Multi-interaction method and system for energy-saving illuminating lamp and household equipment

Abstract

The invention discloses a multi-interaction method and system for an energy-saving illuminating lamp and household equipment, and the method comprises the steps: triggering the multi-interaction of the energy-saving illuminating lamp and the household equipment based on an interaction mode, and determining the working parameters of the energy-saving illuminating lamp and the working parameters of the household equipment in the multi-interaction of the energy-saving illuminating lamp and the household equipment; and multiple interactions between the energy-saving illuminating lamp and the household equipment are realized. Furthermore, user detection of the environment where the energy-saving illuminating lamp is located is triggered based on the interaction state, and if the user is within the detection range of the energy-saving illuminating lamp, working parameters of the energy-saving illuminating lamp are dynamically regulated and controlled according to the position of the user, the position of the energy-saving illuminating lamp and the behavior type of the user. And the working parameters of the household equipment are regulated and controlled based on the regulated and controlled working parameters of the energy-saving illuminating lamp and the use state of the household equipment, so that the multi-interaction effect of the energy-saving illuminating lamp and the household equipment is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of energy-saving lighting lamps and household appliances, and in particular to a multiple interaction method and system for energy-saving lighting lamps and household appliances. Background Art

[0002] With the development of science and technology, energy-saving lighting lamps are applied to people's lives. Energy-saving lighting lamps and household appliances are arranged in indoor spaces, and the household appliances can be televisions, kitchen appliances, etc. In indoor spaces, energy-saving lighting lamps communicate with household appliances and exchange data during the communication process. In the prior art, energy-saving lighting lamps and household appliances perform a single interaction along a single instruction, which affects the multiple interactions between energy-saving lighting lamps and household appliances. Summary of the invention

[0003] The purpose of the present invention is to overcome the shortcomings of the prior art. The present invention provides a multiple interaction method and system between an energy-saving lighting lamp and household appliances, which determine the energy-saving lighting lamp and the household appliances according to the traversal of the indoor space; determine the corresponding collaborative relationship according to the energy-saving lighting lamp and the household appliances; determine the interaction mode between the energy-saving lighting lamp and the household appliances according to the collaborative relationship, the maximum illumination range of the energy-saving lighting lamp and the position of the household appliances; trigger the multiple interactions between the energy-saving lighting lamp and the household appliances based on the interaction mode, and determine the working parameters of the energy-saving lighting lamp and the working parameters of the household appliances in the multiple interactions between the energy-saving lighting lamp and the household appliances, thereby realizing the multiple interactions between the energy-saving lighting lamp and the household appliances, so as to facilitate the online control of the energy-saving lighting lamp and the household appliances in multiple dimensions, and realize the overall management and control of the multiple interactions between the energy-saving lighting lamp and the household appliances.

[0004] Furthermore, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; based on the interactive state, user detection of the environment where the energy-saving lighting lamp is located is triggered, and if the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the type of user's behavior, and the working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances, thereby realizing autonomous regulation of the working parameters of the energy-saving lighting lamp and autonomous regulation of the working parameters of the household appliances, and improving the multiple interactive effects of the energy-saving lighting lamp and the household appliances, so as to adapt to various indoor spaces and maximize the working effects of the energy-saving lighting lamp and the household appliances.

[0005] The embodiment of the present invention provides a multiple interaction method between an energy-saving lighting lamp and a household appliance, which is characterized by being applied to multiple interaction scenarios between an energy-saving lighting lamp and a household appliance; The multiple interaction method between the energy-saving lighting lamp and the household equipment comprises: Determine energy-saving lighting and household appliances based on the traversal of indoor space; Determine the corresponding synergy relationship between energy-saving lighting lamps and household appliances; Determining an interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household appliance; Based on the interaction mode, multiple interactions between the energy-saving lighting lamp and the household appliance are triggered, and working parameters of the energy-saving lighting lamp and working parameters of the household appliance are determined in the multiple interactions between the energy-saving lighting lamp and the household appliance; In the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances, and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances, and the real-time state matching table; Based on the interactive state, user detection of the environment where the energy-saving lighting is located is triggered. If the user is within the detection range of the energy-saving lighting, the working parameters of the energy-saving lighting are dynamically adjusted according to the user's location, the location of the energy-saving lighting and the user's behavior type. The working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting and the usage status of the household appliances.

[0006] Optionally, determining energy-saving lighting lamps and household appliances according to the traversal of the indoor space includes: Locate the interior space; Determine multiple work areas based on the inspection of indoor space; Determine a corresponding traversal mode according to the relative positions between the multiple working areas, the area sizes of the multiple working areas, and the corresponding spatial positions; Triggering the traversal of the indoor space along the traversal mode; Determine energy-efficient lighting and household appliances based on a traversal of the interior space.

[0007] Optionally, determining a corresponding collaborative relationship between the energy-saving lighting lamp and the household appliance includes: Fixed frame energy-saving lighting and household equipment; Determine a corresponding association method according to the location of the energy-saving lighting lamp and the location of the household equipment; triggering a dynamic association between the energy-saving lighting lamp and the household device based on the association mode and the corresponding network signal strength; Determining corresponding correlation coefficients based on dynamic correlations between energy-saving lighting lamps and household appliances; The interaction intensity between energy-saving lighting lamps and various household appliances is constructed based on the comparison of multiple correlation coefficients; The corresponding collaborative relationship is determined based on the interaction intensity between the energy-saving lighting lamp and each household appliance, the lighting range of the energy-saving lighting lamp, and the function of each household appliance.

[0008] Optionally, determining the interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household appliance includes: freeze-frame collaborative relationships; Determine the maximum illumination range of the energy-saving lighting lamp according to the direction of the energy-saving lighting lamp and the specifications of the energy-saving lighting lamp; Associating the synergistic relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household equipment; Determine a first interaction parameter based on the synergistic relationship and a maximum illumination range of the energy-saving lighting lamp; determining a second interaction parameter based on the collaborative relationship and the location of the home device; An interaction mode between the energy-saving lighting lamp and the household appliance is determined based on the first interaction parameter, the second interaction parameter and the interaction matching table.

[0009] Optionally, triggering multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determining the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance, includes: Freeze-frame interaction mode; Based on the interaction mode, multiple interactions between energy-saving lighting lamps and household devices are triggered; In the multiple interactions between energy-saving lighting lamps and household appliances, energy-saving lighting lamps and household appliances interact in multiple aspects in different dimensions; Real-time monitoring of multiple interactions between energy-saving lighting and household devices; The working parameters of the energy-saving lighting lamp and the working parameters of the household appliances are determined in the multiple interactions between the energy-saving lighting lamp and the household appliances.

[0010] Optionally, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances, and the overall area of ​​the indoor space; and the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances, and the real-time state matching table, including: Freeze the indoor space and perform online detection on the indoor space; In the online detection of the indoor space, the working parameters of the energy-saving lighting lamps, the working parameters of the household appliances and the overall area of ​​the indoor space are collected; The operating parameters of the energy-saving lighting lamp, the operating parameters of the household appliances and the overall area of ​​the indoor space are associated, and an interactive system is constructed based on the operating parameters of the energy-saving lighting lamp, the operating parameters of the household appliances and the overall area of ​​the indoor space.

[0011] Optionally, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; and the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table, further comprising: Freeze the interactive system; Based on the interactive system, the working parameters of energy-saving lighting lamps and household appliances are dynamically monitored; The interaction state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance and the real-time state matching table.

[0012] Optionally, the triggering of user detection of the environment where the energy-saving lighting lamp is located based on the interaction state, if the user is within the detection range of the energy-saving lighting lamp, dynamically adjusting the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp and the type of user behavior, and adjusting the working parameters of the household appliance based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliance, includes: Monitor the interaction status in real time; triggering user detection of the environment where the energy-saving lighting lamp is located based on the interaction state; Whether the user is in the detection range of the energy-saving lighting lamp is determined according to the user detection of the environment where the energy-saving lighting lamp is located.

[0013] Optionally, the triggering of user detection of the environment where the energy-saving lighting lamp is located based on the interaction state, if the user is within the detection range of the energy-saving lighting lamp, dynamically adjusting the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp and the type of user behavior, and adjusting the working parameters of the household appliance based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliance, further includes: If the user is within the detection range of the energy-saving lighting, the user's location, the location of the energy-saving lighting, and the type of user behavior are collected; Dynamically adjust the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp, the user's behavior type and the interaction status; The working parameters of the energy-saving lighting lamp after adjustment and the use status of the household appliance are associated, and the working parameters of the household appliance are adjusted based on the working parameters of the energy-saving lighting lamp after adjustment and the use status of the household appliance.

[0014] In addition, an embodiment of the present invention further provides a multiple interaction system between an energy-saving lighting lamp and a household appliance, and the multiple interaction system between an energy-saving lighting lamp and a household appliance comprises: A traversal module, for determining energy-saving lighting lamps and household appliances according to the traversal of the indoor space; A coordination relationship module, used to determine corresponding coordination relationships between energy-saving lighting lamps and household appliances; An interaction mode module, used for determining an interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp and the location of the household appliance; A multiple interaction module, used for triggering multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determining the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance; An interactive state module is used to construct an interactive system in the indoor space based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; and determine the interactive state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; The control module is used to trigger user detection of the environment where the energy-saving lighting lamp is located based on the interactive state. If the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically controlled according to the user's location, the location of the energy-saving lighting lamp and the user's behavior type; the working parameters of the household appliances are controlled based on the controlled working parameters of the energy-saving lighting lamp and the usage status of the household appliances.

[0015] In an embodiment of the present invention, through the method in the embodiment of the present invention, energy-saving lighting lamps and household appliances are determined according to the traversal of indoor space; the corresponding collaborative relationship is determined according to the energy-saving lighting lamps and household appliances; the interaction mode of the energy-saving lighting lamps and household appliances is determined according to the collaborative relationship, the maximum illumination range of the energy-saving lighting lamps and the position of the household appliances; based on the interactive mode, multiple interactions between the energy-saving lighting lamps and household appliances are triggered, and the working parameters of the energy-saving lighting lamps and the working parameters of the household appliances are determined in the multiple interactions between the energy-saving lighting lamps and household appliances, thereby realizing multiple interactions between the energy-saving lighting lamps and household appliances, so as to facilitate online control of the energy-saving lighting lamps and household appliances in multiple dimensions, and realize overall management and control of the multiple interactions between the energy-saving lighting lamps and household appliances.

[0016] Furthermore, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; based on the interactive state, user detection of the environment where the energy-saving lighting lamp is located is triggered, and if the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the type of user's behavior, and the working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances, thereby realizing autonomous regulation of the working parameters of the energy-saving lighting lamp and autonomous regulation of the working parameters of the household appliances, and improving the multiple interactive effects of the energy-saving lighting lamp and the household appliances, so as to adapt to various indoor spaces and maximize the working effects of the energy-saving lighting lamp and the household appliances. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0018] Figure 1 is a flow chart of a multiple interaction method between an energy-saving lighting lamp and household appliances in an embodiment of the present invention; Figure 2 is a flow chart of S11 in the multiple interaction method between an energy-saving lighting lamp and a household appliance in an embodiment of the present invention; Figure 3 is a flow chart of S12 in the multiple interaction method between an energy-saving lighting lamp and household appliances in an embodiment of the present invention; Figure 4 is a flow chart of S13 in the multiple interaction method between an energy-saving lighting lamp and household appliances in an embodiment of the present invention; Figure 5 is a flow chart of S14 in the multiple interaction method between an energy-saving lighting lamp and a household appliance in an embodiment of the present invention; Figure 6 is a flow chart of S15 in the multiple interaction method between an energy-saving lighting lamp and a household appliance in an embodiment of the present invention; Figure 7 is a flow chart of S16 in the multiple interaction method between an energy-saving lighting lamp and a household appliance in an embodiment of the present invention; Figure 8is a schematic diagram of the structure of a multiple interactive system of an energy-saving lighting lamp and household appliances in an embodiment of the present invention; Fig. 9 The figure is a hardware diagram of an electronic device according to an exemplary embodiment. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] See also Figures 1 to 9 , a multiple interaction method between an energy-saving lighting lamp and a household appliance, applied to multiple interaction scenarios between an energy-saving lighting lamp and a household appliance; the multiple interaction method between an energy-saving lighting lamp and a household appliance includes: Step S11: determining energy-saving lighting lamps and household appliances according to the traversal of the indoor space; Step S12: determining corresponding coordination relationships between energy-saving lighting lamps and household appliances; Step S13: determining an interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp and the location of the household appliance; Step S14: triggering multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determining the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance; Step S15: in the indoor space, construct an interactive system based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; determine the interactive state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; Step S16: Based on the interaction state, user detection of the environment where the energy-saving lighting lamp is located is triggered. If the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the user's behavior type. The working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances.

[0021] In an embodiment of the present invention, through the method in the embodiment of the present invention, energy-saving lighting lamps and household appliances are determined according to the traversal of indoor space; the corresponding collaborative relationship is determined according to the energy-saving lighting lamps and household appliances; the interaction mode of the energy-saving lighting lamps and household appliances is determined according to the collaborative relationship, the maximum illumination range of the energy-saving lighting lamps and the position of the household appliances; based on the interactive mode, multiple interactions between the energy-saving lighting lamps and household appliances are triggered, and the working parameters of the energy-saving lighting lamps and the working parameters of the household appliances are determined in the multiple interactions between the energy-saving lighting lamps and household appliances, thereby realizing multiple interactions between the energy-saving lighting lamps and household appliances, so as to facilitate online control of the energy-saving lighting lamps and household appliances in multiple dimensions, and realize overall management and control of the multiple interactions between the energy-saving lighting lamps and household appliances.

[0022] Furthermore, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; based on the interactive state, user detection of the environment where the energy-saving lighting lamp is located is triggered, and if the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the type of user's behavior, and the working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances, thereby realizing autonomous regulation of the working parameters of the energy-saving lighting lamp and autonomous regulation of the working parameters of the household appliances, and improving the multiple interactive effects of the energy-saving lighting lamp and the household appliances, so as to adapt to various indoor spaces and maximize the working effects of the energy-saving lighting lamp and the household appliances.

[0023] refer to Figure 2 , in step S11, energy-saving lighting lamps and household appliances are determined according to the traversal of the indoor space; In the specific implementation process of the present invention, the specific steps may be: S111: Positioning indoor space; S112: Determine multiple work areas according to the detection of the indoor space; S113: determining a corresponding traversal mode according to the relative positions between the multiple working areas, the area sizes of the multiple working areas, and the corresponding spatial positions; S114: triggering the traversal of the indoor space along the traversal pattern; S115: Determine energy-saving lighting lamps and household appliances based on the traversal of the indoor space.

[0024] In an embodiment of the present application, the indoor space is located and further controlled. At the same time, multiple work areas are determined based on the detection of the indoor space; the corresponding traversal mode is determined according to the relative positions between the multiple work areas, the area sizes of the multiple work areas, and the corresponding spatial positions, which is compatible with the overall consideration of the relative positions between the multiple work areas, the area sizes of the multiple work areas, and the corresponding spatial positions, and realizes multi-dimensional control of the relative positions between the multiple work areas, the area sizes of the multiple work areas, and the corresponding spatial positions, thereby ensuring the accuracy of the traversal mode.

[0025] Therefore, the traversal of the indoor space is triggered along the traversal pattern; based on the traversal of the indoor space, energy-saving lighting lamps and household appliances are determined, and energy-saving lighting lamps and household appliances are introduced to facilitate multiple interactions with energy-saving lighting lamps and household appliances.

[0026] refer to Figure 3 , in step S12, determining a corresponding coordination relationship between the energy-saving lighting lamp and the household appliance; In the specific implementation process of the present invention, the specific steps may be: S121: Fixed energy-saving lighting and household equipment; S122: Determine a corresponding association method according to the location of the energy-saving lighting lamp and the location of the household appliance; S123: triggering a dynamic association between the energy-saving lighting lamp and the household appliance based on the association mode and the corresponding network signal strength; S124: Determine a corresponding correlation coefficient based on a dynamic correlation between the energy-saving lighting lamp and the household appliance; S125: constructing interaction intensity between the energy-saving lighting lamp and each household appliance according to comparison of multiple correlation coefficients; S126: Determine a corresponding coordination relationship based on the interaction intensity between the energy-saving lighting lamp and each household appliance, the illumination range of the energy-saving lighting lamp, and the function of each household appliance.

[0027] In the embodiments of the present application, energy-saving lighting lamps and household appliances are fixed; corresponding association methods are determined according to the locations of the energy-saving lighting lamps and the locations of the household appliances, the locations of the energy-saving lighting lamps and the locations of the household appliances are introduced, and multi-dimensional control of the locations of the energy-saving lighting lamps and the locations of the household appliances is achieved, thereby ensuring the accuracy of the association method.

[0028] Furthermore, based on the association method and the corresponding network signal strength, the dynamic association between the energy-saving lighting lamp and the household appliance is triggered, thereby realizing the dynamic association between the energy-saving lighting lamp and the household appliance, so as to facilitate dynamic management and control of the energy-saving lighting lamp and the household appliance.

[0029] Therefore, the corresponding correlation coefficient is determined based on the dynamic correlation between the energy-saving lighting lamps and the household appliances; the interaction intensity between the energy-saving lighting lamps and the various household appliances is constructed according to the comparison of multiple correlation coefficients; the corresponding collaborative relationship is determined based on the interaction intensity between the energy-saving lighting lamps and the various household appliances, the illumination range of the energy-saving lighting lamps and the functions of the various household appliances, which is compatible with the overall consideration of the interaction intensity between the energy-saving lighting lamps and the various household appliances, the illumination range of the energy-saving lighting lamps and the functions of the various household appliances, and realizes multi-dimensional control of the interaction intensity between the energy-saving lighting lamps and the various household appliances, the illumination range of the energy-saving lighting lamps and the functions of the various household appliances, thereby ensuring the accuracy of the collaborative relationship.

[0030] refer to Figure 4 , in step S13, determining the interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp and the location of the household appliance; In the specific implementation process of the present invention, the specific steps may be: S131: Fixed-frame collaborative relationships; S132: determining a maximum illumination range of the energy-saving lighting lamp according to the orientation of the energy-saving lighting lamp and the specifications of the energy-saving lighting lamp; S133: Associating the collaborative relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household appliance; S134: Determine a first interaction parameter based on the cooperative relationship and the maximum illumination range of the energy-saving lighting lamp; S135: Determine a second interaction parameter based on the collaborative relationship and the location of the home device; S136: Determine an interaction mode between the energy-saving lighting lamp and the household appliance based on the first interaction parameter, the second interaction parameter and the interaction matching table.

[0031] In the embodiments of the present application, the collaborative relationship is frozen; the maximum illumination range of the energy-saving lighting lamp is determined according to the orientation of the energy-saving lighting lamp and the specifications of the energy-saving lighting lamp, the orientation of the energy-saving lighting lamp and the specifications of the energy-saving lighting lamp are introduced, and the orientation of the energy-saving lighting lamp and the specifications of the energy-saving lighting lamp are controlled as a whole to ensure the maximum illumination range of the energy-saving lighting lamp, thereby performing subsequent processing on the maximum illumination range of the energy-saving lighting lamp.

[0032] Therefore, the collaborative relationship, the maximum illumination range of the energy-saving lighting lamp and the location of the household appliance are associated; the first interaction parameter is determined based on the collaborative relationship and the maximum illumination range of the energy-saving lighting lamp; the second interaction parameter is determined based on the collaborative relationship and the location of the household appliance, and the first interaction parameter, the second interaction parameter and the interaction matching table are introduced, so as to determine the interaction mode between the energy-saving lighting lamp and the household appliance based on the first interaction parameter, the second interaction parameter and the interaction matching table, thereby realizing multi-dimensional control of the first interaction parameter, the second interaction parameter and the interaction matching table, and ensuring the accuracy of the interaction mode between the energy-saving lighting lamp and the household appliance.

[0033] refer to Figure 5 , S14: triggering multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determining the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance; In the specific implementation process of the present invention, the specific steps may be: S141: freeze-frame interaction mode; S142: triggering multiple interactions between the energy-saving lighting lamp and the household appliances based on the interaction mode; S143: In the multiple interactions between the energy-saving lighting lamp and the household appliance, the energy-saving lighting lamp and the household appliance interact in multiple aspects in different dimensions; S144: Real-time monitoring of multiple interactions between energy-saving lighting and household devices; S145: Determine the operating parameters of the energy-saving lighting lamp and the operating parameters of the household appliances in multiple interactions between the energy-saving lighting lamp and the household appliances.

[0034] In an embodiment of the present application, energy-saving lighting lamps and household appliances are determined based on the traversal of indoor space; a corresponding collaborative relationship is determined based on the energy-saving lighting lamps and household appliances; an interaction mode between the energy-saving lighting lamps and household appliances is determined based on the collaborative relationship, the maximum illumination range of the energy-saving lighting lamps and the location of the household appliances; multiple interactions between the energy-saving lighting lamps and household appliances are triggered based on the interaction mode, and the working parameters of the energy-saving lighting lamps and the household appliances are determined in the multiple interactions between the energy-saving lighting lamps and the household appliances, thereby realizing multiple interactions between the energy-saving lighting lamps and household appliances, so as to facilitate online control of the energy-saving lighting lamps and household appliances in multiple dimensions, and realize overall management and control of the multiple interactions between the energy-saving lighting lamps and household appliances.

[0035] At this time, the interaction mode is frozen; based on the interaction mode, multiple interactions between the energy-saving lighting lamp and the household appliances are triggered, thereby ensuring multiple interactions between the energy-saving lighting lamp and the household appliances.

[0036] Therefore, in the multiple interactions between energy-saving lighting lamps and household appliances, energy-saving lighting lamps and household appliances interact in multiple aspects in different dimensions; the multiple interactions between energy-saving lighting lamps and household appliances are monitored in real time; the working parameters of energy-saving lighting lamps and the working parameters of household appliances are determined in the multiple interactions between energy-saving lighting lamps and household appliances, thereby realizing the multiple interactions between energy-saving lighting lamps and household appliances, so as to facilitate the online control of energy-saving lighting lamps and household appliances in multiple dimensions, and realize the overall management and control of the multiple interactions between energy-saving lighting lamps and household appliances.

[0037] refer to Figure 6 , S15: in the indoor space, construct an interactive system based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; determine the interactive state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; In the specific implementation process of the present invention, the specific steps may be: S151: freeze the indoor space and perform online detection on the indoor space; S152: In the online detection of the indoor space, the operating parameters of the energy-saving lighting lamp, the operating parameters of the household appliances and the overall area of ​​the indoor space are collected; S153: Associating the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance, and the overall area of ​​the indoor space, and building an interactive system based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance, and the overall area of ​​the indoor space; S154: freeze the interactive system; S155: Dynamically monitor the working parameters of energy-saving lighting lamps and household appliances based on the interactive system; S156: Determine the interaction state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance and the real-time state matching table.

[0038] In the embodiment of the present application, the indoor space is frozen and the indoor space is detected online, thereby realizing online detection of the indoor space. At the same time, in the online detection of the indoor space, the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space are collected; the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space are associated, and an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space, which is compatible with the overall consideration of the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space, and realizes the multi-dimensional control of the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space, thereby ensuring the accuracy of the interactive system.

[0039] Therefore, the interactive system is frozen; the working parameters of the energy-saving lighting lamps and the working parameters of the household appliances are dynamically monitored based on the interactive system; the interactive state is determined according to the working parameters of the energy-saving lighting lamps, the working parameters of the household appliances and the real-time state matching table, which is compatible with the overall consideration of the working parameters of the energy-saving lighting lamps, the working parameters of the household appliances and the real-time state matching table, realizes the multi-dimensional control of the working parameters of the energy-saving lighting lamps, the working parameters of the household appliances and the real-time state matching table, and ensures the accuracy of the interactive state.

[0040] refer to Figure 7 S16: triggering user detection of the environment where the energy-saving lighting lamp is located based on the interaction state; if the user is within the detection range of the energy-saving lighting lamp, dynamically adjusting the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp and the type of user behavior; and adjusting the working parameters of the household appliance based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliance; In the specific implementation process of the present invention, the specific steps may be: S161: monitor the interaction status in real time; S162: triggering user detection of the environment where the energy-saving lighting lamp is located based on the interaction state; S163: determining whether the user is within the detection range of the energy-saving lighting lamp according to user detection of the environment where the energy-saving lighting lamp is located; S164: If the user is within the detection range of the energy-saving lighting lamp, collect the user's location, the location of the energy-saving lighting lamp, and the type of user behavior; S165: Dynamically adjust the working parameters of the energy-saving lighting lamp according to the location of the user, the location of the energy-saving lighting lamp, the type of user behavior and the interaction state; S166: Associating the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliance, and adjusting the working parameters of the household appliance based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliance.

[0041] In the specific implementation process of the present invention, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; based on the interactive state, user detection of the environment where the energy-saving lighting lamp is located is triggered, and if the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the user's behavior type, and the working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances, thereby realizing autonomous regulation of the working parameters of the energy-saving lighting lamp and autonomous regulation of the working parameters of the household appliances, and improving the multiple interactive effects of the energy-saving lighting lamp and the household appliances, so as to adapt to various indoor spaces and maximize the working effects of the energy-saving lighting lamp and the household appliances.

[0042] At this time, the interaction status is monitored in real time; user detection of the environment where the energy-saving lighting is located is triggered based on the interaction status; based on the user detection of the environment where the energy-saving lighting is located, it is determined whether the user is in the detection range of the energy-saving lighting, thereby making a preliminary judgment on whether the user is in the detection range of the energy-saving lighting.

[0043] Therefore, if the user is within the detection range of the energy-saving lighting, the user's location, the location of the energy-saving lighting, and the user's behavior type are collected; the working parameters of the energy-saving lighting are dynamically adjusted according to the user's location, the location of the energy-saving lighting, the user's behavior type and the interaction status, thereby realizing the dynamic adjustment of the working parameters of the energy-saving lighting and being compatible with multi-dimensional control of the user's location, the location of the energy-saving lighting, the user's behavior type and the interaction status.

[0044] Furthermore, the working parameters of the energy-saving lighting lamps after adjustment and the usage status of the household appliances are correlated, and the working parameters of the household appliances are adjusted based on the working parameters of the energy-saving lighting lamps after adjustment and the usage status of the household appliances, thereby realizing autonomous adjustment of the working parameters of the energy-saving lighting lamps and autonomous adjustment of the working parameters of the household appliances, and improving the multiple interactive effects of the energy-saving lighting lamps and the household appliances, so as to adapt to various indoor spaces and maximize the working effects of the energy-saving lighting lamps and the household appliances.

[0045] In an embodiment of the present invention, through the method in the embodiment of the present invention, energy-saving lighting lamps and household appliances are determined according to the traversal of indoor space; the corresponding collaborative relationship is determined according to the energy-saving lighting lamps and household appliances; the interaction mode of the energy-saving lighting lamps and household appliances is determined according to the collaborative relationship, the maximum illumination range of the energy-saving lighting lamps and the position of the household appliances; based on the interactive mode, multiple interactions between the energy-saving lighting lamps and household appliances are triggered, and the working parameters of the energy-saving lighting lamps and the working parameters of the household appliances are determined in the multiple interactions between the energy-saving lighting lamps and household appliances, thereby realizing multiple interactions between the energy-saving lighting lamps and household appliances, so as to facilitate online control of the energy-saving lighting lamps and household appliances in multiple dimensions, and realize overall management and control of the multiple interactions between the energy-saving lighting lamps and household appliances.

[0046] Furthermore, in the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; based on the interactive state, user detection of the environment where the energy-saving lighting lamp is located is triggered, and if the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the type of user's behavior, and the working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances, thereby realizing autonomous regulation of the working parameters of the energy-saving lighting lamp and autonomous regulation of the working parameters of the household appliances, and improving the multiple interactive effects of the energy-saving lighting lamp and the household appliances, so as to adapt to various indoor spaces and maximize the working effects of the energy-saving lighting lamp and the household appliances.

[0047] See also Figure 8 , Figure 8 It is a schematic diagram of the structure of the multiple interactive system of the energy-saving lighting lamp and household appliances in the embodiment of the present invention.

[0048] like Figure 8 As shown, a multiple interaction system between an energy-saving lighting lamp and a household appliance, the multiple interaction system between the energy-saving lighting lamp and the household appliance comprises: A traversal module 21, for determining energy-saving lighting lamps and household appliances according to the traversal of the indoor space; A coordination relationship module 22, used to determine a corresponding coordination relationship between the energy-saving lighting lamp and the household appliance; An interaction mode module 23, configured to determine an interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp and the location of the household appliance; A multiple interaction module 24, configured to trigger multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determine the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance; The interactive state module 25 is used to construct an interactive system in the indoor space based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; and determine the interactive state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; The control module 26 is used to trigger user detection of the environment where the energy-saving lighting lamp is located based on the interactive state. If the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically adjusted according to the user's location, the location of the energy-saving lighting lamp and the user's behavior type. The working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliances.

[0049] See also Fig. 9 , refer to the following Fig. 9 The electronic device 40 according to this embodiment of the present invention will be described. Fig. 9 The electronic device 40 shown is only an example and should not bring any limitation to the functions and scope of use of the embodiments of the present invention.

[0050] like Fig. 9 As shown, the electronic device 40 is in the form of a general computing device. The components of the electronic device 40 may include but are not limited to: at least one processing unit 41, at least one storage unit 42, and a bus 43 connecting different system components (including the storage unit 42 and the processing unit 41).

[0051] The storage unit stores program codes, which can be executed by the processing unit 41, so that the processing unit 41 executes the steps according to various exemplary embodiments of the present invention described in the above “Embodiment Method” section of this specification.

[0052] The storage unit 42 may include a readable medium in the form of a volatile storage unit, such as a random access memory unit (RAM) 421 and / or a cache memory unit 422 , and may further include a read-only memory unit (ROM) 423 .

[0053] The storage unit 42 may also include a program / utility 424 having a set (at least one) of program modules 425, such program modules 425 including but not limited to: an operating system, one or more application programs, other program modules, and program data, each of which or some combination may include an implementation of a network environment.

[0054] Bus 43 may represent one or more of several types of bus structures, including a memory unit bus or memory unit controller, a peripheral bus, an accelerated graphics port, a processing unit, or a local bus using any of a variety of bus architectures.

[0055] The electronic device 40 may also communicate with one or more external devices (e.g., keyboards, pointing devices, Bluetooth devices, etc.), one or more devices that enable a user to interact with the electronic device 40, and / or any device that enables the electronic device 40 to communicate with one or more other computing devices (e.g., routers, modems, etc.). Such communication may be performed via an input / output (I / O) interface 44. Furthermore, the electronic device 40 may also communicate with one or more networks (e.g., a local area network (LAN), a wide area network (WAN), and / or a public network, such as the Internet) via a network adapter 45. Fig. 9 As shown, the network adapter 45 communicates with other modules of the electronic device 40 via the bus 43. It should be understood that although Fig. 9 Not shown, other hardware and / or software modules may be used in conjunction with the electronic device 40, including but not limited to: microcode, device drivers, redundant processing units, external disk drive arrays, RAID systems, tape drives, and data backup planning systems.

[0056] Through the description of the above implementation, it is easy for those skilled in the art to understand that the example implementation described here can be implemented by software, or by software combined with necessary hardware. Therefore, the technical solution according to the implementation of the present disclosure can be embodied in the form of a software product, which can be stored in a non-volatile storage medium (which can be a CD-ROM, a USB flash drive, a mobile hard disk, etc.) or on a network, and includes a number of instructions to enable a computing device (which can be a personal computer, a server, a terminal device, or a network device, etc.) to execute the method according to the implementation of the present disclosure.

[0057] Those skilled in the art can understand that all or part of the steps in the various methods of the above embodiments can be completed by instructing related hardware through a program, and the program can be stored in a computer-readable storage medium, and the storage medium can include: a read-only memory (ROM), a random access memory (RAM), a disk or an optical disk, etc. In addition, it stores computer program instructions, and when the computer program instructions are executed by a computer, the computer executes the above method.

[0058] In addition, the multiple interaction methods and systems between energy-saving lighting lamps and household appliances provided in the embodiments of the present invention are introduced in detail above. Specific examples are used herein to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only used to help understand the methods of the present invention and its core ideas. At the same time, for those skilled in the art, according to the ideas of the present invention, there will be changes in the specific implementation methods and application scopes. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A multiple interaction method between an energy-saving lighting lamp and a household appliance, characterized in that: Applied to multiple interactive scenarios of energy-saving lighting and household appliances; The multiple interaction method between the energy-saving lighting lamp and the household equipment comprises: Determine energy-saving lighting and household appliances based on the traversal of indoor spaces; Determine the corresponding synergy relationship between energy-saving lighting lamps and household appliances; Determining an interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household appliance; Based on the interaction mode, multiple interactions between the energy-saving lighting lamp and the household appliance are triggered, and working parameters of the energy-saving lighting lamp and working parameters of the household appliance are determined in the multiple interactions between the energy-saving lighting lamp and the household appliance; In the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances, and the overall area of ​​the indoor space; the interactive state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances, and the real-time state matching table; Based on the interactive state, user detection of the environment where the energy-saving lighting is located is triggered. If the user is within the detection range of the energy-saving lighting, the working parameters of the energy-saving lighting are dynamically adjusted according to the user's location, the location of the energy-saving lighting and the user's behavior type. The working parameters of the household appliances are adjusted based on the adjusted working parameters of the energy-saving lighting and the usage status of the household appliances.

2. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 1, characterized in that: The method of determining energy-saving lighting lamps and household appliances according to the traversal of the indoor space includes: Locate the interior space; Determine multiple work areas based on the inspection of indoor space; Determine a corresponding traversal mode according to the relative positions between the multiple working areas, the area sizes of the multiple working areas, and the corresponding spatial positions; Triggering the traversal of the indoor space along the traversal mode; Determine energy-efficient lighting and household appliances based on a traversal of the interior space.

3. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 1, characterized in that: The determining of the corresponding cooperative relationship between the energy-saving lighting lamp and the household appliance includes: Fixed frame energy-saving lighting and household equipment; Determine a corresponding association method according to the location of the energy-saving lighting lamp and the location of the household equipment; triggering a dynamic association between the energy-saving lighting lamp and the household device based on the association mode and the corresponding network signal strength; Determining corresponding correlation coefficients based on dynamic correlations between energy-saving lighting lamps and household appliances; The interaction intensity between energy-saving lighting lamps and various household appliances is constructed based on the comparison of multiple correlation coefficients; The corresponding collaborative relationship is determined based on the interaction intensity between the energy-saving lighting lamp and each household appliance, the lighting range of the energy-saving lighting lamp, and the function of each household appliance.

4. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 3, characterized in that: The step of determining the interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household appliance includes: freeze-frame collaborative relationships; Determine the maximum illumination range of the energy-saving lighting lamp according to the direction of the energy-saving lighting lamp and the specifications of the energy-saving lighting lamp; Associating the synergistic relationship, the maximum illumination range of the energy-saving lighting lamp, and the location of the household equipment; Determine a first interaction parameter based on the synergistic relationship and a maximum illumination range of the energy-saving lighting lamp; determining a second interaction parameter based on the collaborative relationship and the location of the home device; An interaction mode between the energy-saving lighting lamp and the household appliance is determined based on the first interaction parameter, the second interaction parameter and the interaction matching table.

5. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 4, characterized in that: The triggering of multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determining the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance, includes: Freeze-frame interaction mode; Based on the interaction mode, multiple interactions between energy-saving lighting lamps and household devices are triggered; In the multiple interactions between energy-saving lighting lamps and household appliances, energy-saving lighting lamps and household appliances interact in multiple aspects in different dimensions; Real-time monitoring of multiple interactions between energy-saving lighting and household devices; The working parameters of the energy-saving lighting lamp and the working parameters of the household appliances are determined in the multiple interactions between the energy-saving lighting lamp and the household appliances.

6. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 5, characterized in that: In the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; The interaction state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance and the real-time state matching table, including: Freeze the indoor space and perform online detection on the indoor space; In the online detection of the indoor space, the working parameters of the energy-saving lighting lamps, the working parameters of the household appliances and the overall area of ​​the indoor space are collected; The operating parameters of the energy-saving lighting lamp, the operating parameters of the household appliances and the overall area of ​​the indoor space are associated, and an interactive system is constructed based on the operating parameters of the energy-saving lighting lamp, the operating parameters of the household appliances and the overall area of ​​the indoor space.

7. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 6, characterized in that: In the indoor space, an interactive system is constructed based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; Determining the interaction state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance and the real-time state matching table also includes: Freeze the interactive system; Based on the interactive system, the working parameters of energy-saving lighting lamps and household appliances are dynamically monitored; The interaction state is determined according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliance and the real-time state matching table.

8. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 7, characterized in that: The method triggers user detection of the environment where the energy-saving lighting lamp is located based on the interaction state, and if the user is within the detection range of the energy-saving lighting lamp, dynamically adjusts the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp, and the type of user behavior, and adjusts the working parameters of the household appliance based on the adjusted working parameters of the energy-saving lighting lamp and the usage state of the household appliance, including: Monitor the interaction status in real time; triggering user detection of the environment where the energy-saving lighting lamp is located based on the interaction state; Whether the user is in the detection range of the energy-saving lighting lamp is determined according to the user detection of the environment where the energy-saving lighting lamp is located.

9. The multiple interaction method between energy-saving lighting lamps and household appliances according to claim 8, characterized in that: The method triggers user detection of the environment where the energy-saving lighting lamp is located based on the interaction state, and if the user is within the detection range of the energy-saving lighting lamp, dynamically adjusts the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp, and the type of user behavior, and adjusts the working parameters of the household appliance based on the adjusted working parameters of the energy-saving lighting lamp and the usage status of the household appliance, further comprising: If the user is within the detection range of the energy-saving lighting, the user's location, the location of the energy-saving lighting, and the type of user behavior are collected; Dynamically adjust the working parameters of the energy-saving lighting lamp according to the user's location, the location of the energy-saving lighting lamp, the user's behavior type and the interaction status; The working parameters of the energy-saving lighting lamp after adjustment and the use status of the household appliance are associated, and the working parameters of the household appliance are adjusted based on the working parameters of the energy-saving lighting lamp after adjustment and the use status of the household appliance.

10. A multiple interactive system of energy-saving lighting lamps and household appliances, characterized in that: The multiple interaction system between the energy-saving lighting lamp and the household appliance is applied to the multiple interaction method between the energy-saving lighting lamp and the household appliance as claimed in any one of claims 1 to 9, and the multiple interaction system between the energy-saving lighting lamp and the household appliance comprises: A traversal module, for determining energy-saving lighting lamps and household appliances according to the traversal of the indoor space; A coordination relationship module, used to determine corresponding coordination relationships between energy-saving lighting lamps and household appliances; An interaction mode module, used for determining an interaction mode between the energy-saving lighting lamp and the household appliance according to the cooperative relationship, the maximum illumination range of the energy-saving lighting lamp and the location of the household appliance; A multiple interaction module, used for triggering multiple interactions between the energy-saving lighting lamp and the household appliance based on the interaction mode, and determining the working parameters of the energy-saving lighting lamp and the working parameters of the household appliance in the multiple interactions between the energy-saving lighting lamp and the household appliance; An interactive state module is used to construct an interactive system in the indoor space based on the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the overall area of ​​the indoor space; and determine the interactive state according to the working parameters of the energy-saving lighting lamp, the working parameters of the household appliances and the real-time state matching table; The control module is used to trigger user detection of the environment where the energy-saving lighting lamp is located based on the interactive state. If the user is within the detection range of the energy-saving lighting lamp, the working parameters of the energy-saving lighting lamp are dynamically controlled according to the user's location, the location of the energy-saving lighting lamp and the user's behavior type; the working parameters of the household appliances are controlled based on the controlled working parameters of the energy-saving lighting lamp and the usage status of the household appliances.

Images