energy-consuming equipment in the corresponding functional area is turned off;

[0070] When the first sensing information is triggered again, all modular energy-consuming devices in the hotel guest rooms are shut down through the master control device.

[0071] The technical principle of the above scheme is:

[0072] The purpose of the present invention is to provide an intelligent hotel energy-saving management method, which reduces hotel energy consumption and improves energy utilization efficiency through automated equipment and control strategies, thereby saving energy costs and reducing the impact on the environment. By intelligently managing the equipment and energy usage in hotel rooms, energy conservation and efficient operation of hotel rooms are achieved.

[0073] In the specific implementation process:

[0074] When the user of the hotel room uploads the required service to the master control device and enters the hotel room, the first sensing information is obtained. The first sensing information indicates that the guest has entered the room in the hotel room. In this case, the hotel room will start the master control device of the current hotel room to control the energy-using devices of the entire room. Then, because the scene control instructions on the current hotel room exist in the master control device, the corresponding guest room smart control scheme is started according to these instructions. The first smart control scheme uploaded in advance by the user of the current hotel room and the second smart control scheme set by default are processed. The two smart control schemes can ensure that the energy-saving effect is achieved as much as possible while meeting the basic needs of the guest room. The modular energy-using equipment of the hotel room is determined according to the smart control scheme. Modular energy-using equipment is designed for different functional areas, such as bedside table energy-using facilities, lighting facilities (specifically distinguishing bathroom lighting, living room lighting, bedside lighting), TV cabinet energy-using facilities, etc. So as to more accurately control the energy consumption of each device, so as to better achieve the energy-saving goal. Finally, the second sensing information is obtained according to the modular energy-using equipment. The second sensing information is used to characterize whether the guest has entered the functional area of ​​the modular energy-using equipment. If the guest does not enter these areas, the modular energy-using equipment in the relevant area will continue to be turned on. On the contrary, once the guest enters these areas, the second step will start working. In the second step, when the second sensing information is triggered but the first sensing information is not triggered, the modular energy-consuming equipment in the corresponding functional area will be turned off. Thereby, energy-saving control of these devices can be achieved without affecting the guests' normal use of room services. Finally, when the first sensing information is triggered, all modular energy-consuming devices in the hotel guest rooms will be turned off by the master control device. Thereby ensuring that all devices can be optimally controlled throughout the process, thereby achieving the best energy-saving effect. The intelligent hotel energy-saving management method of the present invention effectively reduces the energy consumption of the hotel and improves the energy utilization efficiency through the use of automation equipment and control strategies.

[0075] The beneficial effects of the above technical solution are:

[0076] The present invention uses intelligent sensing technology to enable corresponding modular energy-consuming equipment only when guests actually enter the functional area, effectively reducing unnecessary energy consumption and achieving the purpose of energy saving. When guests check in, they can automatically start personalized smart control solutions according to their own pre-set settings or hotel default settings, providing a more comfortable and convenient accommodation experience. The automated management of guest room energy-consuming equipment is realized, reducing the manual intervention of hotel staff, and improving management efficiency and service quality. When the guest room is unoccupied, all energy-consuming equipment can be automatically shut down, which not only saves energy, but also reduces safety hazards and improves the safety of the hotel.

[0077] As an embodiment of the present invention: before the first sensing information or the second sensing information is triggered again, if the master control device receives a maintenance instruction from any modular energy-consuming device, the first sensing information or the second sensing information is removed from the master control device.

[0078] The principle of the above technical solution is:

[0079] In specific implementation, when a guest needs to use a modular energy-consuming device, he can request the continued operation of the device by sending a maintenance instruction to the master control device. At this time, even if the first sensing information or the second sensing information has been triggered, as long as they are still running in the system, they will still give priority to responding to these maintenance instructions and continue to keep the device running, rather than shutting down the device immediately to save energy. However, in order to prevent the first sensing information and the second sensing information from causing information interference, the first sensing information or the second sensing information will be eliminated. The first sensing information or the second sensing information that responds again will be regarded as the sensing information that was triggered for the first time.

[0080] Through the above settings, the energy-saving strategy can be adjusted according to actual needs. For example, when there are important activities or high-traffic periods, more maintenance instructions can be sent to keep all modular energy-consuming devices running to ensure the normal operation of the hotel. At other times, the first sensing information or the second sensing information can be used more to shut down unnecessary devices to achieve real energy saving.

[0081] As an embodiment of the present invention: Figure 3 As shown, the method of obtaining the scene control instruction of the current hotel room on the master control device also includes:

[0082] Obtain the functional requirements applied on the master control device, and determine the energy control instructions of the corresponding modular energy-consuming equipment; wherein the energy control instructions are used to determine the scene control behavior; wherein the scene control behavior is not unique;

[0083] Generate the scene space of hotel rooms based on scene control behavior;

[0084] Determine scene control instructions based on the scene space.

[0085] The technical principle of the above technical solution is:

[0086] In the specific implementation process, obtaining the current hotel room scene control instructions on the master control device includes not only the scene control instructions on the master control device, but also the functional requirements applied on the master control device. These functional requirements are used to determine the energy control instructions of the corresponding modular energy-consuming equipment. Among them, the scene control behavior refers to a set of operation instructions set according to the guest's usage behavior and the environmental characteristics of the hotel room. For example, when the guest turns on the TV, it can be judged that this is a scene control behavior of "watching TV" based on the position and orientation of the TV. The scene control behavior can be arbitrary, as long as they can accurately describe a specific guest room scene, they can be used as the definition of the scene control behavior. Based on the scene control behavior, the system can generate the scene space of the hotel room. The scene space is an abstract concept that includes all possible events and objects in the guest room, as well as the relationship between them. For example, the scene space of a hotel room can include furniture, electrical appliances, windows, etc. in the guest room, as well as the positional relationship and motion trajectory between them. Finally, according to the generated scene space, the scene control instructions can be further determined. The scene control instructions are a set of instructions related to the scene space, which are used to control the device actions in the guest room. For example, when a guest leaves the guest room, it can be judged based on the scene space that this is a "guest leaving" scene control behavior, and a series of instructions can be issued, such as turning off the TV, adjusting the air conditioner, etc., to achieve true smart hotel energy-saving management.

[0087] The beneficial effects of the above technical solution are:

[0088] The present invention can generate an application request according to customer needs, determine the corresponding control instructions on the master control device according to the application request, and then set the energy control instructions of each energy-consuming device one by one through the modular control device according to the control instructions. Before determining the energy control instructions, the scene control behavior is determined first, and the scene space is built according to the scene control behavior, so that control errors will not occur when controlling the energy-consuming devices. At the same time, precise control of each energy-consuming device can be achieved.

[0089] As an embodiment of the present invention: Figure 4 The master control device is also used for:

[0090] According to the scene space, the budgeted total energy consumption of the modular energy-consuming equipment in the hotel guest rooms and the actual total energy consumption of the scene space corresponding to the generation of the modular energy-consuming equipment are obtained;

[0091] When the actual total energy consumption is greater than the budgeted total energy consumption, the energy-saving control mode is started, and the abnormal energy-consuming equipment is determined according to the first spatial efficiency of the budgeted total energy consumption and the second spatial efficiency of the actual total energy consumption; the first spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the budgeted total energy consumption; the second spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the actual total energy consumption;

[0092] Among them, when the actual total energy consumption is not greater than the preset total energy consumption, the silent energy-saving control mode is used.

[0093] The technical principle of the above technical solution is:

[0094] In the specific implementation process, the master control device can not only obtain the current hotel room scene control instructions on the master control device, but also be used to obtain the budgeted total energy consumption of the modular energy-consuming equipment in the hotel room according to the scene space, and the actual total energy consumption of the modular energy-consuming equipment corresponding to the scene space. The master control device collects and analyzes various data in the hotel room to obtain the energy consumption of each modular energy-consuming equipment. Among them, the budgeted total energy consumption refers to the energy consumption standard of each modular energy-consuming equipment pre-set according to the design and usage habits of the guest room during the design stage. This standard can be used to compare with the actual energy consumption to find out the modular energy-consuming equipment that exceeds the standard. The actual total energy consumption refers to the actual electric energy consumed by the equipment during use, which can be obtained through the data recording or monitoring system of the equipment. When the actual total energy consumption is greater than the budgeted total energy consumption, it means that the use of the equipment has exceeded expectations, and the energy-saving control mode needs to be started. In the energy-saving control mode, all modular energy-consuming equipment will be optimized and controlled to achieve the purpose of energy saving. When the actual total energy consumption is not greater than the budgeted total energy consumption, it means that the use of the equipment is already within an acceptable range, and the silent energy-saving control mode can be adopted. Silent energy-saving control mode means that the goal of energy saving is achieved by optimizing equipment performance and controlling power usage time without affecting the normal use of guest rooms. Through the above control mode, the energy consumption of smart hotels can be effectively managed and controlled, which not only ensures the normal operation of guest rooms, but also achieves the goal of energy saving, and has good practicality and economy.

[0095] The beneficial effects of the above technical solution are:

[0096] The present invention can perform energy consumption calculation according to the scene space and the budgeted energy consumption of the pre-determined modular energy-consuming equipment, and determine the total energy consumption required for the corresponding scene space. When performing the calculation, by calculating the energy consumption difference, it is determined whether to start the energy-saving control mode, and according to the energy-saving control mode, abnormal energy-consuming equipment is detected, so as to perform energy-saving control of the energy-consuming equipment. When the actual total energy consumption is not greater than the preset total energy consumption, the energy-saving control mode is silent, that is, waiting for the triggering of the energy-saving control mode.

[0097] As an embodiment of the present invention: in the energy-saving control mode:

[0098] By pre-creating the energy consumption area of ​​each modular energy consumption device and the distribution topological relationship of different modular energy consumption devices on the master control device;

[0099] According to the distribution topology, determine the power consumption data and user entry time when the user enters the corresponding area in the hotel room;

[0100] Calculate the actual electricity consumption data of the energy consumption areas in turn;

[0101] Calculate the expected power consumption data based on the user's entry time and the energy-consuming equipment in the corresponding area;

[0102] Based on actual electricity consumption data and expected electricity consumption data, determine the modular energy-saving and optimized energy-consuming equipment.

[0103] The technical principle of the above technical solution is:

[0104] In the specific implementation process, the energy consumption area of ​​each modular energy-consuming device and the distribution topological relationship of different modular energy-consuming devices are pre-created on the master control device. Specifically, the equipment and areas in each guest room are identified and recorded in detail, and the actual power consumption and expected power consumption of each area during the user's stay are calculated. According to the distribution topological relationship, the power consumption data when the user enters the corresponding area and the user's entry time are determined. The user's activity time and activity content in different areas can be determined, and then the power consumption status of the equipment can be adjusted in a targeted manner based on this information to achieve more refined energy saving. The actual power consumption data of the energy-consuming area is calculated in turn. This process requires real-time monitoring and recording of the power consumption of each area, so as to compare the difference between the actual power consumption and the expected power consumption, and find out the power-consuming equipment that can be optimized for energy saving. According to the user's entry time and the energy-consuming equipment in the corresponding area, the expected power consumption data is calculated. In this way, the user's activities in each area are predicted, and the power consumption status of the equipment is adjusted in advance when the user actually uses it, avoiding unnecessary waste of resources. According to the actual power consumption data and the expected power consumption data, the modular energy-consuming equipment for energy-saving optimization is determined. Based on the results of the previous steps, the use of energy-consuming equipment is comprehensively analyzed and evaluated to find out those equipment with large power consumption and long power consumption time as the key objects of energy-saving optimization. The above solution can make full use of various resources and facilities in the guest room, adjust the power consumption status of the equipment in real time according to the needs and behaviors of the users, effectively save energy and improve energy utilization.

[0105] The beneficial effects of the above technical solution are:

[0106] Under the energy-saving control mode, the present invention can determine the power consumption of different energy-consuming devices in the hotel guest rooms according to the distribution topology relationship, and optimize the energy consumption of the energy-consuming devices according to the energy-saving mode.

[0107] As an embodiment of the present invention: when the first intelligent control scheme is started, it also includes:

[0108] According to the first intelligent control solution, determine the energy consumption time periods of different modular energy-consuming devices;

[0109] According to the energy consumption time period, the sensing mode for the energy consumption device is started; wherein the sensing mode includes single sensing, sequential sensing and pre-sensing;

[0110] When any target modular energy-consuming device receives the corresponding second sensing information, the corresponding modular energy-consuming device is started; wherein the second sensing information is generated only when the target modular energy-consuming device executes any sensing mode.

[0111] The technical principle of the above technical solution is:

[0112] In the specific implementation process, according to the first intelligent control scheme, the energy consumption time period of different modular energy-consuming devices is determined. This stage mainly uses the data and information in the first sensing control scheme to classify and divide various types of modular energy-consuming devices in hotel rooms, clarify the energy consumption time period and usage rules of each device, and plan the scheme for subsequent sensing mode selection and energy metering. Through the energy consumption time period, the sensing mode of the energy-consuming device is started. This stage mainly adopts different sensing modes for each modular energy-consuming device according to its different energy consumption time period, such as single sensing, sequential sensing and pre-sensing, so as to monitor the energy consumption status of the device and improve energy utilization efficiency. When any target modular energy-consuming device receives the corresponding second sensing information, the corresponding modular energy-consuming device is started. This stage mainly uses the second sensing information to control the modular energy-consuming device so that it performs specific operations under specific circumstances to improve energy utilization efficiency. When the first sensing control scheme is started, the present invention can flexibly select the sensing mode according to the specific situation, and can finely control the device at the critical moment of energy consumption to achieve the best energy-saving effect.

[0113] The beneficial effects of the above technical solution are:

[0114] The present invention can judge the energy consumption time of modular energy-consuming equipment according to the intelligent control scheme, and thus realize matching startup according to the sensing mode, so as to prevent the equipment with sequential startup or matching startup from being started directly before the previous startup is completed, causing energy-consuming equipment failure or invalid startup of energy-consuming equipment, thereby wasting electric energy.

[0115] As an embodiment of the present invention: when a user enters a hotel room, the master control device further includes:

[0116] Collect the actual energy usage data in the hotel guest rooms and the regional sensing data of the guest room area where the user is located;

[0117] Calculate multiple energy-saving indicators based on regional sensing data and actual energy consumption data;

[0118] Determine multiple determination index data sequences of modular energy-consuming equipment according to multiple determination index data;

[0119] Whether the modular energy-consuming device generates user behavior interaction is determined based on at least one determination indicator data sequence, wherein the user behavior interaction is used to characterize whether the user generates behavior requirements for the modular energy-consuming device in the guest room area.

[0120] The technical principle of the above technical solution is:

[0121] In the specific implementation process, the actual energy consumption data in the hotel guest rooms and the regional sensing data of the guest room area where the user is located are collected, and the master control device is used to monitor various activities in the guest rooms in real time, and collect data related to user behavior and energy consumption, such as electricity consumption, water consumption, temperature changes, etc. Calculate multiple energy-saving judgment indicators based on regional sensing data and actual energy consumption data. This is through data analysis, based on regional sensing data and actual energy consumption data, calculate multiple indicators that can reflect energy usage and efficiency, such as energy consumption rate, energy utilization efficiency, idle time, etc. According to multiple judgment indicator data, determine multiple judgment indicator data sequences of modular energy-consuming equipment. This is through comparative analysis, based on the data results of each judgment indicator, determine the specific judgment indicator data sequence of each modular energy-consuming equipment, so as to facilitate subsequent precise control, and determine whether the modular energy-consuming equipment generates user behavior interaction based on at least one judgment indicator data sequence. This is to use these data to determine whether the user has generated behavioral interaction with a specific modular energy-consuming equipment, such as whether the light is turned on, the air conditioning setting is adjusted, etc.

[0122] The beneficial effects of the above technical solution are:

[0123] The master control device of the present invention is not only responsible for collecting and organizing a large amount of data, but also responsible for analyzing and interpreting the data to make accurate control decisions, thereby achieving the best energy-saving effect.

[0124] As an embodiment of the present invention: the master control device is also used for:

[0125] Obtain the control data of different modular energy-consuming devices in the hotel guest rooms by users, and set the control intervals of different modular energy-consuming devices; wherein the control intervals include time intervals and control parameter intervals;

[0126] According to the time interval, set the common time period of the corresponding modular energy-consuming equipment;

[0127] According to the control parameter range, set the control threshold of the corresponding modular energy-consuming equipment;

[0128] According to the control threshold, when the real-time parameters of the corresponding modular energy-consuming equipment are not within the control threshold, the corresponding modular energy-consuming equipment is adaptively controlled through a common time period.

[0129] The principle of the above technical solution is:

[0130] In the specific implementation process, the control data of different modular energy-consuming devices by users in hotel rooms are obtained, and different control intervals are set. These control intervals include time intervals and control parameter intervals. Through reasonable planning of device usage time and customized setting of control parameters, energy-consuming devices are finely processed. According to the time interval, the common time period of the corresponding modular energy-consuming device is set. According to the user's behavior habits and usage patterns, a suitable time period can be set for each device to keep it in low power consumption or sleep state for most of the time to reduce unnecessary energy waste. According to the control parameter interval, the control threshold of the corresponding modular energy-consuming device is set. These thresholds can be set according to the actual operation of the device and the actual needs of the user to ensure that the device works in the optimal state. At the same time, it can also avoid device damage or user dissatisfaction caused by excessive control. According to the control threshold, when the real-time parameters of the corresponding modular energy-consuming device are not within the control threshold, the corresponding modular energy-consuming device is adaptively controlled through the common time period. This method can automatically make fine adjustments according to the real-time working status of the device to ensure the stable operation of the device and the optimal energy utilization.

[0131] The beneficial effects of the above technical solution are:

[0132] The present invention can perform adaptive micro-regulation based on the regulation in the process of controlling energy-consuming equipment in hotel guest rooms.

[0133] As an embodiment of the present invention: the master control device is also used for:

[0134] Obtain lighting data in hotel rooms in real time to determine the current environmental clarity in hotel rooms;

[0135] According to the environmental clarity, determine whether the environmental clarity of the area where the customer is located in the hotel room is not within the preset clarity range, and adjust the environmental clarity of the area where the user is located;

[0136] When adjusting the ambient brightness of the user's area, energy-saving control is performed on lighting equipment that is not in the user's area;

[0137] Among them, energy-saving control processing includes:

[0138] Determine the necessity of turning on lights in areas where no users are located, and turn off the lights in areas where there is no need to turn on lights.

[0139] The principle of the above technical solution is:

[0140] In the specific implementation process, by acquiring the lighting data in the hotel guest room in real time, the brightness of the indoor environment is timely understood, so as to accurately judge the current environmental clarity in the hotel guest room. According to the environmental clarity, it is judged whether the environmental clarity of the area where the customer is located in the hotel guest room is lower than the preset clarity interval. If it is lower than the preset clarity interval, it is necessary to adjust the environmental clarity of the user's area to ensure that it is within the appropriate range, which can not only ensure comfort but also effectively save energy. When adjusting the environmental clarity of the user's area, the master control device will perform energy-saving regulation and control on the lighting equipment that is not in the user's area. For example, for the lighting equipment in the area where no user is located, if the necessity of turning it on is not high, the master control device will turn it off to achieve the purpose of energy saving. The master control device of the present invention can not only meet the lighting needs of the guest room, but also intelligently adjust the opening state of the lighting equipment according to real-time environmental data, so as to achieve the best energy-saving effect.

[0141] The beneficial effects of the above technical solution are:

[0142] In actual operation, the present invention can determine whether the clarity of the area where the customer is located in the hotel room meets the preset clarity according to the ambient clarity, thereby adjusting the lighting in the area where the customer is located, and determining the necessity of turning on the lighting in the area where the user is not, thereby turning off unnecessary lighting equipment.

[0143] Second, as Figure 2 As shown, the present invention proposes an intelligent hotel energy-saving management system, the system comprising:

[0144] The first sensing module is used to obtain the first sensing information, which indicates that the guest has entered the hotel room, and start the current hotel room master control device;

[0145] Smart control module: used to obtain the scene control instructions of the current hotel guest room on the master control device and start the corresponding guest room smart control plan; wherein the guest room smart control plan includes the first smart control plan pre-uploaded by the current hotel guest room user and the second smart control plan set by default;

[0146] Energy-consuming equipment determination module: used to determine the modular energy-consuming equipment in hotel guest rooms according to the guest room intelligent control solution;

[0147] The second sensing module is used to obtain second sensing information according to the modular energy-consuming device; wherein the second sensing information is used to indicate that the guest has entered a functional area of ​​the modular energy-consuming device;

[0148] Equipment trigger determination module: used for shutting down the modular energy-consuming equipment in the corresponding functional area when the second sensing information is triggered again and the first sensing information is not triggered again;

[0149] Equipment shutdown control module: used to shut down all modular energy-consuming equipment in the hotel guest rooms through the master control device when the first sensing information is triggered again.

[0150] The technical principle of the above scheme is:

[0151] The purpose of the present invention is to provide an intelligent hotel energy-saving management method, which aims to reduce hotel energy consumption and improve energy utilization efficiency through automated equipment and control strategies, thereby saving energy costs and reducing the impact on the environment. The method achieves energy conservation and efficient operation of hotel rooms by intelligently managing the equipment and energy usage in hotel rooms.

[0152] In the specific implementation process:

[0153] When the user of the hotel room uploads the required service to the master control device and enters the hotel room, the first sensing information is obtained. The first sensing information indicates that the guest has entered the room in the hotel room. In this case, the hotel room will start the master control device of the current hotel room to control the energy-consuming devices of the entire room. Then, because the scene control instructions on the current hotel room exist in the master control device, the corresponding room smart control scheme is started according to these instructions. This process involves the processing of the first smart control scheme uploaded in advance by the user of the current hotel room and the second smart control scheme set by default. This processing method can ensure that the energy-saving effect is achieved as much as possible while meeting the basic needs of the guest room. The modular energy-consuming equipment of the hotel room is determined according to the smart control scheme. Modular energy-consuming equipment is designed for different functional areas, such as bedside tables, TV cabinets, etc. This method enables the system to control the energy consumption of each device more accurately, so as to better achieve the energy-saving goal. Finally, the second sensing information is obtained according to the modular energy-consuming equipment. This information is used to characterize whether the guest has entered the functional area of ​​the modular energy-consuming equipment. If the guest has not entered these areas, the modular energy-consuming equipment in the relevant areas will continue to be turned on. On the contrary, once the guest enters these areas, the second step will start working. In the second step, when the second sensing information is triggered but the first sensing information is not triggered, the modular energy-consuming equipment in the corresponding functional area will be turned off. Therefore, energy-saving control of these devices can be achieved without affecting the guests' normal use of room services. Finally, when the first sensing information is triggered, all modular energy-consuming equipment in the hotel guest rooms will be turned off by the master control device. This method can ensure that all equipment can be optimally controlled throughout the process, thereby achieving the best energy-saving effect. The intelligent hotel energy-saving management method of the present invention effectively reduces the hotel's energy consumption and improves energy utilization efficiency through the use of automated equipment and control strategies.

[0154] The beneficial effects of the above technical solution are:

[0155] The present invention uses intelligent sensing technology to enable corresponding modular energy-consuming equipment only when guests actually enter the functional area, effectively reducing unnecessary energy consumption and achieving the purpose of energy saving. When guests check in, they can automatically start personalized smart control solutions according to their own pre-set settings or hotel default settings, providing a more comfortable and convenient accommodation experience. The automated management of guest room energy-consuming equipment is realized, reducing the manual intervention of hotel staff, and improving management efficiency and service quality. When the guest room is unoccupied, all energy-consuming equipment can be automatically shut down, which not only saves energy, but also reduces safety hazards and improves the safety of the hotel.

[0156] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. A smart hotel energy-saving management method, characterized in that: include: Acquire first sensing information, the first sensing information indicates that the guest has entered the hotel room, and activate the current hotel room master control device; Obtain the scene control instructions of the current hotel guest room on the master control device, and start the corresponding guest room smart control solution; wherein the guest room smart control solution includes the first smart control solution pre-uploaded by the current hotel guest room user and the second smart control solution set by default; Determine the modular energy-using equipment in hotel guest rooms according to the guest room intelligent control solution; According to the modular energy-consuming device, second sensing information is obtained; wherein the second sensing information is used to indicate that the guest has entered a functional area of ​​the modular energy-consuming device; When the second sensing information is triggered again and the first sensing information is not triggered again, the modular energy-consuming equipment in the corresponding functional area is turned off; When the first sensing information is triggered again, all modular energy-consuming devices in the hotel guest rooms are turned off through the master control device; The step of obtaining the scene control instruction of the current hotel room on the master control device also includes: Obtain the functional requirements applied on the master control device, and determine the energy control instructions of the corresponding modular energy-consuming equipment; wherein the energy control instructions are used to determine the scene control behavior; wherein the scene control behavior is not unique; Generate the scene space of hotel rooms based on scene control behavior; Determine scene control instructions based on scene space; The master control device is also used for: According to the scene space, the budgeted total energy consumption of the modular energy-consuming equipment in the hotel guest rooms and the actual total energy consumption of the scene space corresponding to the generation of the modular energy-consuming equipment are obtained; When the actual total energy consumption is greater than the budgeted total energy consumption, the energy-saving control mode is started, and the abnormal energy-consuming equipment is determined according to the first spatial efficiency of the budgeted total energy consumption and the second spatial efficiency of the actual total energy consumption; the first spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the budgeted total energy consumption; the second spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the actual total energy consumption; Among them, when the actual total energy consumption is not greater than the budgeted total energy consumption, the silent energy-saving control mode is started; In the energy-saving control mode: By pre-creating the energy consumption area of ​​each modular energy consumption device and the distribution topological relationship of different modular energy consumption devices on the master control device; According to the distribution topology, determine the power consumption data and user entry time when the user enters the corresponding area in the hotel room; Calculate the actual electricity consumption data of the energy consumption areas in turn; Calculate the expected power consumption data based on the user's entry time and the energy-consuming equipment in the corresponding area; Based on actual electricity consumption data and expected electricity consumption data, determine the modular energy-saving and optimized energy-consuming equipment.

2. A smart hotel energy-saving management method as claimed in claim 1, characterized in that: Before the first sensing information or the second sensing information is triggered again, if the master control device receives a maintenance instruction from any modular energy-consuming device, the first sensing information or the second sensing information is removed from the master control device.

3. A smart hotel energy-saving management method as claimed in claim 1, characterized in that: When the first intelligent control scheme is started, it also includes: According to the first intelligent control solution, determine the energy consumption time periods of different modular energy-consuming devices; According to the energy consumption time period, the sensing mode for the energy consumption device is started; wherein the sensing mode includes single sensing, sequential sensing and pre-sensing; When any target modular energy-consuming device receives the corresponding second sensing information, the corresponding modular energy-consuming device is started; wherein the second sensing information is generated only when the target modular energy-consuming device executes any sensing mode.

4. A smart hotel energy-saving management method as claimed in claim 1, characterized in that: When the user enters the hotel room, the master control device also includes: Collect the actual energy usage data in the hotel guest rooms and the regional sensing data of the guest room area where the user is located; Calculate multiple energy-saving indicators based on regional sensing data and actual energy consumption data; According to multiple energy-saving judgment indicators, multiple judgment indicator data sequences of modular energy-consuming equipment are determined; Whether the modular energy-consuming device generates user behavior interaction is determined based on at least one determination indicator data sequence, wherein the user behavior interaction is used to characterize whether the user generates behavior requirements for the modular energy-consuming device in the guest room area.

5. The smart hotel energy saving management method according to claim 1, characterized in that: The master control device is also used for: Obtain the control data of different modular energy-consuming devices in the hotel guest rooms by users, and set the control intervals of different modular energy-consuming devices; wherein the control intervals include time intervals and control parameter intervals; According to the time interval, set the common time period of the corresponding modular energy-consuming equipment; According to the control parameter range, set the control threshold of the corresponding modular energy-consuming equipment; According to the control threshold, when the real-time parameters of the corresponding modular energy-consuming equipment are not within the control threshold, the corresponding modular energy-consuming equipment is adaptively controlled through a common time period.

6. A smart hotel energy-saving management method as claimed in claim 1, characterized in that: The master control device is also used for: Obtain lighting data in hotel rooms in real time to determine the current environmental clarity in hotel rooms; According to the environmental clarity, determine whether the environmental clarity of the area where the customer is located in the hotel room is not within the preset clarity range, and adjust the environmental clarity of the area where the user is located; When adjusting the ambient brightness of the user's area, energy-saving control is performed on lighting equipment that is not in the user's area; Among them, energy-saving control processing includes: Determine the necessity of turning on lights in areas where no users are located, and turn off the lights in areas where there is no need to turn on lights.

7. An intelligent hotel energy-saving management system, characterized in that: The system comprises: The first sensing module is used to obtain the first sensing information, which indicates that the guest has entered the hotel room, and start the current hotel room master control device; Smart control module: used to obtain the scene control instructions of the current hotel guest room on the master control device and start the corresponding guest room smart control plan; wherein the guest room smart control plan includes the first smart control plan pre-uploaded by the current hotel guest room user and the second smart control plan set by default; Energy-consuming equipment determination module: used to determine the modular energy-consuming equipment in hotel guest rooms according to the guest room intelligent control solution; The second sensing module is used to obtain second sensing information according to the modular energy-consuming device; wherein the second sensing information is used to indicate that the guest has entered a functional area of ​​the modular energy-consuming device; Equipment trigger determination module: used for shutting down the modular energy-consuming equipment in the corresponding functional area when the second sensing information is triggered again and the first sensing information is not triggered again; Equipment shutdown control module: used to shut down all modular energy-consuming equipment in the hotel guest rooms through the master control device when the first sensing information is triggered again; The step of obtaining the scene control instruction of the current hotel room on the master control device also includes: Obtain the functional requirements applied on the master control device, and determine the energy control instructions of the corresponding modular energy-consuming equipment; wherein the energy control instructions are used to determine the scene control behavior; wherein the scene control behavior is not unique; Generate the scene space of hotel rooms based on scene control behavior; Determine scene control instructions based on scene space; The master control device is also used for: According to the scene space, the budgeted total energy consumption of the modular energy-consuming equipment in the hotel guest rooms and the actual total energy consumption of the scene space corresponding to the generation of the modular energy-consuming equipment are obtained; When the actual total energy consumption is greater than the budgeted total energy consumption, the energy-saving control mode is started, and the abnormal energy-consuming equipment is determined according to the first spatial efficiency of the budgeted total energy consumption and the second spatial efficiency of the actual total energy consumption; the first spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the budgeted total energy consumption; the second spatial efficiency is used to characterize the individual energy consumption of each modular energy-consuming equipment relative to the actual total energy consumption; Among them, when the actual total energy consumption is not greater than the budgeted total energy consumption, the silent energy-saving control mode is started; In the energy-saving control mode: By pre-creating the energy consumption area of ​​each modular energy consumption device and the distribution topological relationship of different modular energy consumption devices on the master control device; According to the distribution topology, determine the power consumption data and user entry time when the user enters the corresponding area in the hotel room; Calculate the actual electricity consumption data of the energy consumption areas in turn; Calculate the expected power consumption data based on the user's entry time and the energy-consuming equipment in the corresponding area; Based on actual electricity consumption data and expected electricity consumption data, determine the modular energy-saving and optimized energy-consuming equipment.

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