LED eave lamp system and intelligent control method thereof

Abstract

The invention discloses an LED eave lamp system and an intelligent control method thereof, and relates to the technical field of LED illumination. The LED eave lamp system comprises a power supply, an LED lamp strip body, a controller, a first mobile terminal and a second mobile terminal. The LED lamp strip body comprises a strip-shaped substrate, white light lamp beads and colorful light lamp beads, the white light lamp beads and the colorful light lamp beads are arranged on the strip-shaped substrate, at least one white light lamp bead is arranged between every two adjacent colorful light lamp beads, the power of the white light lamp beads is smaller than that of the colorful light lamp beads, the colorful light lamp beads are provided with lenses, and the lenses adjust the light emitting range. One end of the controller is connected with a power supply, and the other end of the controller is connected with the LED lamp strip body; the first mobile terminal sends a first control instruction to the controller through the wireless communication module; and the second mobile terminal sends a second control instruction to the controller through the APP, so that the white-light lamp beads and the colored-light lamp beads are controlled to emit light independently, and a light emitting mode matched with the scene where the LED eave lamp is located is generated. Therefore, intelligent dynamic control is realized, diversified requirements are met, and user experience is improved.

Description

Technical Field

[0001] The present application relates to the field of smart lighting technology, and in particular to an LED eaves lamp system and an intelligent control method thereof. Background Art

[0002] With the development of science and technology, people's living standards are constantly improving. People's requirements for houses are no longer limited to residential functions, but more pursuit of quality of life, so eaves lights came into being. Eaves lights are a special kind of outdoor lighting equipment, usually designed and installed under the eaves of buildings to provide night lighting or add to the beauty of buildings. Eaves lights not only have lighting functions, but also add an elegant and warm atmosphere to the building through their unique design and lighting effects. At the same time, eaves lights use energy-saving and environmentally friendly LED light sources, which have the advantages of long life, low power consumption, and high brightness. Therefore, they are widely used in various architectural scenes, such as villas, courtyards, self-built houses, etc.

[0003] With the advancement of technology and the change of people's aesthetic concepts, eaves lights are also constantly innovating and developing. For example, some new eaves lights adopt a modular design, which can be combined and disassembled according to the specific needs of the environment to meet the different usage needs of users. In addition, some smart eaves lights also incorporate Internet of Things technology, which can be remotely controlled through mobile phone APP or smart speakers and other devices to adjust lighting effects and timer switches. However, the existing eaves lights cannot achieve intelligent dynamic lighting control, which makes it difficult to meet the diverse needs of users, resulting in poor user experience. Summary of the invention

[0004] In view of this, the present application provides an LED eaves lamp system and an intelligent control method thereof, so as to solve the problem that the eaves lamps in the prior art cannot realize intelligent dynamic lighting control.

[0005] The technical solution adopted in this application is:

[0006] In a first aspect, the present application provides an LED eaves lamp system, the system comprising:

[0007] An LED eaves lamp system, characterized in that the system comprises:

[0008] power supply;

[0009] An LED light strip body, the LED light strip body comprising: a strip substrate, and a plurality of white light beads and a plurality of colored light beads arranged on the strip substrate, at least one white light bead is arranged between adjacent colored light beads, the power of the white light bead is less than the power of the colored light bead, and the colored light beads are correspondingly provided with lenses, and the lenses adjust the light emission range of the colored light beads;

[0010] A controller, one end of which is connected to the power supply, and the other end of which is connected to the LED light strip body, and the controller is provided with a wireless communication module;

[0011] A first mobile terminal communicates with the wireless communication module and sends a first control instruction to the controller;

[0012] A second mobile terminal is installed with an APP, and sends a second control instruction to the controller via the APP;

[0013] Among them, the first mobile terminal or the second mobile terminal controls the white light beads and the colored light beads in the LED light strip body to emit light independently through the controller, thereby generating a light-emitting mode adapted to the scene where the LED eaves lamp is located.

[0014] In some embodiments, the first mobile terminal is a remote controller, and the remote controller is provided with buttons arranged in an array, wherein:

[0015] The first row of buttons includes: turn on the light, turn off the light, increase the brightness and decrease the brightness;

[0016] The second row of buttons includes: independent white light, blue light, green light and red light;

[0017] The third row of buttons includes: orange light, light green light, light blue light and timer 1 hour;

[0018] The fourth row of buttons includes: yellow light, grass green light, purple light and timer 2 hours;

[0019] The fifth row of buttons includes: faster light flashing, slower light flashing, light mode and sleep mode;

[0020] The sixth row of buttons includes: music mode 1, music mode 2, music mode 3 and music mode 4.

[0021] In some embodiments, the APP of the second mobile terminal is further provided with a music module, and the music module includes several types of music, and each type of music is preset with a control signal corresponding to the light-emitting mode of the LED eaves lamp, and the control signal includes: light brightness, light color temperature, light duration, flashing frequency, light color of the colored light beads

[0022] In some embodiments, the lens is circular or square in shape.

[0023] In a second aspect, the present application provides an intelligent control method for an LED eaves lamp system, wherein the LED eaves lamp system is an LED eaves lamp system based on the first aspect, and the intelligent control method comprises:

[0024] Acquire a lighting mode of the eaves lamp, and acquire an associated control signal according to the lighting mode;

[0025] Acquire the eaves information of the eaves where the eaves lamp is located, and perform regional division according to the eaves information to obtain at least one lamp bead area of ​​the eaves; wherein the lamp bead area includes at least one white light lamp bead and / or at least one colored light lamp bead;

[0026] Acquire a corresponding partition control signal according to the lamp bead area and the control signal;

[0027] Control the first luminous duration and the first luminous brightness of the white light lamp beads according to the control signal, and control the first compensation luminous duration and the first compensation luminous brightness of the white light lamp beads in the lamp bead area according to the partition control signal;

[0028] And / or, controlling the second light-emitting duration, second light-emitting brightness and light-emitting color of the colored light beads according to the control signal, and controlling the second compensated light-emitting duration and second compensated light-emitting brightness of the colored light beads in the lamp bead area according to the partition control signal.

[0029] In some embodiments, the control signal includes a duration parameter signal and a brightness parameter signal, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the step of obtaining the corresponding partition control signal according to the lamp bead area and the control signal includes:

[0030] Obtain the luminous length of each lamp bead area;

[0031] Adjust the duration parameter signal according to the lamp bead area and the luminous length to obtain a corresponding duration compensation signal;

[0032] The brightness parameter signal is adjusted according to the lamp bead area and the luminous length to obtain a corresponding brightness compensation signal.

[0033] In some embodiments, the lighting mode includes a music rhythm mode, the control signal includes a color parameter signal, a duration parameter signal, and a brightness parameter signal; and obtaining the associated control signal according to the lighting mode includes:

[0034] Acquire audio data corresponding to the music mode according to the music rhythm mode;

[0035] Extracting features from the audio data to obtain corresponding audio features; wherein the audio features include spectrum features and amplitude features;

[0036] Performing sentiment analysis on the audio features to determine the sentiment pattern of the audio data, and acquiring the color parameter signal according to the sentiment pattern;

[0037] The duration parameter signal is acquired according to the frequency spectrum feature and the amplitude feature, and the brightness parameter signal is acquired according to the amplitude feature.

[0038] In some embodiments, the duration parameter signal includes a flicker parameter signal and a duration parameter signal, the second light duration includes the light flickering time and light duration of the colored light bead, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the control of the light color, the second light duration and the second light brightness of the colored light bead according to the control signal, and the control of the second compensated light duration and the second compensated light brightness of the colored light bead in the lamp bead area according to the partition control signal include:

[0039] Control the second light emitting brightness of each of the colored light beads according to the brightness parameter signal, and control the second compensated light emitting brightness of each of the colored light beads in the corresponding lamp bead area according to the brightness compensation signal;

[0040] Based on the lamp bead position information, the light flashing time of each of the colored light lamp beads is controlled according to the flashing parameter signal, and the light duration of each of the colored light lamp beads is controlled according to the duration parameter signal; wherein the light flashing time and the light duration of the same colored light lamp bead are at different times;

[0041] Control the second compensation lighting duration of each of the colored light beads in the corresponding light bead area according to the duration compensation signal; wherein the second compensation lighting duration is used to compensate for the light duration;

[0042] According to the light flashing time, the luminous color of each of the colored light beads is controlled to switch colors according to the color parameter signal.

[0043] In some embodiments, the lighting mode further includes a scene atmosphere mode, the control signal includes a color temperature parameter signal, a duration parameter signal and a brightness parameter signal, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the method further includes:

[0044] Acquire the color sequence parameters of the colored light beads according to the scene atmosphere mode; wherein the color sequence parameters include the luminous color parameters of each of the colored light beads at different times, and different scene atmosphere modes correspond to different color sequence parameters;

[0045] Acquire the color temperature parameter signal and the brightness parameter signal according to the scene atmosphere mode, and acquire the duration parameter signal according to the color sequence parameter;

[0046] Controlling the second light emitting brightness of each of the colored light beads according to the brightness parameter signal, and controlling the lighting color temperature of each of the colored light beads according to the color temperature parameter signal;

[0047] Controlling the second light-emitting duration of each of the colored light beads according to the duration parameter signal, and controlling the light-emitting color of each of the colored light beads to switch colors according to the light-emitting color parameter;

[0048] The second compensated luminous brightness of each of the colored lamp beads in the corresponding lamp bead area is controlled according to the brightness compensation signal, and the second compensated luminous duration of each of the colored lamp beads in the corresponding lamp bead area is controlled according to the duration compensation signal.

[0049] In some embodiments, at least one white light bead is disposed between two adjacent colored light beads, and the first light emission duration includes a color temperature gradient time and / or a brightness gradient time; the method further includes:

[0050] Detecting the color states of two adjacent colored light beads at the same time based on the color sequence parameters;

[0051] If the color state indicates that the two colored light beads emit different colors, the light duration of the two adjacent colored light beads is obtained according to the duration parameter signal and the luminous color parameter;

[0052] Determining the light emitting transition parameters of the white light lamp beads according to the light duration; wherein the light emitting transition parameters include brightness transition parameters and / or color temperature transition parameters;

[0053] Determine the brightness gradient time and the brightness gradient range of the white light lamp beads according to the brightness transition parameters, and control the white light lamp beads to perform periodic brightness gradient according to the brightness gradient range at the brightness gradient time;

[0054] The color temperature gradient time and the color temperature gradient range of the white light lamp bead are determined according to the color temperature transition parameter, and the white light lamp bead is controlled to perform periodic color temperature gradient according to the color temperature gradient range within the color temperature gradient time.

[0055] In summary, the beneficial effects of this application are as follows:

[0056] The LED eaves lamp system and its intelligent control method provided by the present application include a power supply, an LED light strip body, a controller, a first mobile terminal and a second mobile terminal in the LED eaves lamp system. The LED light strip body includes a strip substrate and white light beads and colored light beads arranged on the strip substrate. At least one white light bead is arranged between adjacent colored light beads, thereby supporting the setting of a variety of different lighting effects to meet diverse needs. The power of the white light bead is less than that of the colored light bead. The colored light bead is provided with a lens, and the lens adjusts the light output range to create an atmosphere. One end of the controller is connected to the power supply and the other end is connected to the LED light strip body. The controller is provided with a wireless communication module; the first mobile terminal communicates with the wireless communication module to send a first control instruction to the controller; the second mobile terminal sends a second control instruction to the controller through an APP, thereby controlling the white light bead and the colored light bead to emit light independently, and generating a light emission mode adapted to the scene where the LED eaves lamp is located. In this way, different white light beads can be controlled to emit white light of different brightness according to the control instruction, and different colored light beads can be controlled to emit colored light of different brightness and different colors, thereby realizing intelligent dynamic lighting control, meeting the diverse needs of users, and improving user experience.

[0057] Among them, in the intelligent control method of the LED eaves lamp system, the lighting mode of the eaves lamp is first obtained, and the associated control signal is obtained according to the lighting mode. Then the eaves information of the eaves where the eaves lamp is located is obtained, and the region is divided according to the eaves information to obtain at least one lamp bead region of the eaves; wherein the lamp bead region includes at least one white light lamp bead and / or at least one colored light lamp bead. Thus, the corresponding partition control signal is obtained according to the lamp bead region and the control signal. The first lighting duration and the first lighting brightness of the white light lamp bead are controlled according to the control signal, and the first compensation lighting duration and the first compensation lighting brightness of the white light lamp bead in the lamp bead region are controlled according to the partition control signal. And / or, the second lighting duration, the second lighting brightness and the lighting color of the colored light lamp bead are controlled according to the control signal, and the second compensation lighting duration and the second compensation lighting brightness of the colored light lamp bead in the lamp bead region are controlled according to the partition control signal. Thus, different lighting modes are set or provided according to user needs, and then the lighting effects of the eaves lamp are intelligently and dynamically controlled according to the lighting mode and each lamp bead region, providing a personalized and diversified lighting environment, meeting user needs, and effectively improving user experience. BRIEF DESCRIPTION OF THE DRAWINGS

[0058] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings required for use in the embodiments of the present application will be briefly introduced below. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work, and these are all within the protection scope of the present application.

[0059] Figure 1This is a schematic diagram of the structure of the LED eaves lamp in Example 1 of the present application;

[0060] Figure 2 This is a schematic diagram of the white light lamp bead in Example 1 of this application

[0061] Figure 3 yes Figure 1 A partial enlarged schematic diagram of the LED light strip of the LED eaves light;

[0062] Figure 4 This is a schematic diagram of the colored light bead in Example 1 of the present application;

[0063] Figure 5 is a schematic diagram of the first mobile terminal in Example 1 of the present application;

[0064] Figure 6 It is a flow chart of the intelligent control method of the LED eaves lamp system in Example 2 of the present application;

[0065] Figure 7 yes Figure 6 Schematic diagram of the process of step S101;

[0066] Figure 8 yes Figure 6 Schematic diagram of the process of step S105;

[0067] Fig. 9 is a flow chart of another lighting control method for an eaves lamp in Example 2 of the present application;

[0068] Fig.10 is a flow chart of another lighting control method for an eaves lamp in Embodiment 2 of the present application;

[0069] Reference numerals

[0070] LED light strip body 100 , white light lamp beads 101 , colored light lamp beads 102 , strip substrate 103 , lens 200 , controller 300 , power supply 400 . DETAILED DESCRIPTION

[0071] In order to make the purpose, technical scheme and advantages of the embodiment of the present application clearer, the technical scheme in the embodiment of the present application will be clearly and completely described in conjunction with the drawings in the embodiment of the present application. It should be noted that, in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply that there is any such actual relationship or order between these entities or operations. In the description of the present application, it should be understood that the orientation or position relationship indicated by the terms "center", "upper", "lower", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc. is based on the orientation or position relationship shown in the drawings, which is only for the convenience of describing the present application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present application. Moreover, the term "include", "comprise" or any other variant thereof is intended to cover non-exclusive inclusion, so that the process, method, article or equipment including a series of elements includes not only those elements, but also includes other elements that are not explicitly listed, or also includes elements inherent to such process, method, article or equipment. In the absence of further restrictions, the elements defined by the sentence "comprising..." do not exclude the existence of other identical elements in the process, method, article or device comprising the elements. If there is no conflict, the embodiments of the present application and the various features in the embodiments can be combined with each other, all within the scope of protection of the present application.

[0072] Example 1

[0073] The embodiment of the present application provides an LED eaves lamp system, comprising:

[0074] Power supply 400;

[0075] The LED light strip body 100 includes: a strip substrate 103, and a plurality of white light beads 101 and a plurality of colored light beads 102 arranged on the strip substrate 103, at least one white light bead 101 is arranged between adjacent colored light beads 102, the power of the white light bead 101 is less than the power of the colored light bead 102, and the colored light bead 102 is correspondingly provided with a lens 103, and the lens 103 adjusts the light emission range of the colored light bead 102;

[0076] A controller 300, one end of the controller 300 is connected to the power supply 400, and the other end is connected to the LED light strip body 100, and the controller 300 is provided with a wireless communication module;

[0077] The first mobile terminal communicates with the wireless communication module and sends a first control instruction to the controller 300;

[0078] The second mobile terminal is installed with an APP, and sends a second control instruction to the controller 300 through the APP;

[0079] The first mobile terminal or the second mobile terminal controls the white light beads 101 and the colored light beads 102 in the LED light strip body to emit light independently through the controller 300, thereby generating a light-emitting mode adapted to the scene where the LED eaves light is located.

[0080] For details, see Figure 1 LED eaves light schematic diagram and Figure 3 The LED light strip body 100 is used for emitting light, and a plurality of white light beads 101 and a plurality of colored light beads 102 are arranged on the strip substrate 103 of the LED light strip body 100. It can be understood that the white light beads 101 are used to provide basic lighting, and their power is relatively small, and they are suitable for long-term operation, while the colored light beads 102 are used to provide colorful lighting effects, and their power is relatively large, and they are suitable for short-term operation to create an atmosphere. Figure 2 As shown in the schematic diagram of white light beads, when all white light beads 101 are lit and all colored light beads 102 are off, the eaves lamp presents an independent white light effect. The colored light beads 102 can be RGB lamp beads, each of which can independently adjust the driving current of the three primary colors of red, green and blue, and then adjust the light effect of any color, producing a variety of lighting effects to meet the user's needs for color change.

[0081] For example, referring to the technical parameters of LED eaves lamps shown in Table 1 below, the type of white light lamp bead 101 may be 2835 lamp bead, which has low power and supports warm white light (3000K), natural white light (4000K) or cold white light (6000K). The type of colored light lamp bead 102 may be 5054RGB, which is a high-brightness, full-color LED lamp bead suitable for atmosphere lighting, has high power, and is suitable for short-term opening to create an atmosphere.

[0082] Table 1 Technical parameters of LED eaves lights

[0083]

[0084]

[0085] The LED eaves light system can provide a DC 24V / 1A working voltage to the LED light strip 100 through the power supply 400 to maintain the normal operation of the 24W rated power. The product is compact and easy to install in eaves, corners, tree trunks, etc. The LED light strip 100 includes 12 white light beads 101 and 2 color light beads 102 per meter, with a color rendering index greater than 80, a lumen of 155Lm / M, and a working environment of -20℃ to +40℃.

[0086] In some embodiments, each colored light bead 102 in the LED eaves light system is provided with a lens 200, and the lens 102 can adjust the light emission range of the colored light bead 102. Figure 3 The enlarged schematic diagram of the LED light strip body shown in the figure shows that the lens 200 is a circular lens, which is fixed in front of each color light bead 102 through a transparent shell and screws to adjust the light output range of the color light bead 102. Figure 4 In the schematic diagram of the colored light bead shown in FIG. 1 , the lens 200 can reduce glare and scattered light, making the light of the colored light bead 102 softer and more comfortable, and can focus or radiate colored light, or make the colored light present a specific shape to create an atmosphere. It is understandable that the lens 200 can also be a square lens or a lens of other shapes, and those skilled in the art can set it according to actual needs, and this embodiment does not limit this.

[0087] In some embodiments, the controller 400 is provided with a wireless communication module, such as an infrared module, a WIFI module or a Bluetooth module, etc., which supports infrared remote control, voice control and mobile terminal APP remote control, and can realize voice control of the switch of the lamp, brightness adjustment and other functions. Specifically, the first mobile terminal is a remote control, which communicates with the wireless communication module and sends a first control instruction to the controller 300; the second mobile terminal is a mobile phone with an APP installed, and sends a second control instruction to the controller through the APP. The control instructions may include operations such as turning on / off the light, adjusting the brightness, switching the color, timing switch, scene linkage, etc. Among them, the first mobile terminal or the second mobile terminal controls the white light beads 101 and the colored light beads 102 in the LED light strip body 100 to emit light independently through the controller 300, generating a light-emitting mode adapted to the scene where the LED eaves lamp is located.

[0088] In some embodiments, the first mobile terminal is a remote controller, see Figure 5 The schematic diagram of the first mobile terminal shown in the figure, the remote controller is provided with buttons arranged in an array, wherein:

[0089] The first row of buttons includes: turn on the light, turn off the light, increase the brightness and decrease the brightness;

[0090] The second row of buttons includes: independent white light, blue light, green light and red light;

[0091] The third row of buttons includes: orange light, light green light, light blue light and timer 1 hour;

[0092] The fourth row of buttons includes: yellow light, grass green light, purple light and timer 2 hours;

[0093] The fifth row of buttons includes: faster light flashing, slower light flashing, light mode and sleep mode;

[0094] The sixth row of buttons includes: music mode 1, music mode 2, music mode 3 and music mode 4.

[0095] Specifically, in the first row of buttons, "ON" means turning on the light, "OFF" means turning off the light, "↓" means reducing the brightness, and "↑" means increasing the brightness. It supports continuous pressing multiple times until the brightness is increased to the maximum or reduced to the minimum. In the second row of buttons, "W" means independent white light, only the white light bead 101 is turned on to emit light, and other color buttons correspond to the light color of the colored light bead 102. In the third row of buttons, "1H" means that the light will automatically turn off after 1 hour, and in the fourth row of buttons, "2H" means that the light will automatically turn off after 2 hours. In the fifth row of buttons, "Speed+" means speeding up the flashing of the light, and "Speed-" means slowing down the flashing of the light. It supports continuous pressing multiple times until it is accelerated to the fastest flashing frequency or slowed down to the slowest flashing frequency. "Mode" means the lighting mode, and pressing once means switching the current lighting mode. "Night" means the sleep mode, and the brightness and / or color temperature of the light will be adjusted to the preset range. In the sixth row of buttons, "1" means music mode 1, "2" means music mode 2, "3" means music mode 3, and "4" means music mode 4. It is understandable that the preset audio data in different music modes are different, and the white light lamp beads 101 and the colored light lamp beads 102 can emit light according to different audio data.

[0096] In some embodiments of the present application, the second mobile terminal is an intelligent electronic device such as a mobile phone or a tablet, which has an APP for controlling the LED eaves lamp installed therein. The APP also has a music module, which includes several types of music styles. Each type of music is preset with a corresponding control signal for controlling the lighting mode of the LED eaves lamp. The control signal includes: luminous brightness, luminous color temperature, luminous duration, flashing frequency, and luminous color of colored lamp beads.

[0097] In some embodiments, the LED light strip body 100, the controller 300 and the power supply 400 are all made of waterproof materials, and the output end of the controller 300 is connected to one end of the LED light strip body 100 through a waterproof connector line, and the other end of the controller 300 is connected to the power supply 400. The LED eaves lamp has an IP67 protection level. Specifically, IP67 is the protection level identification of the lamp, where IP stands for Ingress Protection, 6 means the dustproof level is 6, that is, it is completely prevented from foreign objects and dust intrusion; 7 means the waterproof level is 7, that is, the lamp can be immersed in water for a short time at a depth of 1 meter without being affected. The eaves lamp in this embodiment has good dustproof and waterproof performance, is suitable for outdoor environments, and can withstand adverse weather conditions.

[0098] Example 2

[0099] See also Figure 6 , Figure 6 is an optional flow chart of the lighting control method of the eaves lamp provided in the embodiment of the present application, Figure 6 The method in the embodiment may include but is not limited to steps S101 to S105. Figure 6 The order of step S101 to step S105 is not specifically limited, and the order of steps can be adjusted or some steps can be reduced or added according to actual needs.

[0100] Step S101, obtaining the lighting mode of the eaves lamp, and obtaining the associated control signal according to the lighting mode.

[0101] In some embodiments, users are supported to select the lighting mode of the eaves lamp through infrared remote control, voice control or mobile APP control, such as music rhythm mode, scene atmosphere mode, manual adjustment mode, etc. The eaves lamp can also start a certain lighting mode by default, which is not limited in this embodiment.

[0102] In some embodiments, the associated control signal is obtained according to the light-emitting mode, for example, the corresponding control signal is generated from a preset database or algorithm according to different light-emitting modes. These control signals may include light brightness, light color temperature, light duration, flashing frequency, light color of colored light beads, etc.

[0103] Step S102, obtaining the eaves information of the eaves where the eaves lamp is located, and performing area division according to the eaves information to obtain at least one lamp bead area of ​​the eaves.

[0104] In some embodiments, the eaves information includes plane structure information and three-dimensional structure information. Specifically, the eaves are divided into regions according to the plane structure information to obtain the middle lamp bead region, the left lamp bead region and / or the right lamp bead region; the eaves are divided into regions according to the three-dimensional structure information to obtain the front lamp bead region, the side lamp bead region and / or the rear lamp bead region. Each lamp bead region includes at least one white light lamp bead 101 and / or at least one colored light lamp bead 102.

[0105] It is understandable that when only the LED eaves lights are installed on the front of the eaves, there is no three-dimensional structure information by default, and only the area division needs to be performed according to the plane structure information. For example, the plane structure information indicates that the eaves length is 12 meters. By default, according to the principle of equal division, the lamp bead area obtained from left to right is 4 meters for the left lamp bead area, 4 meters for the middle lamp bead area, and 4 meters for the right lamp bead area. It can also be adjusted by the user, for example, the left lamp bead area is 3 meters, the middle lamp bead area is 6 meters, and the right lamp bead area is 3 meters, and the embodiment of the present application does not limit this.

[0106] In some embodiments, the area division or area adjustment can also be performed according to the orientation of the building and changes in the external environment. Specifically, an environmental perception sensor, such as an infrared sensor, a temperature and humidity sensor, and a light sensor, can be installed on the LED light strip body 100, so that the area division can be automatically performed according to the sensor data, and the size and position of the area can be dynamically adjusted. Therefore, the lighting control can be performed according to the shape of the building, the lighting requirements, and the light intensity in different time periods.

[0107] Step S103, obtaining a corresponding partition control signal according to the lamp bead area and the control signal.

[0108] In some embodiments, the control signal includes a duration parameter signal and a brightness parameter signal, and the partition control signal includes a duration compensation signal and a brightness compensation signal. Specifically, step S103: obtaining a corresponding partition control signal according to the lamp bead area and the control signal may include but is not limited to the following steps S201 to S203.

[0109] Step S201, obtaining the luminous length of each lamp bead area.

[0110] In some embodiments, the luminous length of each lamp bead area is obtained. The luminous length can be automatically adjusted according to the position of the lamp bead area and the external environment, or it can be manually set by the user. Exemplarily, when the left lamp bead area is close to the street lamp, the luminous length of the left lamp bead area can be adaptively adjusted to 80% according to the data of the light sensor, that is, 20% of the lamp beads close to the street lamp do not work. Alternatively, when people gather in the central area of ​​the eaves to have fun, the user can also set the luminous length of the left lamp bead area and the right lamp bead area to 0 through the APP of the second mobile terminal, thereby effectively saving electricity while meeting the user's diverse lighting needs and improving the user experience.

[0111] Step S202, adjusting the duration parameter signal according to the lamp bead area and the light emission length to obtain a corresponding duration compensation signal.

[0112] In some embodiments, the duration parameter signal is used to control the light-emitting duration of the lamp beads, and the duration parameter signal is adjusted according to the lamp bead area and the light-emitting length. Specifically, for the middle lamp bead area, the corresponding lamp bead light-emitting duration can be longer than that of the left and right lamp bead areas, and the duration parameter signal is further adjusted in combination with the light-emitting length to obtain the corresponding duration compensation signal. For the left and right lamp bead areas, the corresponding duration compensation signal can be obtained based on the duration compensation signal of the middle lamp bead area. Among them, the duration compensation signal is used to compensate for the light-emitting duration of the lamp beads, including increasing the duration and decreasing the duration. It is understandable that when the light changes or turns off, it starts to change or go out from the left and right light areas, and gradually changes to the middle light area through the duration compensation signal. This produces a smooth and dynamic light change, and the process is smooth to avoid users feeling abrupt and uncomfortable, thereby effectively improving the user experience.

[0113] Step S203, adjusting the brightness parameter signal according to the lamp bead area and the light-emitting length to obtain a corresponding brightness compensation signal.

[0114] In some embodiments, the brightness parameter signal is used to control the luminous brightness of the lamp beads, and the brightness parameter signal is adjusted according to the lamp bead area and the luminous length. Specifically, for the middle lamp bead area, the corresponding lamp bead luminous brightness can be higher than that of the left and right lamp bead areas, and the brightness parameter signal is further adjusted in combination with the luminous length to obtain the corresponding brightness compensation signal. For the left and right lamp bead areas, the corresponding brightness compensation signal can be obtained based on the brightness compensation signal of the middle lamp bead area. Among them, the brightness compensation signal is used to compensate for the luminous brightness of the lamp beads, including increasing the brightness and decreasing the brightness. It can be understood that the brightness of the middle lamp bead area can be higher than the brightness of the left and right lamp bead areas, providing brightness compensation for the high lighting demand area in the middle of the eaves.

[0115] Step S104, controlling the first luminous duration and the first luminous brightness of the white light lamp beads according to the control signal, and controlling the first compensation luminous duration and the first compensation luminous brightness of the white light lamp beads in the lamp bead area according to the partition control signal.

[0116] In some embodiments, according to different control signals, the controller 300 controls the white light lamp beads 101 and the colored light lamp beads 102 respectively. Specifically, it can control the first light-emitting duration and the first light-emitting brightness of the white light lamp beads 101 according to the control signal, and control the first compensation light-emitting duration and the first compensation light-emitting brightness of the white light lamp beads in each lamp bead area according to the partition control signal.

[0117] Step S105, and / or, controlling the second luminous duration, second luminous brightness and luminous color of the colored light beads according to the control signal, and controlling the second compensated luminous duration and second compensated luminous brightness of the colored light beads in the lamp bead area according to the partition control signal.

[0118] In some embodiments, the second luminous duration, second luminous brightness and luminous color of the colored light bead 102 are controlled according to the control signal, and the second compensation luminous duration and second compensation luminous brightness of the colored light bead in each bead area are controlled according to the partition control signal. Intelligent dynamic control enables each lamp bead to work according to the preset time, brightness and / or color, so that the eaves lamp presents a lighting effect corresponding to the luminous mode, meets the diverse needs of users, and effectively improves the user experience.

[0119] Reference Figure 7 As shown, in some embodiments of the present application, the lighting mode includes a music rhythm mode, and the control signal includes a color parameter signal, a duration parameter signal and a brightness parameter signal; in the above step S101: obtaining the associated control signal according to the lighting mode may also include but is not limited to the following steps S301 to S304.

[0120] Step S301, obtaining audio data corresponding to the music mode according to the music rhythm mode.

[0121] In some embodiments, audio data corresponding to the music mode is obtained according to the music rhythm mode. For example, when the user selects music mode 1 through the remote controller, the controller 300 can obtain preset audio data according to the first control instruction. It can be understood that the audio data corresponding to the four music modes on the remote controller have been pre-stored in the controller 300, and this embodiment does not limit this.

[0122] In some embodiments, when the music rhythm mode is selected as the lighting mode of the eaves lamp, the controller 300 can also enter the monitoring state to collect and process audio data from an external sound source. It is understandable that the external sound source can include music or other audio content played by a mobile phone, a stereo, or other device. When the Bluetooth module in the controller 300 and the external sound source are in the Bluetooth connection state, the audio data of the external sound source can also be transmitted via Bluetooth to the controller 300 of the eaves lamp for processing, and this embodiment does not limit this.

[0123] Step S302: extract features from the audio data to obtain corresponding audio features.

[0124] In some embodiments, feature extraction is performed on audio data to obtain corresponding audio features, wherein the audio features include spectrum features and amplitude features. Specifically, spectrum features reflect the intensity and distribution of different frequency components in audio data, and are the key to analyzing music rhythm and melody. Amplitude features represent the intensity or loudness of audio signals, and are an important basis for judging the intensity and dynamic changes of music.

[0125] In some embodiments, extracting features from audio data to obtain corresponding audio features may also include but are not limited to the following steps S3021 to S3023.

[0126] Step S3021, preprocess the audio data to obtain an audio signal. The collected initial audio data may contain noise interference. In order to better present the music lighting effect of the eaves lamp, in this embodiment, a filter or other noise technology can be used to preprocess the audio data to reduce noise interference.

[0127] Step S3022, extracting amplitude features from the audio signal. Amplitude is the strength or loudness of the audio signal at each sampling point. Amplitude information can be obtained by reading the value of each sampling point of the audio data. Statistical features such as the mean, maximum, minimum, and standard deviation of the amplitude are calculated from the amplitude information. These amplitude features reflect the overall loudness and dynamic range of the audio signal.

[0128] Step S3023, extracting spectral features from the audio signal. The frequency domain signal can be extracted from the audio signal by Fourier transform, and the frequency domain signal reveals the intensity distribution of the audio signal at different frequencies. The frequency domain signal obtained by Fourier transform can be further represented as a spectrogram or a spectrum vector. It can be understood that the spectrogram is a two-dimensional representation, in which the horizontal axis is the frequency and the vertical axis is the intensity (or the square of the amplitude). The spectrum vector is a one-dimensional array containing the intensity value of each frequency component. Finally, the spectrum features are extracted from the spectrum, such as the center of gravity of the spectrum (i.e., the center frequency of the spectrum energy), the spectrum roll-off (i.e., the frequency range in which the spectrum energy drops from the peak to below a certain threshold), the spectrum flatness (i.e., whether the intensity distribution of each frequency component of the spectrum is uniform), etc. The spectrum features can reflect the timbre, pitch and sound quality of the audio signal, and this embodiment does not limit this.

[0129] Step S303: Perform sentiment analysis on the audio features to determine the sentiment pattern of the audio data, and obtain a color parameter signal according to the sentiment pattern.

[0130] Sentiment analysis is used to identify and understand the emotions expressed by audio data. In this embodiment, the audio features can be input into a pre-trained sentiment analysis model (such as a machine learning model, a deep learning model, or a rule-based method) for sentiment analysis to determine the emotional pattern of the audio data, such as happiness, sadness, excitement, etc.

[0131] In some embodiments, the color parameter signal may include color temperature parameters and color sequence parameters. Specifically, color temperature refers to the color temperature of the light source, which is measured in Kelvin (K). Different color temperatures can convey different emotional atmospheres. For example, warm color temperature (such as 2700K-3000K) can represent a warm and comfortable atmosphere, suitable for expressing happy or calm emotions; while cold color temperature (such as 6000K-7000K) conveys a calm and refreshing feeling, suitable for expressing sad or serious emotions. The color sequence refers to the color combination of lights that change in a specific order over a period of time. For example, happiness can be represented by a bright and lively color sequence, such as the rapid switching of red, yellow and green; while sad emotions may be represented by a soft and dim color sequence, such as a gradient of blue, purple and gray. The color parameter signal corresponding to the emotional mode can be obtained according to the preset emotional color mapping relationship, and this embodiment does not limit this.

[0132] Step S304: acquiring a duration parameter signal according to the frequency spectrum characteristics and the amplitude characteristics, and acquiring a brightness parameter signal according to the amplitude characteristics.

[0133] In some embodiments, the duration parameter signal includes a flicker parameter signal and a duration parameter signal, and the duration parameter signal is obtained according to the spectrum characteristics and amplitude characteristics. Specifically, the peaks and valleys in the spectrum characteristics reflect the rhythm and melody changes of the audio data, and the corresponding flicker parameter signal is obtained according to the frequency and interval of the peaks and valleys. Exemplarily, each rhythm peak corresponds to a light flickering event, and the frequency and duration of the flickering can be adjusted according to the speed and intensity of the rhythm, which is not limited in this embodiment.

[0134] In some embodiments, the continuous parameter signal can be obtained by setting an amplitude threshold, and when the amplitude of the audio data exceeds the set amplitude threshold, the light remains on. The continuous parameter signal can be determined based on the duration of the amplitude exceeding the threshold, or a fixed lighting time can be set.

[0135] In some embodiments, the amplitude feature can also be used to adjust the brightness level of the light, and a brightness parameter signal is obtained according to the amplitude feature. Specifically, the mapping relationship between the amplitude and the brightness parameter signal is preset so that the larger the amplitude, the brighter the light. In order to avoid the discomfort caused by the sudden change in the brightness of the light, the intermediate parameters of the smooth transition of the brightness can also be set according to the emotional mode. For example, for a gentle and soft melody, when the amplitude gradually increases, the brightness of the light can gradually increase; when the amplitude decreases, the brightness gradually decreases.

[0136] See also Figure 8In some embodiments of the present application, the second luminous duration includes the light flashing time and light duration of the colored light bead 102, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the above-mentioned step S105: controlling the luminous color, the second luminous duration and the second luminous brightness of the colored light bead according to the control signal, and controlling the second compensated luminous duration and the second compensated luminous brightness of the colored light beads in the lamp bead area according to the partition control signal, may also include but are not limited to the following steps S401 to S404.

[0137] Step S401, controlling the second luminous brightness of each colored lamp bead according to the brightness parameter signal, and controlling the second compensated luminous brightness of each colored lamp bead in the corresponding lamp bead area according to the brightness compensation signal.

[0138] In some embodiments, in the music rhythm mode, the second luminous brightness of each colored light bead 102 is controlled according to the brightness parameter signal. Specifically, the brightness parameter signal at different times sets a corresponding color brightness value for each colored light bead 102, so that each colored light bead 102 is controlled to display the second luminous brightness according to the color brightness value.

[0139] In some embodiments, according to the sensor data of the external environment of the eaves lamp or the user settings, the color brightness value of each colored light bead 102 in the middle lamp bead area is higher than the color brightness value of each colored light bead 102 in the left lamp bead area and / or the right lamp bead area. Therefore, the second compensated luminous brightness of each colored light bead in the corresponding lamp bead area is relatively adjusted through the brightness compensation signal of different lamp bead areas, so as to provide brightness compensation for the high lighting demand area in the middle of the eaves, meet the user's lighting needs, and provide user experience.

[0140] Step S402, based on the lamp bead position information, controls the light flashing time of each colored lamp bead according to the flashing parameter signal, and controls the light duration of each colored lamp bead according to the duration parameter signal.

[0141] In some embodiments, due to different positions of the lamp beads, the flashing time points are also different accordingly, so based on the lamp bead position information, the light flashing time of each color light bead 102 is controlled according to the flashing parameter signal, which can create a smooth and dynamic visual effect. And the light duration of each color light bead 102 is controlled according to the continuous parameter signal. It can be understood that the light flashing time and light duration of the same color light bead 102 are at different times.

[0142] Step S403, controlling the second compensation light emitting duration of each colored lamp bead in the corresponding lamp bead area according to the duration compensation signal.

[0143] In some embodiments, the second compensatory luminous duration is used to compensate for the duration of light, that is, when the second compensatory luminous duration is to increase the luminous duration, the duration of light of each colored light bead 102 in the corresponding lamp bead area is extended; when the second compensatory luminous duration is to reduce the luminous duration, the duration of light of each colored light bead 102 in the corresponding lamp bead area is shortened. Specifically, the duration of light of each colored light bead 102 in the middle lamp bead area is greater than the duration of light of each colored light bead 102 in the left lamp bead area and / or the right lamp bead area. Therefore, when the light changes or turns off, it starts to change or turn off from the left light area and the right light area, and gradually changes to the middle light area through the duration compensation signal. This produces a smooth and dynamic light change, and the process is smooth to avoid users feeling abrupt and uncomfortable, thereby effectively improving the user experience.

[0144] Step S404, according to the light flashing time, controlling the luminous color of each colored light bead to switch the color according to the color parameter signal.

[0145] In some embodiments, a specific luminous color is assigned to each colored light bead 102 at different flashing time points. Specifically, each time the colored light bead 102 flashes, it switches to the assigned color, thereby creating a colorful and dynamically changing visual effect. Furthermore, the color temperature of the light of the colored light bead 102 is controlled by the color temperature parameter in the color parameter signal, and the switching order of the luminous color is controlled by the color sequence parameter in the color parameter signal.

[0146] It is understandable that when the eaves lamp is in the music rhythm mode, each white light bead 101 can remain on or all turn off, while the colored light bead 102 will continuously change color and brightness according to the change of music rhythm. Thus, the entire eaves lamp will produce the effect of dancing with the music rhythm, thus giving users a better visual experience.

[0147] It is understandable that in order to meet the needs and preferences of different users, users are supported to adjust parameters such as brightness, flashing mode, duration and color scheme through mobile application software.

[0148] See also Fig. 9 In some embodiments of the present application, the lighting mode also includes a scene atmosphere mode, and the lighting control method of the eaves lamp may also include but is not limited to the following steps S501 to S505.

[0149] Step S501, obtaining color sequence parameters of the colored light beads according to the scene atmosphere mode.

[0150] In some embodiments, the color sequence parameters include the luminous color parameters of each colored light bead 102 at different times, and different scene atmosphere modes correspond to different color sequence parameters. For example, when the scene atmosphere mode is an ocean scene, the corresponding color sequence parameters are mainly blue gradient colors; when the scene atmosphere mode is a forest scene, the corresponding color sequence parameters are mainly green gradient colors, and this embodiment does not limit this.

[0151] It is understandable that in order to meet the needs and preferences of different users, users are supported to customize and save different scene atmosphere modes through mobile application software.

[0152] Step S502: acquiring a color temperature parameter signal and a brightness parameter signal according to the scene atmosphere mode, and acquiring a duration parameter signal according to the color sequence parameter.

[0153] In some embodiments, each parameter corresponds to the luminous color, lighting color temperature, lighting brightness, and lighting time that each colored light bead 102 should present at different time points. For example, in an ocean scene, the luminous color may include a gradient from dark blue to light blue to white to simulate the color changes of waves and the sky; in a forest scene, the lighting color temperature is a warmer tone to create a warm atmosphere; in a snow scene, the lighting brightness is lower to simulate the tranquility of a snowy night, etc.

[0154] In some embodiments, the color sequence parameters are analyzed to determine the time point of each color switching, thereby generating a duration parameter signal. The duration parameter signal can be used to control the timing of the switching between different colors of the colored light beads 102. Exemplarily, in a sea of ​​clouds scene, the duration parameter signal is set to a slower switching speed to simulate the slow movement of the clouds. This ensures that the color switching of each colored light bead 102 matches the rhythm of the selected scene atmosphere mode.

[0155] Step S503, controlling the second light emitting brightness of each colored light bead according to the brightness parameter signal, and controlling the lighting color temperature of each colored light bead according to the color temperature parameter signal.

[0156] In some embodiments, the second light emitting brightness of each colored light bead 102 is controlled according to the brightness parameter signal, and the lighting color temperature of each colored light bead 102 is controlled according to the color temperature parameter signal to achieve a lighting effect matching the selected scene atmosphere mode.

[0157] Step S504, controlling the second lighting duration of each colored light bead according to the duration parameter signal, and controlling the lighting color of each colored light bead to switch colors according to the lighting color parameter.

[0158] In some embodiments, the second lighting duration of each colored light bead 102 is controlled according to the duration parameter signal, and the lighting color of each colored light bead 102 is controlled according to the lighting color parameter to switch the color, thereby creating a dynamic and rich lighting effect to match the selected scene atmosphere mode.

[0159] Step S505, controlling the second compensated luminous brightness of each colored lamp bead in the corresponding lamp bead area according to the brightness compensation signal, and controlling the second compensated luminous duration of each colored lamp bead in the corresponding lamp bead area according to the duration compensation signal.

[0160] The lighting control method of the eaves lamp can achieve precise control of the luminous color, color temperature, brightness and time according to different scene atmosphere modes. It not only improves the personalization and diversification of the lighting effect, but also provides users with an immersive scene experience.

[0161] In some embodiments of the present application, at least one white light bead 101 is arranged between two adjacent colored light bead 102; the lighting control method of the eaves lamp may also include but is not limited to the following steps S601 to S605.

[0162] Step S601, detecting the color states of two adjacent colored light beads at the same time based on the color sequence parameters.

[0163] In some embodiments, the color states of two adjacent colored light beads 102 at the same time can be detected according to the color sequence parameters, and the color states are used to indicate whether the light-emitting colors of the two light beads are the same.

[0164] Step S602 , if the color status indicates that the two colored light beads 102 emit the same color, the color brightness values ​​of the two adjacent colored light beads 102 are obtained according to the brightness parameter signal.

[0165] In some embodiments, if the color state indicates that the luminous colors of the two colored light beads 102 are the same, the color brightness values ​​of the two adjacent colored light beads 102 are obtained according to the brightness parameter signal, and are recorded as L1 and L2 respectively.

[0166] Step S603, calculating the average brightness of the two color brightness values, and adjusting the first light-emitting brightness of the white light bead located between two adjacent colored light beads according to the average brightness.

[0167] In some embodiments, the brightness average value L3 of the two color brightness values ​​is calculated as (L1+L2) / 2, and the first luminous brightness of the white light bead 101 located between two adjacent colored light bead 102 is adjusted according to the calculated brightness average value L3. Specifically, the brightness average value can be used as the first luminous brightness of each white light bead 101, or the color brightness value within the preset range of the brightness average value can be used as the first luminous brightness of each white light bead 101, thereby forming a buffer area for brightness transition, forming a contrast or fusion effect with the adjacent colored light.

[0168] Step S604: if the color status indicates that the luminous colors of the two colored light beads are different, the light duration of the two adjacent colored light beads is obtained according to the duration parameter signal and the luminous color parameter.

[0169] In some embodiments, if the color status indicates that the luminous colors of two colored light beads 102 are different, the light duration of the two adjacent colored light beads 102 is obtained according to the duration parameter signal and the luminous color parameter, and the light duration indicates the length of time each luminous color is lit.

[0170] Step S605, adjusting the first light-emitting duration of the white light bead located between two adjacent colored light beads according to the light duration.

[0171] In some embodiments, the first light duration can control the white light bead 101 to emit dynamically changing white light, thereby generating a dynamic visual effect of color transition between two adjacent colored light beads 102 of different light colors. Exemplarily, the dynamic visual effect may also include but is not limited to gradient, flickering or breathing effects. Thus, the lighting brightness and dynamic effect of the white light bead 101 are intelligently adjusted according to the color state of the adjacent colored light beads 102, thereby creating a richer, more delicate and dynamic lighting atmosphere.

[0172] In some embodiments of the present application, the first light emission duration includes the color temperature gradient time and / or the brightness gradient time; step S605: adjusting the first light emission duration of the white light bead located between two adjacent colored light beads according to the light duration, and may also include but are not limited to the following steps S701 to S703.

[0173] Step S701, determining the light emitting transition parameters of the white light lamp beads according to the light duration.

[0174] In some embodiments, the light emitting transition parameters include brightness transition parameters and / or color temperature transition parameters. Through the light emitting transition parameters, a smooth transition of the white light lamp bead 101 in color temperature and / or brightness can be achieved, thereby enhancing the continuity and aesthetics of the lighting effect.

[0175] Step S702, determining the brightness gradient time and the brightness gradient range of the white light lamp beads according to the brightness transition parameters, and controlling the white light lamp beads to perform periodic brightness gradient according to the brightness gradient range during the brightness gradient time.

[0176] In some embodiments, the brightness gradient time and the brightness gradient range of the white light lamp bead 101 are determined according to the brightness transition parameter. Specifically, within the brightness gradient range, the first luminous brightness of the white light lamp bead 101 gradually changes from the lowest brightness to the highest brightness, and then gradually changes back to the lowest brightness as one cycle, so that the brightness gradient is periodically changed according to the brightness gradient range within the brightness gradient time.

[0177] Step S703, determining the color temperature gradient time and the color temperature gradient range of the white light lamp beads according to the color temperature transition parameters, and controlling the white light lamp beads to perform periodic color temperature gradient according to the color temperature gradient range during the color temperature gradient time.

[0178] In some embodiments, the color temperature gradient time and color temperature gradient range of the white light lamp bead 101 are determined according to the color temperature transition parameter. Specifically, within the color temperature gradient range, the lighting color temperature of the white light lamp bead 101 gradually changes from the lowest color temperature to the highest color temperature, and then gradually changes back to the lowest color temperature as one cycle, so that the color temperature gradient is periodically changed according to the color temperature gradient range within the color temperature gradient time.

[0179] It is understandable that brightness gradient and color temperature gradient can be used alone or in combination to create a richer and more varied lighting effect. Thus, by controlling the brightness gradient time and color temperature gradient time, as well as the corresponding gradient range, a smooth transition and dynamic effect between each white light bead 101 during the lighting process is achieved between each colored light bead 102, effectively enhancing the lighting effect of the eaves lamp.

[0180] Eaves lamps are usually long, and the number of white light beads 101 and colored light beads 102 is large. When a certain lamp bead fails, it usually does not have a significant impact on the overall lighting effect of the eaves lamp. In order to further reduce the impact of the failed lamp bead and ensure the continuity and beauty of the overall lighting effect, refer to Figure 10 As shown, in some embodiments of the present application, the lighting control method of the eave lamp may also include but is not limited to the following steps S801 to S803.

[0181] Step S801, obtaining the original brightness of the faulty lamp bead, and obtaining the adjacent lamp beads of the faulty lamp bead.

[0182] In some embodiments, when a faulty lamp bead is detected in the eaves lamp, the original brightness of the faulty lamp bead is located and obtained, and the adjacent lamp beads of the faulty lamp bead are obtained by location, wherein the adjacent lamp beads are white light lamp beads 101 and / or colored light lamp beads 102.

[0183] Step S802: If the adjacent lamp beads are white light lamp beads, the first light emitting brightness of the white light lamp beads is increased according to the original brightness at a preset ratio to perform brightness compensation.

[0184] In some embodiments, if the adjacent lamp beads are white light lamp beads 101, the first luminous brightness of the white light lamp beads 101 is increased according to the preset ratio based on the original brightness to compensate for the brightness of the faulty lamp beads. It is understandable that the preset ratio value can be determined according to the actual lighting needs and the physical characteristics of the lamp beads, and can be a fixed value or a value dynamically adjusted according to environmental conditions or other factors. By adjusting the brightness output of adjacent lamp beads, the overall lighting effect can be balanced through local brightness enhancement, reducing the visual impact caused by the damage of a single lamp bead.

[0185] Step S803, if the adjacent lamp beads are colored lamp beads, the luminous color and the second luminous brightness of the colored lamp beads are optimized according to the original brightness and a preset algorithm to perform brightness compensation.

[0186] In some embodiments, if the adjacent lamp bead is a colored light bead 102, the brightness of the faulty lamp bead is compensated by optimizing the luminous color and the second luminous brightness of the colored light bead 102 according to the original brightness and the preset algorithm. Specifically, the preset algorithm can be based on machine learning or neural network, and the luminous color and the second luminous brightness of the colored light bead 102 are calculated according to the original brightness and the preset algorithm, and the brightness compensation of the faulty lamp bead is achieved by controlling the driving current of the colored light bead 102 to adjust.

[0187] It is understandable that the light strip status information is displayed to the user, including the total number of lamp beads, the location of the identified damaged lamp beads, the current brightness compensation strategy, etc., allowing the user to manually adjust the compensation parameters or select a preset compensation mode to provide a personalized lighting control experience. In this way, the brightness compensation of the faulty lamp beads in the eaves lamp is realized by identifying the faulty lamp beads, determining the type of adjacent lamp beads, selecting the appropriate brightness compensation strategy and performing the compensation operation. It not only improves the reliability and stability of the eaves lamp, but also ensures the continuity and aesthetics of the overall lighting effect, and realizes a more intelligent, flexible and user-friendly lighting control.

[0188] The LED eaves lamp system and its intelligent control method provided by the embodiment of the present application can control different white light beads to emit white light of different brightness according to the control instruction, and control different colored light beads to emit colored light of different brightness and different colors, so as to realize intelligent dynamic lighting control, meet the diverse needs of users, and improve user experience. Among them, the intelligent control method of the LED eaves lamp system obtains the light-emitting mode of the eaves lamp, and obtains the associated control signal according to the light-emitting mode. Then the eaves information of the eaves where the eaves lamp is located is obtained, and the region is divided according to the eaves information to obtain at least one lamp bead area of ​​the eaves. Thus, the corresponding partition control signal is obtained according to the lamp bead area and the control signal. The first light-emitting duration and the first light-emitting brightness of the white light lamp bead are controlled according to the control signal, and the first compensation light-emitting duration and the first compensation light-emitting brightness of the white light lamp bead in the lamp bead area are controlled according to the partition control signal. And / or, the second light-emitting duration, the second light-emitting brightness and the light-emitting color of the colored light lamp bead are controlled according to the control signal, and the second compensation light-emitting duration and the second compensation light-emitting brightness of the colored light lamp bead in the lamp bead area are controlled according to the partition control signal. Therefore, different lighting modes can be set or provided according to user needs, and the lighting effects of the eaves lights can be intelligently and dynamically controlled according to the lighting modes and each lamp bead area, providing a personalized and diversified lighting environment to meet user needs and effectively improve the user experience.

[0189] It should also be noted that the exemplary embodiments mentioned in this application describe some methods or systems based on a series of steps or devices. However, this application is not limited to the order of the above steps, that is, the steps can be performed in the order mentioned in the embodiment, or in a different order from the embodiment, or several steps can be performed simultaneously.

[0190] The above is only a specific implementation of the present application. Those skilled in the art can clearly understand that for the convenience and simplicity of description, the specific working processes of the systems, modules and units described above can refer to the corresponding processes in the aforementioned method embodiments, and will not be repeated here. It should be understood that the protection scope of the present application is not limited to this. Any technician familiar with the technical field can easily think of various equivalent modifications or replacements within the technical scope disclosed in this application, and these modifications or replacements should be included in the protection scope of this application.

Claims

1. An LED eaves lamp system, characterized in that: The system comprises: power supply; An LED light strip body, the LED light strip body comprising: a strip substrate, and a plurality of white light beads and a plurality of colored light beads arranged on the strip substrate, at least one white light bead is arranged between adjacent colored light beads, the power of the white light bead is less than the power of the colored light bead, and the colored light beads are correspondingly provided with lenses, and the lenses adjust the light emission range of the colored light beads; A controller, one end of which is connected to the power supply, and the other end of which is connected to the LED light strip body, and the controller is provided with a wireless communication module; A first mobile terminal communicates with the wireless communication module and sends a first control instruction to the controller; A second mobile terminal is installed with an APP, and sends a second control instruction to the controller via the APP; Among them, the first mobile terminal or the second mobile terminal controls the white light beads and the colored light beads in the LED light strip body to emit light independently through the controller, thereby generating a light-emitting mode adapted to the scene where the LED eaves lamp is located.

2. The LED eaves lamp system according to claim 1, characterized in that: The first mobile terminal is a remote controller, and the remote controller is provided with buttons arranged in an array, wherein: The first row of buttons includes: turn on the light, turn off the light, increase the brightness and decrease the brightness; The second row of buttons includes: independent white light, blue light, green light and red light; The third row of buttons includes: orange light, light green light, light blue light and timer 1 hour; The fourth row of buttons includes: yellow light, grass green light, purple light and timer 2 hours; The fifth row of buttons includes: faster light flashing, slower light flashing, light mode and sleep mode; The sixth row of buttons includes: music mode 1, music mode 2, music mode 3 and music mode 4.

3. The LED eaves lamp system according to claim 1, characterized in that: The APP of the second mobile terminal is also provided with a music module, which includes several styles of music. Each type of music is preset with a corresponding control signal for controlling the lighting mode of the LED eaves lamp. The control signal includes: luminous brightness, luminous color temperature, luminous duration, flashing frequency, and luminous color of colored lamp beads.

4. The LED eaves lamp system according to any one of claims 1 to 3, characterized in that: The shape of the lens is circular or square.

5. An intelligent control method for an LED eaves lamp system, characterized in that: The LED eaves lamp system is an LED eaves lamp system according to any one of claims 1 to 4, and the intelligent control method comprises: Acquire a lighting mode of the eaves lamp, and acquire an associated control signal according to the lighting mode; Acquire the eaves information of the eaves where the eaves lamp is located, and perform regional division according to the eaves information to obtain at least one lamp bead area of ​​the eaves; wherein the lamp bead area includes at least one white light lamp bead and / or at least one colored light lamp bead; Acquire a corresponding partition control signal according to the lamp bead area and the control signal; Control the first luminous duration and the first luminous brightness of the white light lamp beads according to the control signal, and control the first compensation luminous duration and the first compensation luminous brightness of the white light lamp beads in the lamp bead area according to the partition control signal; And / or, controlling the second light-emitting duration, second light-emitting brightness and light-emitting color of the colored light beads according to the control signal, and controlling the second compensated light-emitting duration and second compensated light-emitting brightness of the colored light beads in the lamp bead area according to the partition control signal.

6. The intelligent control method of the LED eaves lamp system according to claim 5, characterized in that: The control signal includes a duration parameter signal and a brightness parameter signal, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the step of obtaining a corresponding partition control signal according to the lamp bead area and the control signal includes: Obtain the luminous length of each lamp bead area; Adjust the duration parameter signal according to the lamp bead area and the luminous length to obtain a corresponding duration compensation signal; The brightness parameter signal is adjusted according to the lamp bead area and the luminous length to obtain a corresponding brightness compensation signal.

7. The intelligent control method of the LED eaves lamp system according to claim 6, characterized in that: The lighting mode includes a music rhythm mode, and the control signal includes a color parameter signal, a duration parameter signal and a brightness parameter signal; The acquiring of the associated control signal according to the light emitting mode comprises: Acquire audio data corresponding to the music mode according to the music rhythm mode; Extracting features from the audio data to obtain corresponding audio features; wherein the audio features include spectrum features and amplitude features; Performing sentiment analysis on the audio features to determine the sentiment pattern of the audio data, and acquiring the color parameter signal according to the sentiment pattern; The duration parameter signal is acquired according to the frequency spectrum feature and the amplitude feature, and the brightness parameter signal is acquired according to the amplitude feature.

8. The intelligent control method of the LED eaves lamp system according to claim 7, characterized in that: The duration parameter signal includes a flicker parameter signal and a duration parameter signal, the second light duration includes the light flickering time and light duration of the colored light bead, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the light color, the second light duration and the second light brightness of the colored light bead are controlled according to the control signal, and the second compensated light duration and the second compensated light brightness of the colored light bead in the lamp bead area are controlled according to the partition control signal, including: Control the second light emitting brightness of each of the colored light beads according to the brightness parameter signal, and control the second compensated light emitting brightness of each of the colored light beads in the corresponding lamp bead area according to the brightness compensation signal; Based on the lamp bead position information, the light flashing time of each of the colored light lamp beads is controlled according to the flashing parameter signal, and the light duration of each of the colored light lamp beads is controlled according to the duration parameter signal; wherein the light flashing time and the light duration of the same colored light lamp bead are at different times; Control the second compensation lighting duration of each of the colored light beads in the corresponding light bead area according to the duration compensation signal; wherein the second compensation lighting duration is used to compensate for the light duration; According to the light flashing time, the luminous color of each of the colored light beads is controlled to switch colors according to the color parameter signal.

9. The intelligent control method of the LED eaves lamp system according to any one of claims 5 to 8, characterized in that: The lighting mode further includes a scene atmosphere mode, the control signal includes a color temperature parameter signal, a duration parameter signal and a brightness parameter signal, and the partition control signal includes a duration compensation signal and a brightness compensation signal; the method further includes: Acquire the color sequence parameters of the colored light beads according to the scene atmosphere mode; wherein the color sequence parameters include the luminous color parameters of each of the colored light beads at different times, and different scene atmosphere modes correspond to different color sequence parameters; Acquire the color temperature parameter signal and the brightness parameter signal according to the scene atmosphere mode, and acquire the duration parameter signal according to the color sequence parameter; Controlling the second light emitting brightness of each of the colored light beads according to the brightness parameter signal, and controlling the lighting color temperature of each of the colored light beads according to the color temperature parameter signal; Controlling the second light-emitting duration of each of the colored light beads according to the duration parameter signal, and controlling the light-emitting color of each of the colored light beads to switch colors according to the light-emitting color parameter; The second compensated luminous brightness of each of the colored lamp beads in the corresponding lamp bead area is controlled according to the brightness compensation signal, and the second compensated luminous duration of each of the colored lamp beads in the corresponding lamp bead area is controlled according to the duration compensation signal.

10. The intelligent control method of the LED eaves lamp system according to claim 9, characterized in that: At least one white light bead is arranged between two adjacent colored light beads, the first light emission duration includes a color temperature gradient time and / or a brightness gradient time; the method further includes: Detecting the color states of two adjacent colored light beads at the same time based on the color sequence parameters; If the color state indicates that the two colored light beads emit different colors, the light duration of the two adjacent colored light beads is obtained according to the duration parameter signal and the luminous color parameter; Determining the light emitting transition parameters of the white light lamp beads according to the light duration; wherein the light emitting transition parameters include brightness transition parameters and / or color temperature transition parameters; Determine the brightness gradient time and the brightness gradient range of the white light lamp beads according to the brightness transition parameters, and control the white light lamp beads to perform periodic brightness gradient according to the brightness gradient range at the brightness gradient time; The color temperature gradient time and the color temperature gradient range of the white light lamp bead are determined according to the color temperature transition parameter, and the white light lamp bead is controlled to perform periodic color temperature gradient according to the color temperature gradient range within the color temperature gradient time.

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