An integrated LED lamp based on air purification and intelligent audio

Abstract

The present invention discloses an integrated LED lamp based on air purification and intelligent audio, comprising a temperature sensor, a ventilator, an LED lampshade, a first slide groove, a first slider, an LED lamp holder, an air guide hole, an LED lamp tube, an anti-slip strip, a first telescopic spring, a first movable rod, a Bluetooth LED driver, a speaker, a photosensor, a dust sensor, a micro-electrostatic air purifier, a gas sensor, a slot, a card plate, a second movable rod, a block, a second slide groove, a second slider and a second telescopic spring. The present invention filters and purifies heavily polluted air by a micro-electrostatic air purifier, and circulates the filtered and purified air to the LED lamp tube for air cooling and heat dissipation, and then guides the air to a side area opposite to the LED lamp tube, so that the air outlet is staggered with the illumination area. While ensuring sufficient filtering and purification of the air and the heat dissipation effect of the LED lamp tube, the comfort of use can also be improved based on the windless air outlet structure of the human body.

Description

Technical Field

[0001] The present invention relates to the technical field of LED lamps, and in particular to an integrated LED lamp based on air purification and intelligent audio. Background Art

[0002] LED lamps are an electroluminescent semiconductor material chip, which is first cured to the bracket with silver glue or white glue, and then connected to the circuit board with silver wire or gold wire, and sealed with epoxy resin all around to protect the internal core wire and ensure the overall use effect.

[0003] However, most of the existing LED lamps combine lighting with smart speakers, and do not have windless and circulating heat dissipation air purification functions. It is difficult to ensure the stability of the overall installation and the convenience of the overall installation and disassembly process, and it is inconvenient to replace and clean the components one by one.

[0004] It is also difficult to analyze the data based on the temperature conditions, concentration of harmful particles and concentration of harmful gases in the environment, and make targeted improvements and optimizations to the air quality in the environment. It is also difficult to analyze the data based on temperature changes and light differences, and provide reasonable lighting conditions to achieve intelligent energy-saving and consumption-reduction effects.

[0005] In order to solve the above defects, a technical solution is now provided. Summary of the invention

[0006] The purpose of the present invention is to provide an integrated LED lamp based on air purification and intelligent audio. The present invention is based on the synchronous double clamping effect. While ensuring the stability of the overall installation and mounting, it can also make the installation and disassembly process more convenient and quick, so as to improve the overall practicality. The overall installation and disassembly process does not require complicated parts to be tightened and disassembled. It is only through a pure mechanical transmission method, so that the installation and disassembly process is more convenient and quick, so that the parts therein can be replaced and cleaned one by one; and the heavily polluted air is filtered and purified by a micro-electrostatic air purifier, and the filtered and purified air is circulated and air-cooled to the LED lamp tube for heat dissipation, and then it is exported to the side area opposite to the LED lamp tube, so that the air outlet is staggered with the illumination area. While ensuring the filtering and purification effect of the air and the heat dissipation effect of the LED lamp tube, it can also improve the comfort of use according to the windless air outlet structure of the human body;

[0007] The present invention combines the temperature conditions, the concentration of harmful particles and the concentration of harmful gases in the environment, and processes them through assigned weights and hierarchical comparison to obtain signals of various filtration and purification levels, so as to make targeted improvements and optimizations on the air quality conditions in the environment, thereby achieving intelligent energy-saving and consumption-reducing effects; and also combines the temperature change conditions with the light difference conditions, and obtains various light signals through iterative correction formula analysis and hierarchical comparison, so as to provide reasonable lighting conditions, thereby achieving intelligent energy-saving and consumption-reducing effects, thereby combining LED lamps with smart audio and air purification to achieve convenient, intelligent and consumption-reducing use effects.

[0008] The technical problems to be solved by the present invention are as follows:

[0009] (1) How to solve the problem that most existing LED lamps combine lighting with smart speakers, do not have windless and circulating heat dissipation air purification functions, are difficult to ensure the stability of the overall installation and the convenience of the overall installation and disassembly process, and are inconvenient to replace and clean the components one by one in an effective way?

[0010] (2) How to solve the existing problem that it is difficult to analyze the data based on the temperature conditions, concentration of harmful particles and concentration of harmful gases in the environment, and make targeted improvements and optimizations to the air quality conditions in the environment accordingly; at the same time, it is also difficult to analyze the data based on the temperature change conditions and light difference conditions, and provide reasonable lighting conditions accordingly to achieve intelligent energy saving and consumption reduction effects.

[0011] The purpose of the present invention can be achieved through the following technical solutions:

[0012] An integrated LED lamp based on air purification and intelligent audio, comprising a temperature sensor, a ducting fan, an LED lampshade, a first slide groove, a first slider, an LED lamp holder, an air guide hole, an LED lamp tube, an anti-slip strip, a first telescopic spring, a first movable rod, a Bluetooth LED driver, a speaker, a photosensitive sensor, a dust sensor, a micro-electrostatic air purifier, a gas sensor, a slot, a card plate, a second movable rod, a block, a second slide groove, a second slider and a second telescopic spring, wherein the LED lampshade is fixed to the outer edge of the bottom of the LED lamp holder by bolts, and the temperature sensor and the photosensitive sensor are fixed to the two sides of the LED lampshade by bolts respectively, and a speaker is embedded in the bottom of the LED lampshade near the photosensitive sensor.

[0013] An LED lamp tube is arranged at the bottom center of the LED lamp holder, a Bluetooth LED driver is embedded on the top side of the LED lamp holder close to the photosensor, a duct fan is embedded on the top side of the LED lamp holder close to the temperature sensor, and one side of the duct fan is located in the space formed by the LED lamp cover and the LED lamp holder;

[0014] A first slide groove is provided at the top center of the LED lamp holder, and air guide holes are evenly provided on the bottom inner wall of the first slide groove, a first slider is correspondingly installed inside the first slide groove, a first telescopic spring is fixed between one side of the first slider and the inner wall corresponding to the first slide groove by spot welding, and anti-slip strips are fixed to the adjacent sides of the two first sliders by bonding, and a micro-electrostatic air purifier is arranged between the two anti-slip strips, a dust sensor and a gas sensor are respectively embedded in the top of the micro-electrostatic air purifier, card slots are correspondingly provided on both sides of the micro-electrostatic air purifier, and one end of the card plate is embedded in the card slot, and a block is fixed to the other end of the card plate by bolts, a second slide groove is provided at the bottom center of the card plate, and a second slider is installed inside the second slide groove, second telescopic springs are fixed between both sides of the second slider and the inner walls of both sides of the second slide groove by spot welding, a second movable rod is arranged between the first slider and the second slider, and a first movable rod is arranged between the second movable rod and the LED lamp holder, the guide fan, LED lamp tube, Bluetooth LED driver, speaker and micro-electrostatic air purifier are all electrically connected to an external power supply.

[0015] Furthermore, the contact points between the LED lampshade and the LED lamp holder, the guide fan and the LED lampshade, and the LED lampshade and the speaker are all filled with sealing gaskets, and the air exported by the micro-electrostatic air purifier is blown onto the LED lamp tube through the air guide holes, and passes into the space formed by the LED lampshade and the LED lamp holder, and is exported by the guide fan to the side area opposite to the LED lamp tube, and then the heavily polluted air is filtered and purified by the micro-electrostatic air purifier, and the filtered and purified air is circulated to the LED lamp tube for air cooling and heat dissipation, and then exported to the side area opposite to the LED lamp tube, so that the air outlet is staggered with the illumination area. While ensuring the air filtering and purification effect and the heat dissipation effect of the LED lamp tube, the comfort of use can also be improved based on the windless air outlet structure of the human body.

[0016] Furthermore, one side of the micro-electrostatic air purifier is in contact with the center of the bottom inner wall of the first slide groove, the air guide holes are distributed vertically, and the top ends of the air guide holes correspond to the micro-electrostatic air purifier, and the bottom ends of the air guide holes correspond to the LED lamp tubes, so that the air filtered and purified by the micro-electrostatic air purifier can be completely transmitted through the air guide holes and fully blown into the LED lamp tubes.

[0017] Furthermore, the card slot is located on the side where the anti-slip strip contacts the micro-electrostatic air purifier, and the two card slots are on the same horizontal plane. The size of the card slot is the same as the size of the card plate, and the two are mutually cooperative structures, so that the force on both sides of the micro-electrostatic air purifier is more uniform, and the tightness of the synchronous clip is improved.

[0018] Furthermore, the micro-electrostatic air purifier includes a data acquisition module, a data analysis module, a controller, a signal generation module, a signal execution module and an information collection module;

[0019] The data acquisition module is used to collect the LED lampshade temperature data obtained by the temperature sensor, the harmful particle concentration data obtained by the dust sensor and the harmful gas concentration data obtained by the gas sensor in the environment in real time, and transmit them together to the data analysis module;

[0020] The data analysis module then performs a filtering and purification level analysis operation on the data to obtain a real-time pollution level coefficient R in the environment, and transmits it to the signal generation module via the controller;

[0021] The signal generation module compares the pollution level coefficient R received in real time in the environment with the preset range r. When it is greater than the maximum value of the preset range r, within the preset range r, and less than the minimum value of the preset range r, it generates a high filtration purification level signal, a normal filtration purification level signal, and a low filtration purification level signal, and transmits them to the signal execution module.

[0022] After receiving the high filtration purification level signal, the ordinary filtration purification level signal and the low filtration purification level signal in real time, the signal execution module controls the micro-electrostatic air purifier to turn on to the corresponding work efficiency level, and controls the speaker to broadcast the text voice of "high pollution level", "ordinary pollution level" and "low pollution level", and then combines the temperature conditions, the concentration of harmful particles and the concentration of harmful gases in the environment, and performs valued weight processing and hierarchical comparison to obtain the filtration purification level signals, so as to make targeted improvements and optimizations on the air quality conditions in the environment, and achieve intelligent energy saving and consumption reduction effects;

[0023] The information collection module is used to collect temperature variation information and light difference information in the environment in real time, and transmit them to the data analysis module;

[0024] The data analysis module then performs brightness adjustment analysis operations on the data to obtain the real-time illumination coefficient H in the environment, and transmits it to the signal generation module via the controller;

[0025] The signal generation module compares the illumination coefficient H received in real time in the environment with the preset range h. When it is greater than the maximum value of the preset range h, within the preset range h, and less than the minimum value of the preset range h, it generates a primary illumination signal, a secondary illumination signal, and a tertiary illumination signal respectively, and transmits them to the signal execution module;

[0026] After receiving the primary light signal, the secondary light signal and the tertiary light signal in real time, the signal execution module controls the LED lamp to turn on to the corresponding light level, and controls the speaker to broadcast the text voice of "high light brightness", "normal light brightness" and "low light brightness", and then combines the temperature change condition with the light difference condition, and obtains each light signal through iterative correction formula analysis and hierarchical comparison, so as to provide reasonable lighting conditions and achieve intelligent energy saving and consumption reduction effects.

[0027] Furthermore, the specific steps of the filtering and purification level analysis operation are as follows:

[0028] Step 1: Obtain the LED lampshade temperature data, harmful particle concentration data and harmful gas concentration data in the environment in real time, and calibrate them as Q, W and E respectively;

[0029] Step 2: assigning the LED lampshade temperature data Q in the environment to the super-temperature level, the medium-temperature level and the low-temperature level. When it corresponds to the super-temperature level, the LED lampshade temperature data Q is calibrated as a positive value q1. When it corresponds to the medium-temperature level, the LED lampshade temperature data Q is calibrated as a positive value q2. When it corresponds to the low-temperature level, the LED lampshade temperature data Q is calibrated as a positive value q3, and q1 is greater than q2 and greater than q3.

[0030] The harmful particle concentration data W in the environment is assigned high particle size, standard particle size and low particle size. When it corresponds to high particle size, the harmful particle concentration data W is calibrated as a positive value w1. When it corresponds to standard particle size, the harmful particle concentration data W is calibrated as a positive value w2. When it corresponds to low particle size, the harmful particle concentration data W is calibrated as a positive value w3, and w1 is greater than w2 and greater than w3.

[0031] The harmful gas concentration data E in the environment is assigned to the top gas volume, the appropriate gas volume and the low gas volume. When it corresponds to the top gas volume, the harmful gas concentration data E is calibrated as a positive value e1. When it corresponds to the appropriate gas volume, the harmful gas concentration data E is calibrated as a positive value e2. When it corresponds to the low gas volume, the harmful gas concentration data E is calibrated as a positive value e3, and e1 is greater than e2 and greater than e3.

[0032] Step 3: Assign weight coefficients a, s and d to the LED lampshade temperature data Q, harmful particle concentration data W and harmful gas concentration data E in the environment in turn, d is greater than s is greater than a and a+s+d=3.5821, and then according to the formula R=Q*a+W*s+E*d, the real-time pollution level coefficient R in the environment is obtained.

[0033] Furthermore, the super-temperature level, medium-temperature level and low-temperature level correspond to above 50.73 degrees, 28.51 degrees to 50.73 degrees and including 28.51 degrees, 50.73 degrees and below 28.51 degrees respectively; the high particle size, standard particle size and low particle size correspond to above 0.15 mg / cubic meter, 0.05 mg / cubic meter to 0.15 mg / cubic meter and including 0.05 mg / cubic meter, 0.15 mg / cubic meter and below 0.05 mg / cubic meter respectively; the top gas volume, appropriate gas volume and low gas volume correspond to above 0.12 mg / cubic meter, 0.04 mg / cubic meter to 0.12 mg / cubic meter and including 0.04 mg / cubic meter, 0.12 mg / cubic meter and below 0.04 mg / cubic meter respectively.

[0034] Furthermore, the temperature variation information is composed of external environment temperature data and LED lampshade temperature data, and the illumination difference information is composed of external environment illumination data and illumination data in the environment, and the above data can be obtained based on sensors, monitors, etc.

[0035] Furthermore, the specific steps of the brightness adjustment analysis operation are as follows:

[0036] Step 1: Real-time acquisition of temperature variation information and illumination difference information in the environment, and calibration of them as T and Y respectively, and calibration of external environment temperature data and LED lampshade temperature data corresponding to the temperature variation information T in the environment as U and P respectively, and calibration of external environment illumination data and illumination data in the environment corresponding to the illumination difference information in the environment as F and G respectively;

[0037] Step 2: First, according to the formula Get the real-time temperature change information T in the environment, p and u are both temperature correction factors, p is greater than u and p+u=2.6582, and then according to the formula The real-time illumination difference information Y in the environment is obtained. f and g are both illumination correction factors. f is greater than g and f+g=3.2148. Finally, according to the formula Obtain the real-time illumination coefficient H in the environment.

[0038] Beneficial effects of the present invention:

[0039] 1. The present invention pulls the block backward, the block drives the card plate to move backward, and the second telescopic spring is elastically deformed, and then the bottom end of the second movable rod is pushed backward, the second movable rod drives the first slider to slide backward, and the first telescopic spring is elastically deformed, and the micro-electrostatic air purifier is placed at the air guide hole on the first slide slot, and the second movable rod and the block are released at this time, and the first slider is driven to slide forward according to the restoring force of the first telescopic spring, and the bottom end of the micro-electrostatic air purifier is pressed against each other through the anti-slip strip on one side of the first slider, and the card plate is driven to slide forward according to the restoring force of the second telescopic spring, and one end of the card plate is inserted into the card slot on the micro-electrostatic air purifier to press against the two side parts of the card plate and the micro-electrostatic air purifier, so as to complete the overall installation process, and the disassembly process can also be similar to the above operation, and then the overall installation and disassembly process does not require complicated parts to be tightened and disassembled, and only through a purely mechanical transmission method, so that the installation and disassembly process is more convenient and quick, so that the parts therein can be replaced and cleaned one by one;

[0040] When the first slider is offset or moves backward, causing the bottom end of the micro-electrostatic air purifier to become loose, the first slider will be driven by the turning point of the first slider to move the top end of the second slider forward, and the second slider will drive the second slider forward to elastically deform, and according to the restoring force of the second telescopic spring, the card plate and the card slot on the micro-electrostatic air purifier will be further pressed against each other to enhance the clamping effect on the two side parts thereof, and the situation when the card plate is offset or moves backward is similar to the above, and then according to the synchronous double clamping effect, while ensuring the stability of the overall installation and mounting, the installation and disassembly process can also be made more convenient and quick, so as to enhance the overall practicality;

[0041] The heavily polluted air is filtered and purified by the micro-electrostatic air purifier, and the filtered and purified air is circulated to the LED lamp for air cooling and heat dissipation, and then exported to the area on the side opposite to the LED lamp, so that the air outlet is staggered with the lighting area. While ensuring the air filtering and purification effect and the heat dissipation effect of the LED lamp, the air outlet structure can also improve the comfort of use based on the windless feeling of the human body.

[0042] 2. The present invention collects the LED lampshade temperature data obtained by the temperature sensor, the harmful particle concentration data obtained by the dust sensor and the harmful gas concentration data obtained by the gas sensor in real time, and performs filtering and purification level analysis operations on them accordingly, that is, the LED lampshade temperature data, the harmful particle concentration data and the harmful gas concentration data in the environment are calibrated, assigned and weighted by formulas to obtain the real-time pollution level coefficient R in the environment, and compares it with the preset range r by levels to obtain each filtering and purification level signal;

[0043] And according to the signal of each filtration and purification level, the micro-electrostatic air purifier is controlled to open to the corresponding working efficiency level, and the speaker is controlled to broadcast the text voice of "high pollution level", "normal pollution level" and "low pollution level", and then the temperature conditions, concentration of harmful particles and concentration of harmful gases in the environment are combined, and the weights are assigned and compared with the levels to obtain the signals of each filtration and purification level, so as to make targeted improvements and optimizations on the air quality conditions in the environment, and achieve intelligent energy saving and consumption reduction effects;

[0044] At the same time, the temperature change information and the light difference information in the environment are collected in real time, and the temperature change information is composed of the external environment temperature data and the LED lampshade temperature data, and the light difference information is composed of the external environment light data and the light data in the environment, and the brightness adjustment analysis operation is performed accordingly, that is, the temperature change information and the light difference information in the environment are first calibrated as a whole, and then the external environment temperature data and the LED lampshade temperature data, as well as the external environment light data and the light data in the environment are calibrated and analyzed by double correction formula to obtain the real-time light coefficient H in the environment, and compare it with the preset range h by level to obtain each light signal;

[0045] And according to each light signal, the LED lamp is controlled to turn on to the corresponding light level, and the speaker is controlled to broadcast the text voice of "high brightness", "normal brightness" and "low brightness", and then the temperature change condition is combined with the light difference condition, and each light signal is obtained through iterative correction formula analysis and hierarchical comparison, so as to provide reasonable lighting conditions and achieve intelligent energy saving and consumption reduction effects, thereby combining LED lamps with smart speakers and air purification to achieve convenient, intelligent and consumption-reducing use effects. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] In order to facilitate understanding by those skilled in the art, the present invention is further described below in conjunction with the accompanying drawings;

[0047] Figure 1 It is an overall front cross-sectional view of the present invention;

[0048] Figure 2 For the present invention Figure 1 A schematic diagram of the enlarged structure of region A;

[0049] Figure 3 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0050] like Figure 1-3 As shown, an integrated LED lamp based on air purification and intelligent audio includes a temperature sensor 1, a ducting fan 2, an LED lampshade 3, a first slide groove 4, a first slider 5, an LED lamp holder 6, an air guide hole 7, an LED lamp tube 8, an anti-slip strip 9, a first telescopic spring 10, a first movable rod 11, a Bluetooth LED driver 12, a speaker 13, a photosensor 14, a dust sensor 15, a micro-electrostatic air purifier 16, a gas sensor 17, a slot 18, a card plate 19, a second movable rod 20, a block 21, a second slide groove 22, a second slider 23 and a second telescopic spring 24. The LED lampshade 3 is fixed to the outer edge of the bottom of the LED lamp holder 6 by bolts, and the temperature sensor 1 and the photosensor 14 are fixed to the two sides of the LED lampshade 3 by bolts respectively, and a speaker 13 is embedded on the side of the bottom of the LED lampshade 3 close to the photosensor 14;

[0051] An LED lamp tube 8 is arranged at the bottom center of the LED lamp holder 6, and a Bluetooth LED driver 12 is embedded on the top side of the LED lamp holder 6 close to the photosensitive sensor 14, and a ducting fan 2 is embedded on the top side of the LED lamp holder 6 close to the temperature sensor 1, and one side of the ducting fan 2 is located in the space formed by the LED lamp cover 3 and the LED lamp holder 6;

[0052] A first slide groove 4 is provided at the top center of the LED lamp holder 6, and air guide holes 7 are evenly provided on the bottom inner wall of the first slide groove 4, and a first slider 5 is installed inside the first slide groove 4, and a first telescopic spring 10 is fixed between one side of the first slider 5 and the inner wall corresponding to the first slide groove 4 by spot welding, and anti-slip strips 9 are fixed to the adjacent sides of the two first sliders 5 by bonding, and a micro-electrostatic air purifier 16 is arranged between the two anti-slip strips 9, one side of the micro-electrostatic air purifier 16 is in contact with the center of the bottom inner wall of the first slide groove 4, the air guide holes 7 are vertically distributed, and the top ends of the air guide holes 7 correspond to the micro-electrostatic air purifier 16, and the bottom ends of the air guide holes 7 correspond to the LED lamp tube 8, so that the air filtered and purified by the micro-electrostatic air purifier 16 can be completely transmitted through the air guide holes 7 and fully blown into the LED lamp tube 8, and the dust sensor 15 and the gas sensor 17 are respectively embedded in the top of the micro-electrostatic air purifier 16, and the two sides of the micro-electrostatic air purifier 16 A corresponding card slot 18 is opened, and one end of the card plate 19 is embedded in the card slot 18. The card slot 18 is located on the side where the anti-slip strip 9 contacts the micro-electrostatic air purifier 16, and the two card slots 18 are on the same horizontal plane. The size of the card slot 18 is the same as that of the card plate 19, and the two are mutually matched structures, so that the force on both sides of the micro-electrostatic air purifier 16 is more uniform, and the tightness of the synchronous clamp is improved, and the other end of the card plate 19 is fixed with a stopper 21 by bolts, and a first card slot 21 is opened at the bottom center of the card plate 19. A second slide groove 22 is provided, and a second slider 23 is installed inside the second slide groove 22. Second telescopic springs 24 are fixed between the two sides of the second slider 23 and the inner walls of the two sides of the second slide groove 22 by spot welding. A second movable rod 20 is provided between the first slider 5 and the second slider 23, and a first movable rod 11 is provided between the second movable rod 20 and the LED lamp holder 6. The duct fan 2, the LED lamp tube 8, the Bluetooth LED driver 12, the speaker 13 and the micro-electrostatic air purifier 16 are all electrically connected to the external power supply.

[0053] The contact points between the LED lampshade 3 and the LED lamp holder 6, the guide fan 2 and the LED lampshade 3, and the LED lampshade 3 and the speaker 13 are all filled with sealing gaskets, and the air derived from the micro-electrostatic air purifier 16 is blown onto the LED lamp tube 8 through the air guide hole 7, and is passed into the space formed by the LED lampshade 3 and the LED lamp holder 6, and is derived by the guide fan 2 to the side area opposite to the LED lamp tube 8, and then the heavily polluted air is filtered and purified by the micro-electrostatic air purifier 16, and the filtered and purified air is circulated to the LED lamp tube 8 for air cooling and heat dissipation, and then derived to the side area opposite to the LED lamp tube 8, so that the air outlet is staggered with the illumination area, while ensuring the filtering and purification effect of the air and the heat dissipation effect of the LED lamp tube 8, the comfort of use can also be improved according to the windless air outlet structure of the human body;

[0054] Among them, the micro-electrostatic air purifier 16 includes a data acquisition module, a data analysis module, a controller, a signal generation module, a signal execution module and an information collection module;

[0055] The data acquisition module is used to collect the temperature data of the LED lampshade 3 obtained by the temperature sensor 1, the concentration data of harmful particles obtained by the dust sensor 15 and the concentration data of harmful gases obtained by the gas sensor 17 in the environment in real time, and transmit them together to the data analysis module;

[0056] The data analysis module then performs filtering and purification level analysis operations on it. The specific steps are as follows:

[0057] Step 1: Acquire the temperature data of the LED lampshade 3, the concentration data of harmful particles and the concentration data of harmful gases in the environment in real time, and calibrate them as Q, W and E respectively;

[0058] Step 2: assign the temperature data Q of the LED lampshade 3 in the environment to the super-temperature level, the medium-temperature level and the low-temperature level. When it corresponds to the super-temperature level, the temperature data Q of the LED lampshade 3 is calibrated as a positive value q1. When it corresponds to the medium-temperature level, the temperature data Q of the LED lampshade 3 is calibrated as a positive value q2. When it corresponds to the low-temperature level, the temperature data Q of the LED lampshade 3 is calibrated as a positive value q3, and q1 is greater than q2 and greater than q3.

[0059] The harmful particle concentration data W in the environment is assigned high particle size, standard particle size and low particle size. When it corresponds to high particle size, the harmful particle concentration data W is calibrated as a positive value w1. When it corresponds to standard particle size, the harmful particle concentration data W is calibrated as a positive value w2. When it corresponds to low particle size, the harmful particle concentration data W is calibrated as a positive value w3, and w1 is greater than w2 and greater than w3.

[0060] The harmful gas concentration data E in the environment is assigned to the top gas volume, the appropriate gas volume and the low gas volume. When it corresponds to the top gas volume, the harmful gas concentration data E is calibrated as a positive value e1. When it corresponds to the appropriate gas volume, the harmful gas concentration data E is calibrated as a positive value e2. When it corresponds to the low gas volume, the harmful gas concentration data E is calibrated as a positive value e3, and e1 is greater than e2 and greater than e3.

[0061] Step 3: The temperature data Q of the LED lampshade 3, the concentration data W of harmful particles and the concentration data E of harmful gases in the environment are assigned weight coefficients a, s and d in sequence, d is greater than s and greater than a, and a+s+d=3.5821, and then the real-time pollution level coefficient R in the environment is obtained according to the formula R=Q*a+W*s+E*d;

[0062] And the super-temperature level, medium-temperature level and low-temperature level correspond to above 50.73 degrees, 28.51 degrees to 50.73 degrees (including 28.51 degrees), 50.73 degrees and below 28.51 degrees respectively; high particle size, standard particle size and low particle size correspond to above 0.15 mg / m3, 0.05 mg / m3 to 0.15 mg / m3 (including 0.05 mg / m3), 0.15 mg / m3 and below 0.05 mg / m3 respectively; top gas volume, appropriate gas volume and low gas volume correspond to above 0.12 mg / m3, 0.04 mg / m3 to 0.12 mg / m3 (including 0.04 mg / m3), 0.12 mg / m3 and below 0.04 mg / m3 respectively;

[0063] To obtain the real-time pollution level coefficient R in the environment, and transmit it to the signal generation module through the controller;

[0064] The signal generation module compares the pollution level coefficient R received in real time in the environment with the preset range r. When it is greater than the maximum value of the preset range r, within the preset range r, and less than the minimum value of the preset range r, it generates a high filtration purification level signal, a normal filtration purification level signal, and a low filtration purification level signal, and transmits them to the signal execution module.

[0065] After receiving the high filtration purification level signal, the ordinary filtration purification level signal and the low filtration purification level signal in real time, the signal execution module controls the micro-electrostatic air purifier 16 to open to the corresponding work efficiency level, and controls the speaker 13 to broadcast the text voice of "high pollution level", "ordinary pollution level" and "low pollution level", and then combines the temperature conditions, the concentration of harmful particles and the concentration of harmful gases in the environment, and performs valued weight processing and hierarchical comparison to obtain the filtration purification level signals, so as to make targeted improvements and optimizations on the air quality conditions in the environment, and achieve intelligent energy saving and consumption reduction effects;

[0066] The information collection module is used to collect the temperature variation information and the light difference information in the environment in real time, and transmit them to the data analysis module together. The temperature variation information is composed of the external environment temperature data and the LED lampshade 3 temperature data, and the light difference information is composed of the external environment light data and the light data in the environment. The above data can be obtained based on sensors, monitors, etc.

[0067] The data analysis module then performs brightness adjustment analysis operations based on the data. The specific steps are as follows:

[0068] Step 1: Real-time acquisition of temperature variation information and illumination difference information in the environment, and mark them as T and Y respectively, and mark the external environment temperature data and LED lampshade 3 temperature data corresponding to the temperature variation information T in the environment as U and P respectively, and mark the external environment illumination data and the illumination data in the environment corresponding to the illumination difference information in the environment as F and G respectively;

[0069] Step 2: First, according to the formula Get the real-time temperature change information T in the environment, p and u are both temperature correction factors, p is greater than u and p+u=2.6582, and then according to the formula The real-time illumination difference information Y in the environment is obtained. f and g are both illumination correction factors. f is greater than g and f+g=3.2148. Finally, according to the formula Obtain the real-time illumination coefficient H in the environment;

[0070] To obtain the real-time illumination coefficient H in the environment, and transmit it to the signal generation module through the controller;

[0071] The signal generation module compares the illumination coefficient H received in real time in the environment with the preset range h. When it is greater than the maximum value of the preset range h, within the preset range h, and less than the minimum value of the preset range h, it generates a primary illumination signal, a secondary illumination signal, and a tertiary illumination signal respectively, and transmits them to the signal execution module.

[0072] After receiving the primary light signal, the secondary light signal and the tertiary light signal in real time, the signal execution module controls the LED lamp 8 to turn on to the corresponding light level, and controls the speaker 13 to broadcast the text voice of "high light brightness", "normal light brightness" and "low light brightness", and then combines the temperature change condition with the light difference condition, and obtains each light signal through iterative correction formula analysis and hierarchical comparison, so as to provide reasonable lighting conditions and achieve intelligent energy saving and consumption reduction effects.

[0073] Working principle:

[0074] First, pull the block 21 backward, the block 21 drives the card plate 19 to move backward, and the second telescopic spring 24 is elastically deformed, and then push the bottom end of the second movable rod 20 backward, the second movable rod 20 drives the first slider 5 to slide backward, and the first telescopic spring 10 is elastically deformed, and the micro-static air purifier 16 is placed at the air guide hole 7 on the first slide groove 4. At this time, release the second movable rod 20 and the block 21, and according to the restoring force of the first telescopic spring 10, drive the first slider 5 to slide forward, and the micro-static air purifier is placed on the anti-slip strip 9 on one side of the first slider 5. The bottom end of the micro-electrostatic air purifier 16 is pressed against each other, and according to the restoring force of the second telescopic spring 24, the card plate 19 is driven to slide forward, and one end of the card plate 19 is inserted into the card slot 18 on the micro-electrostatic air purifier 16, so as to press the card plate 19 against the two side parts of the micro-electrostatic air purifier 16, and the overall installation process is completed, and the disassembly process can be similarly operated as above, and then the overall installation and disassembly process does not require complicated parts to be tightened and disassembled, and only through a purely mechanical transmission method, so that the installation and disassembly process is more convenient and quick, so that the parts therein can be replaced and cleaned one by one;

[0075] When it is impacted by external force, the supporting effect of the first movable rod 11 can make the whole body have a triangular stable structure, and the overall stability can be ensured according to the common restoring force of the first telescopic spring 10 and the second telescopic spring 24. When the first slider 5 deviates and moves backward, causing the bottom part of the micro-electrostatic air purifier 16 to become loose, the first slider 5 will be driven by the turning point of the first movable rod 11 to drive the top of the second movable rod 20 to move forward, and the second movable rod 20 drives the second slider 23 to move forward, and the second slider 23 drives the second telescopic spring 24 to undergo elastic deformation, and according to the restoring force of the second telescopic spring 24, the card plate 19 is driven to further press against the card slot 18 on the micro-electrostatic air purifier 16 to enhance the clamping effect on its two side parts, and the situation when the card plate 19 deviates and moves backward is similar to the above, and then according to the synchronous double clamping effect, while ensuring the stability of the overall installation and mounting, the installation and disassembly process can also be made more convenient and quick, so as to enhance the overall practicality;

[0076] The heavily polluted air is filtered and purified by the micro-electrostatic air purifier 16, and the filtered and purified air is circulated to the LED lamp tube 8 for air cooling and heat dissipation, and then the air is guided to the side area opposite to the LED lamp tube 8, so that the air outlet is staggered with the illumination area, while ensuring the air filtering and purification effect and the heat dissipation effect of the LED lamp tube 8, the comfort of use can also be improved according to the windless air outlet structure of the human body;

[0077] The data acquisition module collects the temperature data of the LED lampshade 3 obtained by the temperature sensor 1, the concentration data of harmful particles obtained by the dust sensor 15, and the concentration data of harmful gases obtained by the gas sensor 17 in real time, and transmits them to the data analysis module together;

[0078] The data analysis module performs filtering and purification level analysis operations accordingly, that is, the temperature data of the LED lampshade 3, the concentration data of harmful particles and the concentration data of harmful gases in the environment are calibrated, assigned values ​​and weighted by formulas to obtain the real-time pollution level coefficient R in the environment, and transmit it to the signal generation module through the controller;

[0079] The signal generation module compares it with the preset range r in a hierarchical manner, obtains the signals of each filtering and purification level, and transmits them to the signal execution module;

[0080] The signal execution module immediately controls the micro-electrostatic air purifier 16 to open to the corresponding work efficiency level according to the real-time received signals of each filtration and purification level, and controls the speaker 13 to broadcast the text voice of "high pollution level", "normal pollution level" and "low pollution level", and then combines the temperature conditions, concentration of harmful particles and concentration of harmful gases in the environment, and obtains the signals of each filtration and purification level through assigned weight processing and hierarchical comparison, so as to make targeted improvements and optimizations on the air quality conditions in the environment, and achieve intelligent energy saving and consumption reduction effects;

[0081] At the same time, the information collection module collects the temperature change information and the light difference information in the environment in real time, and transmits them to the data analysis module together, and the temperature change information is composed of the external environment temperature data and the LED lampshade 3 temperature data, and the light difference information is composed of the external environment light data and the light data in the environment;

[0082] The data analysis module then performs brightness adjustment analysis operations on it based on this, that is, firstly calibrates the temperature change information and the light difference information in the environment as a whole, and then calibrates the external environment temperature data and the LED lampshade 3 temperature data, as well as the external environment light data and the light data in the environment through double correction formula analysis to obtain the real-time light coefficient H in the environment, and transmits it to the signal generation module through the controller;

[0083] The signal generation module compares it with the preset range h by levels, obtains each light signal, and transmits it to the signal execution module;

[0084] The signal execution module immediately controls the LED lamp 8 to turn on to the corresponding light level according to the light signals received in real time, and controls the speaker 13 to broadcast the text voice of "high brightness", "normal brightness" and "low brightness", and then combines the temperature change condition with the light difference condition, and obtains each light signal through iterative correction formula analysis and hierarchical comparison, so as to provide reasonable lighting conditions and achieve intelligent energy saving and consumption reduction effects, thereby combining LED lamps with smart speakers and air purification to achieve convenient, intelligent and consumption-reducing use effects.

[0085] The above contents are merely examples and explanations of the structure of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the structure of the invention or exceed the scope defined by the claims, they should all fall within the protection scope of the present invention.

Claims

1. An integrated LED lamp based on air purification and intelligent audio, comprising a temperature sensor (1), a ducting fan (2), an LED lampshade (3), a first slide groove (4), a first slider (5), an LED lamp holder (6), an air guide hole (7), an LED lamp tube (8), an anti-slip strip (9), a first telescopic spring (10), a first movable rod (11), a Bluetooth LED driver (12), a speaker (13), a photosensor (14), a dust sensor (15), a micro-electrostatic air purifier (16), a gas sensor (17), a slot (18), a card board (19), a second movable rod (20), a stopper (21), a second slide groove (22), a second slider (23) and a second telescopic spring (24), characterized in that: An LED lampshade (3) is fixed to the outer edge of the bottom of the LED lamp holder (6) by means of bolts, and a temperature sensor (1) and a light sensor (14) are respectively fixed to the two sides of the LED lampshade (3) by means of bolts, and a speaker (13) is embedded in the bottom of the LED lampshade (3) on one side close to the light sensor (14); An LED lamp tube (8) is arranged at the center of the bottom of the LED lamp holder (6), and a Bluetooth LED driver (12) is embedded in a side of the top of the LED lamp holder (6) close to the photosensor (14), and a ventilator (2) is embedded in a side of the top of the LED lamp holder (6) close to the temperature sensor (1), and one side of the ventilator (2) is located in a space formed by the LED lamp cover (3) and the LED lamp holder (6); A first slide groove (4) is provided at the center of the top of the LED lamp holder (6), and air guide holes (7) are evenly provided on the bottom inner wall of the first slide groove (4), a first slider (5) is correspondingly installed inside the first slide groove (4), a first telescopic spring (10) is fixed between one side of the first slider (5) and the inner wall of one side corresponding to the first slide groove (4) by spot welding, and anti-slip strips (9) are fixed to adjacent sides of the two first sliders (5) by bonding, and a micro-electrostatic air purifier (16) is provided between the two anti-slip strips (9), a dust sensor (15) and a gas sensor (17) are respectively embedded in the top of the micro-electrostatic air purifier (16), and card slots (18) are correspondingly provided on both sides of the micro-electrostatic air purifier (16), and the card plate (19) is provided with a plurality of card slots (18) on the two sides of the card plate (19). One end is embedded in the card slot (18), and the other end of the card plate (19) is fixed with a stopper (21) by bolts, a second slide slot (22) is opened at the bottom center of the card plate (19), and a second slider (23) is installed inside the second slide slot (22), and second telescopic springs (24) are fixed between the two sides of the second slider (23) and the inner walls of the two sides of the second slide slot (22) by spot welding, and a second movable rod (20) is arranged between the first slider (5) and the second slider (23), and a first movable rod (11) is arranged between the second movable rod (20) and the LED lamp holder (6), and the duct fan (2), the LED lamp tube (8), the Bluetooth LED driver (12), the speaker (13) and the micro-electrostatic air purifier (16) are all electrically connected to an external power supply; One side of the micro-electrostatic air purifier (16) is in contact with the center of the bottom inner wall of the first slide groove (4), the air guide holes (7) are all vertically distributed, and the top ends of the air guide holes (7) correspond to the micro-electrostatic air purifier (16), and the bottom ends of the air guide holes (7) correspond to the LED light tubes (8); The card slot (18) is located on the side where the anti-slip strip (9) contacts the micro-electrostatic air purifier (16), and the two card slots (18) are both located on the same horizontal plane. The size of the card slot (18) is the same as the size of the card plate (19), and the two are mutually matched structures.

2. The integrated LED lamp based on air purification and intelligent audio according to claim 1, characterized in that: The contact points between the LED lampshade (3) and the LED lamp holder (6), the ducting fan (2) and the LED lampshade (3), and the LED lampshade (3) and the speaker (13) are all filled with sealing gaskets, and the air discharged from the micro-electrostatic air purifier (16) is blown onto the LED lamp tube (8) through the air ducting hole (7), and is passed into the space formed by the LED lampshade (3) and the LED lamp holder (6), and is discharged by the ducting fan (2) to a side area opposite to the LED lamp tube (8).

3. The integrated LED lamp based on air purification and intelligent audio according to claim 1, characterized in that: The micro-electrostatic air purifier (16) includes a data acquisition module, a data analysis module, a controller, a signal generation module, a signal execution module and an information collection module; The data acquisition module is used to collect in real time the temperature data of the LED lampshade (3) obtained by the temperature sensor (1), the concentration data of harmful particles obtained by the dust sensor (15) and the concentration data of harmful gases obtained by the gas sensor (17) in the environment, and transmit them together to the data analysis module; The data analysis module then performs a filtering and purification level analysis operation on the data to obtain a real-time pollution level coefficient R in the environment, and transmits it to the signal generation module via the controller; The signal generation module compares the pollution level coefficient R received in real time in the environment with the preset range r. When it is greater than the maximum value of the preset range r, within the preset range r, and less than the minimum value of the preset range r, it generates a high filtration purification level signal, a normal filtration purification level signal, and a low filtration purification level signal, and transmits them to the signal execution module. After receiving the high filtration purification level signal, the normal filtration purification level signal and the low filtration purification level signal in real time, the signal execution module controls the micro-electrostatic air purifier (16) to be turned on to the corresponding working efficiency level, and controls the loudspeaker (13) to broadcast the text voice of "high pollution level", "normal pollution level" and "low pollution level"; The information collection module is used to collect temperature variation information and light difference information in the environment in real time, and transmit them to the data analysis module; The data analysis module then performs brightness adjustment analysis operations on the data to obtain the real-time illumination coefficient H in the environment, and transmits it to the signal generation module via the controller; The signal generation module compares the illumination coefficient H received in real time in the environment with the preset range h. When it is greater than the maximum value of the preset range h, within the preset range h, and less than the minimum value of the preset range h, it generates a primary illumination signal, a secondary illumination signal, and a tertiary illumination signal respectively, and transmits them to the signal execution module; After receiving the primary light signal, the secondary light signal and the tertiary light signal in real time, the signal execution module controls the LED lamp (8) to turn on to the corresponding light level, and controls the loudspeaker (13) to broadcast the text voice of "high light brightness", "normal light brightness" and "low light brightness".

4. The integrated LED lamp based on air purification and intelligent audio according to claim 3 is characterized in that: The specific steps of the filtration and purification level analysis operation are as follows: Step 1: acquiring the temperature data of the LED lampshade (3), the concentration data of harmful particles and the concentration data of harmful gases in the environment in real time, and calibrating them as Q, W and E respectively; Step 2: assigning the temperature data Q of the LED lampshade (3) in the environment to an ultra-temperature level, a medium temperature level and a low temperature level; when it corresponds to the ultra-temperature level, the temperature data Q of the LED lampshade (3) is calibrated as a positive value q1; when it corresponds to the medium temperature level, the temperature data Q of the LED lampshade (3) is calibrated as a positive value q2; when it corresponds to the low temperature level, the temperature data Q of the LED lampshade (3) is calibrated as a positive value q3, and q1 is greater than q2 and greater than q3; The harmful particle concentration data W in the environment is assigned high particle size, standard particle size and low particle size. When it corresponds to high particle size, the harmful particle concentration data W is calibrated as a positive value w1. When it corresponds to standard particle size, the harmful particle concentration data W is calibrated as a positive value w2. When it corresponds to low particle size, the harmful particle concentration data W is calibrated as a positive value w3, and w1 is greater than w2 and greater than w3. The harmful gas concentration data E in the environment is assigned to the top gas volume, the appropriate gas volume and the low gas volume. When it corresponds to the top gas volume, the harmful gas concentration data E is calibrated as a positive value e1. When it corresponds to the appropriate gas volume, the harmful gas concentration data E is calibrated as a positive value e2. When it corresponds to the low gas volume, the harmful gas concentration data E is calibrated as a positive value e3, and e1 is greater than e2 and greater than e3. Step 3: Assign weight coefficients a, s and d to the temperature data Q of the LED lampshade (3), the harmful particulate matter concentration data W and the harmful gas concentration data E in the environment in turn, where d is greater than s and a is greater than a, and a+s+d=3.5821, and then calculate the real-time pollution level coefficient R in the environment according to the formula R=Q*a+W*s+E*d.

5. The integrated LED lamp based on air purification and intelligent audio according to claim 4, characterized in that: The super-temperature level, medium-temperature level and low-temperature level correspond to above 50.73 degrees, 28.51 degrees to 50.73 degrees and including 28.51 degrees, 50.73 degrees and below 28.51 degrees respectively; the high particle size, standard particle size and low particle size correspond to above 0.15 mg / cubic meter, 0.05 mg / cubic meter to 0.15 mg / cubic meter and including 0.05 mg / cubic meter, 0.15 mg / cubic meter and below 0.05 mg / cubic meter respectively; the top gas volume, appropriate gas volume and low gas volume correspond to above 0.12 mg / cubic meter, 0.04 mg / cubic meter to 0.12 mg / cubic meter and including 0.04 mg / cubic meter, 0.12 mg / cubic meter and below 0.04 mg / cubic meter respectively.

6. The integrated LED lamp based on air purification and intelligent audio according to claim 3, characterized in that: The temperature variation information is composed of external environment temperature data and LED lampshade (3) temperature data, and the illumination difference information is composed of external environment illumination data and illumination data in the environment.

7. The integrated LED lamp based on air purification and intelligent audio according to claim 3, characterized in that: The specific steps of the brightness adjustment analysis operation are as follows: Step 1: Real-time acquisition of temperature variation information and illumination difference information in the environment, and marking them as T and Y respectively, and marking the external environment temperature data and the LED lampshade (3) temperature data corresponding to the temperature variation information T in the environment as U and P respectively, and marking the external environment illumination data and the illumination data in the environment corresponding to the illumination difference information in the environment as F and G respectively; Step 2: First, according to the formula , get the real-time temperature change information T in the environment, p and u are both temperature correction factors, p is greater than u and p+u=2.6582, then according to the formula , we can get the real-time illumination difference information Y in the environment, f and g are illumination correction factors, f is greater than g and f+g=3.2148, and finally according to the formula , and obtain the real-time illumination coefficient H in the environment.

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