Skylight lamp capable of simulating multiple scenes through light mixing

Abstract

The utility model provides a skylight lamp capable of simulating multiple scenes through light mixing, the skylight lamp capable of simulating multiple scenes through light mixing comprises a scattering assembly and a light and shadow assembly, the scattering assembly comprises a bottom plate, a scattering part and an annular mounting plate, and the scattering part is connected with the bottom plate and the annular mounting plate; the light and shadow assembly comprises a light-emitting lampshade, a side-entering type main lamp light source assembly and a side-entering type mixed light source assembly, the side-entering type mixed light source assembly is connected to the peripheral edge of the bottom plate, and the side-entering type main lamp light source assembly abuts against the lower portion of the side-entering type mixed light source assembly. The side-entering type main lamp light source assembly and the side-entering type mixed light source assembly irradiate the light-emitting lampshade and the scattering piece from the side faces respectively, so that light can be evenly scattered out of the light-emitting lampshade and the scattering piece through scattering, and the thickness of the skylight lamp for simulating multiple scenes through mixed light is reduced; by adjusting the current of the light sources with different color temperatures in the side-entering type main lamp light source assembly, light spots with different color temperatures can be mixed, and light and shadow changing effects in different time periods can be presented on the light-emitting lampshade, so that the multi-scene illumination requirement is met.

Description

Technical Field

[0001] The present disclosure relates to the technical field of lighting fixtures, and in particular to a skylight lamp that mixes light and simulates multiple scenarios. Background Art

[0002] With the diversification of modern architectural design and the increasing requirements for the comfort of indoor environments, lighting solutions that simulate natural light environments have received increasing attention. In enclosed or poorly lit indoor spaces, such as offices, meeting rooms, and underground shopping mall scenarios, creating a natural and comfortable lighting environment is crucial for improving work efficiency and living experience.

[0003] As an innovative lighting product, skylight lamps can create an effect of blue sky and sunlight close to the outdoors indoors by simulating the scattering effect of natural light, effectively alleviating the sense of depression of people in enclosed spaces. However, similar lamps on the market currently generally have problems such as being thick and heavy in volume, having a single light color, and limited scene simulation ability, making it difficult to meet the lighting needs in diverse scenarios.

[0004] For example, the comparative document CN202223294721.7 discloses a blue sky lamp, including a housing, a Rayleigh scattering optical panel, and a light-emitting component. The housing has a downward light outlet, and the Rayleigh scattering optical panel is located inside the housing and is disposed opposite to the light outlet; the light-emitting component is located inside the housing, and the light-emitting component includes an LED light source and a polarizing lens. The polarizing lens is disposed adjacent to the LED light source and on the light-emitting side of the LED light source, so that the light emitted by the LED light source propagates at a preset polarization angle and then obliquely enters the Rayleigh scattering light panel. In this application, a polarizing lens is added between the LED light source and the Rayleigh scattering optical panel, so that the light emitted by the LED light source propagates at a preset polarization angle and then uniformly obliquely enters the Rayleigh scattering optical panel to form a Rayleigh scattering blue sky effect. The transmitted white light can form a light spot with a clear boundary, creating a good light and shadow atmosphere and optimizing the light source shaping optical path. However, this solution has a single lack of flexibility in light color change and lacks the ability to simulate multiple scenarios, making it difficult to be used in diverse scenarios. Utility Model Content

[0005] The purpose of the present disclosure is to overcome the deficiencies in the prior art and provide a side-inlet skylight lamp that mixes light and simulates multiple scenarios.

[0006] The purpose of the present disclosure is achieved through the following technical solutions:

[0007] A skylight lamp that mixes light and simulates multiple scenarios includes a scattering component and a light and shadow component, and the scattering component is connected to the light and shadow component.

[0008] The scattering component includes a bottom plate, a scattering member, and an annular mounting plate. The scattering member is connected to the bottom plate, and the annular mounting plate is connected to the scattering member. The annular mounting plate is provided with a lamp shade mounting groove.

[0009] The light and shadow component includes an outgoing lamp shade and a main lamp component. The main lamp component includes a side-in type main light source component and a side-in type mixed light source component. The side-in type mixed light source component is connected to the outer peripheral edge of the bottom plate. The side-in type main light source component is connected to the side-in type mixed light source component. The side-in type main light source component is located below the side-in type mixed light source component, and the light source of the side-in type main light source component is arranged adjacent to the outer peripheral edge of the bottom plate. The outgoing lamp shade is snap-fitted into the lamp shade mounting groove. The outgoing lamp shade is adjacent to the light-emitting side of the side-in type main light source component, and the scattering member is adjacent to the light-emitting side of the side-in type mixed light source component. Wherein, the side-in type main light source component and the side-in type mixed light source component are respectively used for outputting lights of multiple different color temperatures and different wavelengths, and are used for respectively simulating the scene of sunlight irradiating the window frame to form a shadow and the scene effect of a blue sky.

[0010] In one embodiment, the side-in type mixed light source component includes a lamp bead fixing member and a mixed color light source. The lamp bead fixing member is fixed to the outer peripheral edge of the bottom plate, and the mixed color light source is fixed to the lamp bead fixing member. The light-emitting side of the mixed color light source faces the scattering member.

[0011] In one embodiment, the side-in type main light source component includes a light source fixing member and a two-color temperature light source. The light source fixing member abuts against the lamp bead fixing member. The light source fixing member is located below the lamp bead fixing member. The two-color temperature light source is fixed to the light source fixing member. The light-emitting side of the two-color temperature light source faces the outgoing lamp shade.

[0012] In one embodiment, the scattering component further includes a reflecting member and a fixing and pressing member. The fixing and pressing member abuts against the bottom plate, the reflecting member abuts against the fixing and pressing member, and the scattering member abuts against the reflecting member.

[0013] In one embodiment, the mixed color light source includes a white light emitting member, a blue light emitting member, and a green light emitting member. The white light emitting member, the blue light emitting member, and the green light emitting member are arranged at intervals in sequence on the lamp bead fixing member.

[0014] In one embodiment, the numbers of the white light emitting member, the blue light emitting member, and the green light emitting member are all multiple, and each of the white light emitting member, the blue light emitting member, and the green light emitting member is arranged at intervals in sequence on the lamp bead fixing member.

[0015] In one embodiment, the light-emitting lamp cover includes a light-transmitting area and a shadow area, and the light-transmitting area and the shadow area have different light transmittances respectively to simulate the sky effects at different times.

[0016] In one embodiment, the two-color temperature light source includes a first color temperature light-emitting source and a second color temperature light-emitting source, and both the first color temperature light-emitting source and the second color temperature light-emitting source are fixed to the light source fixing member.

[0017] In one embodiment, threaded holes are further formed along the outer periphery of the bottom plate, the scattering assembly further includes fasteners, the side-inlet mixed light source assembly is further provided with an assembly groove, and the fasteners pass through the threaded holes and are threadedly connected to the assembly groove.

[0018] In one embodiment, the main lamp assembly further includes a lamp cover connecting member. One side of the lamp cover connecting member is connected to the side-inlet main light source assembly, and the other side of the lamp cover connecting member abuts against the bottom of the light-emitting lamp cover. The top of the light-emitting lamp cover is snap-fitted into the lamp cover installation groove formed in the annular mounting plate. The main lamp assembly, the annular mounting plate, and the light-emitting lamp cover together form a light source cavity, and both the side-inlet main light source assembly and the side-inlet mixed light source assembly are disposed in the light source cavity.

[0019] Compared with the prior art, the present disclosure has at least the following advantages:

[0020] 1. For the above skylight lamp with mixed light simulation for multiple scenarios, by adjusting the current flowing through the two different color temperature light sources in the side-inlet main light source assembly, the side-inlet main light source assembly emits two different color temperature lights, which are mixed into incident lights of different colors in different proportions. The incident lights of different colors are irradiated onto the light-emitting lamp cover from the side of the light-emitting lamp cover, so as to simulate the sky light and shadow change effects at different times such as morning, noon, and sunset on the light-emitting lamp cover, solving the problems of single light color and limited scene simulation ability of similar lamps, and further enabling the skylight lamp with mixed light simulation for multiple scenarios to meet the lighting requirements under diverse scenarios.

[0021] 2. Since the side-inlet mixed light source assembly and the side-inlet main light source assembly are respectively located on the sides of the scattering member and the light-emitting lamp cover, the light is irradiated onto the scattering member and the light-emitting lamp cover from the side, and the light is evenly distributed through scattering and reflection, so that the side-inlet mixed light source assembly and the side-inlet main light source assembly do not need to have a certain mixing distance to achieve uniform illuminance, and further making the thickness of the skylight lamp with mixed light simulation for multiple scenarios thinner and the structure simpler compared with similar lamps. Description of the Drawings

[0022] To more clearly illustrate the technical solutions of the embodiments of the present disclosure, the accompanying drawings required for the embodiments will be briefly introduced below. It should be understood that the following accompanying drawings only show some embodiments of the present disclosure and should not be regarded as limiting the scope. For those of ordinary skill in the art, without creative efforts, other related accompanying drawings can also be obtained based on these drawings.

[0023] Figure 1 It is a schematic structural diagram of a skylight lamp with mixed light simulation of multiple scenarios in an embodiment;

[0024] Figure 2 For Figure 1 A partial cross-sectional view of the skylight lamp with mixed light simulation of multiple scenarios shown;

[0025] Figure 3 For Figure 1 Another partial cross-sectional view of the skylight lamp with mixed light simulation of multiple scenarios shown;

[0026] Figure 4 For Figure 1 A partial exploded view of the skylight lamp with mixed light simulation of multiple scenarios shown;

[0027] Figure 5 For Figure 1 Another partial exploded view of the skylight lamp with mixed light simulation of multiple scenarios shown. Detailed implementation manners

[0028] To facilitate the understanding of the present disclosure, the present disclosure will be described more comprehensively below with reference to the relevant accompanying drawings. The preferred embodiments of the present disclosure are shown in the accompanying drawings. However, the present disclosure can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, the purpose of providing these embodiments is to make the disclosure content of the present disclosure understood more thoroughly and comprehensively.

[0029] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly on the other element or there can also be an intermediate element. When an element is considered to be "connected" to another element, it can be directly connected to the other element or there may be an intermediate element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are only for the purpose of illustration and do not represent the only implementation manner.

[0030] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those of ordinary skill in the technical field to which the present disclosure belongs. The terms used in the description of the present disclosure herein are only for the purpose of describing specific embodiments and are not intended to limit the present disclosure. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0031] To better understand the technical solutions and beneficial effects of the present disclosure, the following provides further detailed descriptions of the present disclosure in conjunction with specific embodiments:

[0032] As Figures 1 to 5 shown, a skylight lamp 10 for simulating multiple scenarios with mixed light in an embodiment of the present disclosure includes a scattering component 100 and a light and shadow component 200, and the scattering component 100 is connected to the light and shadow component 200.

[0033] Further, the scattering component 100 includes a bottom plate 110, a scattering member 120, and an annular mounting plate 130. The scattering member 120 is connected to the bottom plate 110, the annular mounting plate 130 is connected to the scattering member 120, and the annular mounting plate 130 is provided with a lamp cover mounting groove 1301. The annular mounting plate 130 has a circular ring structure, and the middle thereof is in a hollow shape, without blocking the light scattered by the scattering member 120 outward.

[0034] Furthermore, the light and shadow component 200 includes an out-light lamp cover 210 and a main lamp component 220. The main lamp component 220 includes a side-in main light source component 221 and a side-in mixed light source component 222. The side-in mixed light source component 222 is connected to the outer peripheral edge of the bottom plate 110, the side-in main light source component 221 is connected to the side-in mixed light source component 222, the side-in main light source component 221 is located below the side-in mixed light source component 222, and the light source of the side-in main light source component 221 is arranged adjacent to the outer peripheral edge of the bottom plate 110. The out-light lamp cover 210 is snap-fitted into the lamp cover mounting groove 1301. The out-light lamp cover 210 is adjacent to the light-emitting side of the side-in main light source component 221, and the scattering member 120 is adjacent to the light-emitting side of the side-in mixed light source component 222. Among them, the side-in main light source component 221 and the side-in mixed light source component 222 are respectively used to output light of multiple different color temperatures and different wavelengths to respectively simulate a shadow scene and a sky scene formed by sunlight irradiation.

[0035] In this embodiment, after the skylight lamp 10 with mixed light simulating multiple scenarios is powered on, the side-inlet hybrid light source assembly 222 emits incident light with a short wavelength in the spectrum onto the scattering member 120. Since the scattering member 120 is composed of a transparent substrate and nanoscale scattering particles with diameters much smaller than the wavelength of the incident light are uniformly dispersed inside the transparent substrate, these particles can cause Rayleigh scattering when the incident light emitted by the side-inlet hybrid light source assembly 222 irradiates the scattering member 120, and form a blue light light and shadow effect visually similar to the sky on the scattering member 120. At the same time, the side-inlet main light source assembly 221 emits two groups of incident light with different color temperatures respectively. The two groups of incident light with different color temperatures are both irradiated on the light-emitting lamp cover 210 from the side of the light-emitting lamp cover 210. The two groups of incident light with different color temperatures form bright light spots and dim light spots respectively on the light-emitting lamp cover 210, so as to form a light and shadow effect with light and dark contrast on the light-emitting lamp cover 210 similar to sunlight irradiating the window frame from the side. When it is necessary to simulate the light and shadow effects at sunrise and sunset, the current flowing through the two groups of light sources with different color temperatures can be adjusted respectively, so that the main light source assembly 221 emits a warm yellowish light spot, so that the light-emitting lamp cover 210 presents the light and shadow effect at sunrise or sunset; when it is necessary to simulate the bright light and shadow effect at noon, the current flowing through the two groups of light sources with different color temperatures can be adjusted respectively again, so that the main light source assembly 221 emits a cold white light spot, so that the light-emitting lamp cover 210 presents the bright light and shadow effect at noon.

[0036] For the above-mentioned skylight lamp 10 with mixed light simulating multiple scenarios, by adjusting the current flowing through the two groups of light sources with different color temperatures in the side-inlet main light source assembly 221, the two groups of incident light with different color temperatures are emitted by the side-inlet main light source assembly 221, and are mixed in different proportions into incident light with different light colors. The incident light with different light colors is irradiated onto the light-emitting lamp cover 210 from the side of the light-emitting lamp cover 210, so as to simulate the sky light and shadow change effects at different times such as morning, noon and sunset on the light-emitting lamp cover 210, solve the problems of single light color and limited scene simulation ability of similar lamps, and further enable the skylight lamp 10 with mixed light simulating multiple scenarios to meet the lighting needs under diverse scenarios. Further, since the side-inlet hybrid light source assembly 222 and the side-inlet main light source assembly 221 are respectively located on the sides of the scattering member 120 and the light-emitting lamp cover 210, the light irradiates the scattering member 120 and the light-emitting lamp cover 210 from the side, and the light is evenly distributed through scattering and reflection, so that the side-inlet hybrid light source assembly 222 and the side-inlet main light source assembly 221 do not need to have a certain mixing distance to achieve uniform illuminance, and further the thickness of the skylight lamp 10 with mixed light simulating multiple scenarios is thinner than that of similar lamps and the structure is simpler.

[0037] Such as Figure 3As shown, in one embodiment, the side-inlet hybrid light source assembly 222 includes a lamp bead fixing member 2221 and a color mixing light source 2222. The lamp bead fixing member 2221 is fixed to the outer peripheral edge of the bottom plate 110, and the color mixing light source 2222 is fixed to the lamp bead fixing member 2221. The light-emitting side of the color mixing light source 2222 faces the scattering member 120. In this embodiment, since the scattering member 120 is fixed to the bottom plate 110 and the color mixing light source 2222 is disposed on the outer peripheral edge of the bottom plate 110 through the lamp bead fixing member 2221, the mixed light emitted by the color mixing light source 2222 can irradiate the scattering member 120 from the side of the scattering member 120, so that the mixed light is more evenly scattered within the scattering member 120, thereby improving the color mixing effect of multiple light sources.

[0038] As Figure 3 shown, in one embodiment, the side-inlet main light source assembly 221 includes a light source fixing member 2211 and a two-color temperature light source 2212. The light source fixing member 2211 abuts against the lamp bead fixing member 2221. The light source fixing member 2211 is located below the lamp bead fixing member 2221. The two-color temperature light source 2212 is fixed to the light source fixing member 2211. The light-emitting side of the two-color temperature light source 2212 faces the light-emitting lamp cover 210. In this embodiment, since the lamp bead fixing member 2221 is disposed on the outer peripheral edge of the bottom plate 110 and the light source fixing member 2211 is located below the lamp bead fixing member 2221, the mixed light emitted by the two-color temperature light source 2212 can irradiate the light-emitting lamp cover 210 from the side of the light-emitting lamp cover 210, so that the mixed light is more uniform and soft on the light-emitting lamp cover 210, thereby forming a light and shadow effect with obvious light and dark contrast.

[0039] As Figure 5 shown, in one embodiment, the scattering assembly 100 further includes a reflecting member 140 and a fixing and pressing member 150. The fixing and pressing member 150 abuts against the bottom plate 110, the reflecting member 140 abuts against the fixing and pressing member 150, and the scattering member 120 abuts against the reflecting member 140. In this embodiment, since the reflecting member 140 can further reflect and scatter the scattered light emitted by the scattering member 120, thereby enhancing the Rayleigh scattering effect and making the scattered light more uniform and soft. At the same time, the reflecting member 140 can adjust the direction of the reflected light and improve the utilization efficiency of light energy, so that more light can irradiate the target area through the scattering member, and thus the visual effect similar to the sky presented on the scattering member 120 is more realistic. Since the fixing and pressing member 150 is disposed between the scattering member 120 and the reflecting member 140 and the bottom plate 110, the fixing and pressing member 150 plays a fixing role on the reflecting member 140 and the scattering member 120, reducing the gap between the scattering member 120 and the reflecting member 140. At the same time, the fixing and pressing member 150 plays a role in flattening the scattering member 120, reducing the light scattering loss caused by surface unevenness, thereby facilitating the more uniform distribution of light on the scattering member 120.

[0040] As Figure 2 and Figure 3 shown, in one embodiment, the mixed-color light source 2222 includes a white light-emitting component 22221, a blue light-emitting component 22222, and a green light-emitting component 22223. The white light-emitting component 22221, the blue light-emitting component 22222, and the green light-emitting component 22223 are sequentially and spacedly arranged on the lamp bead fixing member 2221. In this embodiment, since the mixed-color light source 2222 irradiating on the scattering member 120 will produce a Rayleigh scattering effect, the white light emitted by the white light-emitting component 22221 provides a basic light source for scattering. The short-wavelength blue light emitted by the blue light-emitting component 22222 makes the scattering member present a visual effect similar to sky blue during the scattering process, while the green light emitted by the green light-emitting component 22223 helps to balance the color effect presented by the scattering, making the mixed light closer to the color distribution of natural sunlight, thereby ensuring that the visual effect presented by the scattering member maintains the balance and naturalness of color.

[0041] As Figure 3 shown, in one embodiment, the numbers of the white light-emitting component 22221, the blue light-emitting component 22222, and the green light-emitting component 22223 are all multiple. Each white light-emitting component 22221, blue light-emitting component 22222, and green light-emitting component 22223 are sequentially and spacedly arranged on the lamp bead fixing member 2221. In this embodiment, since the multiple light-emitting components are sequentially and spacedly arranged, the light distribution of the light emitted by each light-emitting component irradiating on the scattering member is more uniform. The uniform light distribution helps to reduce the phenomena of light spots and uneven brightness and darkness, improves the overall lighting effect, and at the same time can ensure that more light can irradiate on the scattering member 120 and generate Rayleigh scattering, thereby improving the utilization efficiency of light energy and further reducing the energy consumption of the skylight lamp 10 for simulating multiple scenarios with mixed light.

[0042] As Figure 3 shown, in one embodiment, the light-emitting lamp cover 210 includes a light-transmitting area 211 and a shadow area 212. The light-transmitting area 211 and the shadow area 212 have different light transmittances to simulate the sky effects at different times. In this embodiment, since the light transmittance of the light-transmitting area 211 is higher and the light transmittance of the shadow area 212 is lower, when the light emitted by the two-color temperature light source 2212 irradiates on the light-transmitting area 211 and the shadow area 212 of the light-emitting lamp cover 210 respectively, the light forms bright light spots through the light-transmitting area 211, and at the same time the light forms dim light spots through the shadow area 212, so that a light and shadow effect similar to sunlight irradiating the window frame from the side with light and dark contrast is formed on the light-emitting lamp cover 210.

[0043] As Figure 3As shown, in one embodiment, the two-color temperature light source 2212 includes a first color temperature light source 22121 and a second color temperature light source 22122. Both the first color temperature light source 22121 and the second color temperature light source 22122 are fixed to the light source fixing member 2211. In this embodiment, the first color temperature light source 22121 is a low color temperature light source, and the color temperature of the light it emits is between 3000K and 3500K. Therefore, the light emitted by the first color temperature light source 22121 is biased towards warm white light; the second color temperature light source 22122 is a high color temperature light source, and the color temperature of the light it emits is between 5500K and 7500K. Therefore, the light emitted by the second color temperature light source 22122 is biased towards cold white light. When simulating the sunrise light and shadow effect, the current flowing through the second color temperature light source 22122 can be reduced and the current flowing through the first color temperature light source 22121 can be increased, so that the proportion of warm white light color emitted by the two-color temperature light source 2212 increases and the proportion of cold white light color decreases. As a result, the light emitted by the two-color temperature light source 2212 irradiating on the light output cover 210 will be biased towards red light color, and the effect of the sun rising at sunrise and the sky gradually brightening is simulated.

[0044] When simulating the noon light and shadow effect, the current flowing through the second color temperature light source 22122 can be increased and the current flowing through the first color temperature light source 22121 can be reduced, so that the proportion of warm white light color emitted by the two-color temperature light source 2212 decreases and the proportion of cold white light color increases. As a result, the light emitted by the two-color temperature light source 2212 irradiating on the light output cover 210 will be biased towards cold white light color, and the bright atmosphere effect at noon is created.

[0045] When simulating the evening light and shadow effect, the current flowing through the second color temperature light source 22122 can be reduced again and the current flowing through the first color temperature light source 22121 can be increased, so that the proportion of warm white light color emitted by the two-color temperature light source 2212 increases and the proportion of cold white light color decreases. As a result, the light emitted by the two-color temperature light source 2212 irradiating on the light output cover 210 will be biased towards dark yellow light color, and the atmosphere effect at sunset in the evening is created.

[0046] As Figure 2 and Figure 4 shown, in one embodiment, threaded holes 1101 are further formed along the outer periphery of the bottom plate 110. The scattering assembly 100 further includes a fastener 160. The side-inlet mixed light source assembly 222 is further provided with an assembly groove 2201. The fastener 160 passes through the threaded hole 1101 and is threadedly connected to the assembly groove 2201. In this embodiment, the side-inlet mixed light source assembly 222 is tightly connected to the bottom plate 110 through the fastener 160, so that the main lamp assembly 220 and the bottom plate 110 form a firm whole. As a result, the main lamp assembly protects the skylight lamp 10 for simulating multi-scene mixed light, preventing external environmental factors such as dust or flying insects from affecting the inside of the lamp body, thereby ensuring the stable operation of the skylight lamp 10 for simulating multi-scene mixed light.

[0047] As Figure 2 , Figure 3 and Figure 5 shown, in one embodiment, the main lamp assembly 220 further includes a lamp cover connecting member 223. One side of the lamp cover connecting member 223 is connected to the side-in type main light source assembly 221, and the other side of the lamp cover connecting member 223 abuts against the bottom of the light-emitting lamp cover 210. The top of the light-emitting lamp cover 210 is snap-fitted into the lamp cover mounting groove 1301 formed in the annular mounting plate 130. The main lamp assembly 220, the annular mounting plate 130, and the light-emitting lamp cover 210 together form a light source cavity 2202. The side-in type main light source assembly 221 and the side-in type mixed light source assembly 222 are both disposed in the light source cavity 2202. In this embodiment, since the light source cavity 2202 is a closed space formed by the mutual abutment of the main lamp assembly 220 and the light-emitting lamp cover 210, and the side-in type main light source assembly 221 is disposed in the light source cavity 2202, the light emitted by the side-in type main light source assembly 221 is reduced from spilling out of the lamp body, thereby improving the light energy utilization rate of the skylight lamp 10 for mixed light simulation of multiple scenarios, and further reducing the energy consumption of the skylight lamp 10 for mixed light simulation of multiple scenarios.

[0048] Compared with the prior art, the present disclosure has at least the following advantages:

[0049] 1. For the above-mentioned skylight lamp 10 for mixed light simulation of multiple scenarios, by adjusting the current flowing through two groups of light sources with different color temperatures in the side-in type main light source assembly 221, two groups of light rays with different color temperatures are emitted by the side-in type main light source assembly 221, and are mixed into incident light with different colors in different proportions. The incident light with different colors irradiates the light-emitting lamp cover 210 from the side of the light-emitting lamp cover 210, so as to simulate the sky light and shadow change effects at different times such as morning, noon, and sunset on the light-emitting lamp cover 210, solving the problems of single light color and limited scene simulation ability of similar lamps, and further enabling the skylight lamp 10 for mixed light simulation of multiple scenarios to meet the lighting requirements under diverse scenarios.

[0050] 2. Since the side-in type mixed light source assembly 222 and the side-in type main light source assembly 221 are respectively located on the sides of the scattering member 120 and the light-emitting lamp cover 210, the light irradiates the scattering member 120 and the light-emitting lamp cover 210 from the side, and the light is evenly distributed through scattering and reflection, so that the side-in type mixed light source assembly 222 and the side-in type main light source assembly 221 do not need to have a certain mixing distance to achieve uniform illuminance, and further the thickness of the skylight lamp 10 for mixed light simulation of multiple scenarios is thinner and the structure is simpler compared with similar lamps.

[0051] The above-described embodiments merely represent several implementation manners of the present disclosure. The description thereof is relatively specific and detailed, but it should not be construed as a limitation on the scope of the disclosed patent. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present disclosure, several modifications and improvements can still be made, and these all fall within the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure patent shall be subject to the appended claims.

Claims

1. A skylight lamp for simulating multiple scenarios with mixed light, comprising a scattering component and a light and shadow component, the scattering component being connected to the light and shadow component, characterized in that the scattering component includes a bottom plate, a scattering member and an annular mounting plate, the scattering member is connected to the bottom plate, the annular mounting plate is connected to the scattering member, and the annular mounting plate is provided with a lamp cover mounting groove; the light and shadow component includes an out-light lamp cover and a main lamp component, the main lamp component includes a side-in type main light source component and a side-in type mixed light source component, the side-in type mixed light source component is connected to the outer peripheral edge of the bottom plate, the side-in type main light source component is connected to the side-in type mixed light source component, the side-in type main light source component is located below the side-in type mixed light source component, and the light source of the side-in type main light source component is arranged adjacent to the outer peripheral edge of the bottom plate, the out-light lamp cover is snap-fitted into the lamp cover mounting groove, the out-light lamp cover is adjacent to the light-emitting side of the side-in type main light source component, and the scattering member is adjacent to the light-emitting side of the side-in type mixed light source component. Among them, the side-in type main light source component and the side-in type mixed light source component are respectively used for outputting light of multiple different color temperatures and different wavelengths.

2. The skylight lamp for mixed-light simulation of multiple scenarios according to claim 1, wherein The side-in type mixed light source component includes a lamp bead fixing member and a color mixing light source, the lamp bead fixing member is fixed to the outer peripheral edge of the bottom plate, the color mixing light source is fixed to the lamp bead fixing member, and the light-emitting side of the color mixing light source faces the scattering member.

3. The skylight lamp for simulating multiple scenarios with mixed light according to claim 2, wherein The side-in type main light source component includes a light source fixing member and a two-color temperature light source, the light source fixing member abuts against the lamp bead fixing member, the light source fixing member is located below the lamp bead fixing member, the two-color temperature light source is fixed to the light source fixing member, and the light-emitting side of the two-color temperature light source faces the out-light lamp cover.

4. The skylight lamp for simulating multiple scenarios with mixed light according to claim 1, wherein, The scattering component further includes a reflective member and a fixing and pressing member, the fixing and pressing member abuts against the bottom plate, the reflective member abuts against the fixing and pressing member, and the scattering member abuts against the reflective member.

5. The skylight lamp for simulating multiple scenarios with mixed light according to claim 2, characterized in that, The color mixing light source includes a white light emitting member, a blue light emitting member and a green light emitting member, and the white light emitting member, the blue light emitting member and the green light emitting member are sequentially arranged at intervals on the lamp bead fixing member.

6. The skylight lamp for mixed-light simulation of multiple scenarios according to claim 5, characterized in that, The numbers of the white light emitting member, the blue light emitting member and the green light emitting member are all multiple, and each of the white light emitting member, the blue light emitting member and the green light emitting member is sequentially arranged at intervals on the lamp bead fixing member.

7. The skylight lamp for simulating multiple scenarios with mixed light according to claim 1, characterized in that, The out-light lamp cover includes a light-transmitting area and a shadow area, and the light-transmitting area and the shadow area have different light transmittances to simulate the sky effects at different times.

8. The skylight lamp for simulating multiple scenarios with mixed light according to claim 3, characterized in that, The two-color temperature light source includes a first color temperature light source and a second color temperature light source, and the first color temperature light source and the second color temperature light source are both fixed to the light source fixing member.

9. The skylight lamp for simulating multiple scenarios with mixed light according to claim 1, wherein, Threaded holes are further provided on the outer peripheral edge of the bottom plate, the scattering component further includes a fastener, an assembly groove is further provided on the side-in type mixed light source component, and the fastener passes through the threaded hole and is threadedly connected to the assembly groove.

10. The skylight lamp for mixed light simulation of multiple scenarios according to claim 8, characterized in that, The main lamp assembly further includes a lamp cover connecting member. One side of the lamp cover connecting member is connected to the side-in type main light source assembly, and the other side of the lamp cover connecting member abuts against the bottom of the light-emitting lamp cover. The top of the light-emitting lamp cover is snap-fitted into the lamp cover installation groove formed in the annular mounting plate. The main lamp assembly, the annular mounting plate, and the light-emitting lamp cover together form a light source cavity, and both the side-in type main light source assembly and the side-in type hybrid light source assembly are disposed in the light source cavity.

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