Small powder box system with mirror and cooling, sterilizing and lighting functions

Abstract

The invention relates to a small powder box system with a mirror and cooling, sterilizing and lighting functions, which comprises a lower container, an upper shell, a lighting module, a control module and a battery module, the circuit is used for driving a plurality of electronic accessories of the small powder box system with the mirror with cooling, sterilization and illumination functions to be mounted and connected; a plurality of light-emitting members mounted at uniform intervals on an edge portion of the printed circuit board and electrically connected; a reflector through which the light emitted by the light-emitting member passes and scatters the light for indirect illumination; a light-transmitting reflective member that reflects the light generated by the light-emitting member toward the reflector; a parabolic reflection light-transmitting member provided with a parabolic reflection surface that bends the light generated by the light-emitting member and the light diffusely reflected by the reflector toward a center direction in which the mirror is located; the invention can prevent the storage temperature of the accommodated cosmetics from rising above the set temperature through cooling, thereby preventing the cosmetics from deteriorating.

Description

Technical Field

[0001] This invention relates to a mirrored powder compact system with cooling, sterilization, and lighting functions. More specifically, during the frequent handling and touching of the mirrored powder compact by women, bacteria that are easily contaminated can be sterilized, preventing the contained cosmetics from deteriorating and protecting the user's skin health. At the same time, the mirrored powder compact can be used to provide information needed for communication, or to search for or listen to music via voice signals, thereby improving the utilization of the frequently carried mirrored powder compact. It also provides soft and adjustable lighting so that makeup can be applied even in relatively dim surrounding environments. Background Technology

[0002] Cosmetics, as a form of makeup, can be used to protect the skin of the whole body or face from various harmful substances, including infrared rays from sunlight, ultraviolet rays, dust, and pollutants. They can also highlight desired facial features while concealing less prominent areas, creating a beautiful appearance through color adjustments. For easy carrying and storage, they can be provided in a closable box or container, or a small powder compact with a mirror.

[0003] A compact makeup container with a mirror is a type of cosmetic container that is convenient to carry and use anytime, anywhere. It can hold gel-type or gel-containing liquids, solid powders in single or multiple colors, and specific functional cosmetics for skin makeup, including the face. It can be used by both men and women, but is generally more commonly used by women.

[0004] Foundations that solidify powder or pressed powder within a small, mirrored compact to reduce volume are applied using a separate puff or brush.

[0005] Small powder compacts with mirrors and powder puffs or brushes need to be held by hand for use. They are easily contaminated by various bacteria due to the surrounding environment. Furthermore, during the process of carrying them, the temperature of the body or the surrounding environment can easily exceed the suitable storage temperature for cosmetics, causing them to spoil. If spoiled cosmetics are used, they will damage the user's skin health.

[0006] People who apply makeup must use a mirror to check the state of their makeup. To eliminate this need, small powder compacts with mirrors are usually equipped with a portable mirror inside the compact, making it easy to put in a pocket or handbag. Moreover, the foldable shell structure prevents the built-in cosmetics from leaking out during movement. Therefore, it can be used as a tool that can be taken out anytime and anywhere to check one's appearance or to apply or touch up makeup.

[0007] This traditional compact powder box with a mirror is convenient to carry and can be used as a tool to check one's appearance and apply makeup anytime, anywhere. However, it still has the problem that it is not easy to apply makeup or the makeup effect is not good in relatively dark places or in environments without lighting.

[0008] The "small powder box mirror with lighting device" in Korean Patent Application No. 10-2013-0011528 (January 31, 2013) filed earlier by the inventor of this invention is a conventional technology that can solve some of these problems.

[0009] In addition, there are technologies such as "small powder box with a mirror and lighting device" in Korean Patent Publication No. 10-2001-0086750 (September 15, 2001) and "lighting device used in portable powder box, cosmetic box and other products" in Korean Utility Model Registration No. 20-0170812 (December 1, 1999).

[0010] Figure 1 This is a functional configuration illustration of a mirrored powder box device with illumination function according to an embodiment of the prior art.

[0011] The prior art is described in detail below with reference to the accompanying drawings. As a cosmetic receiving part 21 containing cosmetics composed of one or more of the following cosmetics, including foundation, blush, and eyeshadow, the lower shell 2 and the upper shell 1 with a mirror 11 are formed in a symmetrical structure and are hinged together. A light-emitting module setting slot 12' formed by a circular strip groove is formed around the outer side of the mirror 11. A second light-emitting module 3' with multiple LEDs 31' and a battery 32' is inserted around one side of the circular strip substrate. The open part of the light-emitting module setting slot 12' is sealed by an illumination diffuser plate 5, and a button 13 is provided to make the LEDs 31' flash.

[0012] Previous technologies were convenient to use, making it easy to apply makeup in darker places. However, because the lighting shone directly into the user's eyes, it caused glare and made it difficult to look into the mirror.

[0013] According to Korean Patent Registration No. 10-1579404 (December 15, 2015), "Improved Functionality of Small Powder Box Illuminating Mirror with Mirror," although it is a traditional technology that can partially solve these problems, even with improvements to the traditional technology, it is still impossible to completely solve the problem of external pollutants, bacteria, and odors entering and adhering to the surface during frequent carrying.

[0014] Therefore, it is necessary to develop a mirrored powder compact device technology that can prevent cosmetics from deteriorating due to temperature changes during use, remove and disinfect easily introduced contaminants and bacteria, and make makeup application easier even in clean, hygienic, and relatively dimly lit places through different stages of soft surface light sources.

[0015] Prior technology literature

[0016] [Patent Documents]

[0017] (Patent Document 0001) Korean Patent Application No. 10-2013-0011528 (January 31, 2013) "Small powder box mirror with lighting device"; (Patent Document 0002) Korean Patent Registration No. 10-1579404 (December 15, 2015) "Illuminating mirror for small powder box with improved usability"; (Patent Document 0003) Korean Patent Application No. 10-2023-0091344 (July 13, 2023) "Small powder box device with mirror and lighting function"; (Patent Document 0004) Korean Design Registration No. 30-1247292 (January 17, 2024) "Small powder box with mirror for cosmetic use". Summary of the Invention

[0018] One of the objectives of this invention is to provide a mirrored powder box system that has cooling, sterilization, and lighting functions to prevent the storage temperature of the contained cosmetics from rising above a set temperature through cooling, thereby preventing the cosmetics from deteriorating.

[0019] Furthermore, one of the objectives of this invention is to provide a powder box system with cooling, sterilization, and lighting functions that can remove contaminants that easily contaminate the powder box and kill incoming bacteria, thereby protecting the user's health.

[0020] In addition, one of the objectives of this invention is to provide a mirrored powder compact system that provides segmented, soft surface light source illumination in dark environments, avoiding shadows on the curved parts of the user's face, allowing for accurate checking of makeup application, and enabling convenient makeup application as needed. This system also features cooling, sterilization, and lighting functions.

[0021] To achieve the aforementioned necessity and objective, the present invention provides a mirror-mounted powder box system with cooling, sterilization, and lighting functions, comprising a lower container, an upper shell, a lighting module, a control module, and a battery module. Preferably, the lighting module comprises: a printed circuit board, which forms a circuit for driving and connecting multiple electronic components of the mirror-mounted powder box system with cooling, sterilization, and lighting functions; a light-emitting component, which comprises multiple LEDs mounted at even intervals on the edge portion of the printed circuit board and connected by a circuit, flashing via corresponding control signals; and a reflector. The system provides indirect illumination by allowing light emitted by the light-emitting component to pass through and be scattered; a light-transmitting reflective component, which is mounted close to the edge of the printed circuit board around the light-emitting component, reflects the light generated by the light-emitting component toward the reflector; a parabolic reflective light-transmitting component, which is mounted on the outer edge of the printed circuit board and has a parabolic reflective surface that bends the light generated by the light-emitting component and the light diffusely reflected by the reflector toward the center of the mirror; and a charging LED, which is mounted on the printed circuit board, connected by a circuit, illuminates upon receiving a corresponding control signal, and displays the charging level of the battery module.

[0022] The light-emitting component is configured to emit light that shines in the direction in front of the printed circuit board or in the direction in the direction of the center of the printed circuit board.

[0023] The parabolic reflective surface is formed by coating a material that reflects light.

[0024] The light-transmitting and reflective component is formed by coating a material that reflects light.

[0025] The coating material is silver or chromium, and it is formed by vacuum sputtering.

[0026] To achieve the aforementioned necessity and objectives, the present invention provides a mirror-mounted powder box system with cooling, sterilization, and lighting functions, comprising a lower container, an upper shell, a lighting module, a control module, and a battery module. Preferably, the control module includes: a power switch unit installed in a portion of the upper shell, which supplies or cuts off the operating power of the battery module to each drive unit of the system via a command signal input from the outside using a touch signal; a central management unit that, after receiving the operating power from the battery module, connects to each functional unit of the system according to a built-in and installed program and operating values, thereby monitoring the operating status and outputting corresponding control signals; a light-emitting control unit that controls the light-emitting components to be on or off according to the corresponding control signals from the central management unit; and a display charging control unit that, according to the control signals from the central management unit, controls the light-emitting components to be on or off. The system includes: a corresponding control signal that controls the display of the charging status detected by the battery module on the charging LED; an on / off sensing lighting linkage control unit that inputs the sensing signal from the Hall sensor and transmits it to the light emission control unit based on the corresponding control signal from the central management unit of the control module; a lighting intensity adjustment control unit that adjusts the brightness value output by the light emission component based on the corresponding control signal from the central management unit of the control module and then transmits it to the light emission component; a lighting adjustment switch unit that inputs external input command signals as touch signals and transmits them to the lighting intensity adjustment control unit based on the corresponding control signal from the central management unit of the control module; a terminal device linkage control unit that connects with a nearby portable terminal via Wi-Fi or Bluetooth through the corresponding control signal from the central management unit of the control module, thereby enabling bidirectional simultaneous sending and receiving of communication signals; and an alarm control unit that generates and outputs an alarm sound signal based on the corresponding control signal from the central management unit of the control module.

[0027] The lighting adjustment switch is configured to receive a command signal to control the lighting intensity to gradually increase when pushed in one direction and gradually decrease when pushed in the other direction.

[0028] The central management unit of the control module is configured to determine that when the lighting adjustment switch unit does not input a command signal to adjust the lighting intensity within a predetermined time, it performs corresponding control to set a reference intermediate lighting value or outputs a corresponding control signal.

[0029] Preferably, the system may include: a health and beauty information database unit, which records and manages health and beauty information in allocated areas according to the corresponding control signals from the central management unit of the control module, and outputs information based on search signals; a GPS module unit, which receives GPS signals emitted by artificial satellites according to the corresponding control signals from the central management unit of the control module, and outputs calculated coordinate information; a temperature and acceleration sensor unit, which detects the surrounding temperature and acceleration according to the corresponding control signals from the central management unit of the control module; a speaker module unit, which outputs audible signals at the voice level according to the corresponding control signals from the central management unit of the control module; and a microphone module unit, which outputs audible signals according to the corresponding control signals from the central management unit of the control module. The system includes: a voice-level audible (audio) input unit; an illuminance sensor module that detects ambient brightness values ​​based on corresponding control signals from the central management unit of the control module; a speech-to-text / text-to-speech unit configured to convert voice-level speech signals transmitted from the microphone module into text signals based on corresponding control signals from the central management unit of the control module, and to convert retrieved and received text signals into voice-level language signals before outputting them to the speaker module; a spray module that converts liquid into mist spray based on corresponding control signals from the central management unit of the control module; and a Peltier element that transmits cooled temperatures to the powder solids based on corresponding control signals from the central management unit of the control module.

[0030] The lighting intensity adjustment control unit is configured to adjust the current and voltage values ​​applied to the light-emitting component and adjust the brightness value according to the corresponding control signal from the central management unit of the control module.

[0031] The lighting intensity adjustment control unit adjusts the brightness value by adjusting the lighting numbers of the LEDs configured on the light-emitting component, based on the corresponding control signal from the central management unit of the control module.

[0032] The GPS module receives location-based service (LBS) signals provided by the mobile communication base station according to the corresponding control signals from the central management unit of the control module and outputs the calculated coordinate information.

[0033] The GPS module receives the GPS signal and the location-based service (LBS) signal respectively according to the corresponding control signal from the central management unit of the control module, and outputs the average coordinate information calculated by arithmetic mean.

[0034] The lower container and upper shell are molded from a resin composition that is durable, corrosion-resistant, and waterproof. The resin composition comprises, relative to 100% by weight of a durable, corrosion-resistant, and insulating polycarbonate resin, 10% by weight of a metallopolysiloxane, 15% by weight of cashew nut oil, and nano-sized silica.

[0035] The mixture consists of 20% by weight of zirconium oxide composite powder, 15% by weight of TCPP (tris 2-chloropropyl phosphate), 10% by weight of polyvinyl butyral, and 10% by weight of 6-bromohexanoic acid.

[0036] The lower container 100 and the upper shell 200 are coated with an antibacterial agent with an average thickness of 100 micrometers for antibacterial and foreign matter removal.

[0037] The antibacterial agent is composed of, relative to 100% by weight of water-soluble acrylic resin, 4.5% by weight of copper nanoparticles, 3.5% by weight of zinc oxide, 25% by weight of Dendropanax Morbiferus Extract, 15% by weight of Zirconium Phosphate, 10% by weight of Cilopirox, and 4.5% by weight of titanium dioxide nanoparticles.

[0038] The nanopowder is composed of particles with an average diameter of 100 nanometers.

[0039] According to the configuration of the present invention as described above, its beneficial effect is that when the ambient temperature of the small powder box with mirror is detected to be higher than the set temperature, cooling is used to prevent the storage temperature of the contained cosmetics from rising above the set temperature, thereby preventing the cosmetics from deteriorating and protecting the user's skin health.

[0040] Furthermore, the beneficial effect of this invention is that it removes harmful pollutants that flow into the surface of the small powder box with mirror during use and contaminate it through photocatalysis, eliminates attached bacteria, and protects the user's health from the source.

[0041] In addition, the beneficial effect of the present invention is that when the peripheral illuminance value of the powder compact with mirror is detected to be lower than the segmented set value, the surface light source with the corresponding brightness of each segment outputs soft illumination, which evenly illuminates the concave skin surface of the user's face, thus making it convenient to apply makeup correctly as needed during use. Attached Figure Description

[0042] Figure 1 This is a functional configuration illustration of a mirrored powder box device with illumination function according to a previous embodiment of the prior art;

[0043] Figure 2 This is a perspective view of a mirrored powder box device with illumination function according to an embodiment of the present invention;

[0044] Figure 3 This is a front view of a mirrored powder box device with illumination function according to an embodiment of the present invention;

[0045] Figure 4 This is an open perspective view of a mirrored powder box device with illumination function according to an embodiment of the present invention.

[0046] Figure 5 This is an exploded top perspective view of the upper housing of a small powder box device with lighting function according to an embodiment of the present invention.

[0047] Figure 6 This is an exploded lower perspective view of the upper housing of a small powder box device with illumination function according to an embodiment of the present invention.

[0048] Figure 7 This is an enlarged cross-sectional view of portion AA in the reflector according to a preliminary embodiment of the present invention;

[0049] Figure 8 These are a top perspective view (A) and a bottom perspective view (B) of a printed circuit board assembly according to an embodiment of the present invention.

[0050] Figure 9 This is a side view of the printed circuit board assembly and the reflector combined according to an embodiment of the present invention;

[0051] Figure 10 This is a lower perspective view of a reflector according to an embodiment of the present invention;

[0052] also, Figure 11 This is a functional block diagram of the control module of a small powder box device with lighting function and mirror according to an embodiment of the present invention.

[0053] Symbol Explanation

[0054] 90: A small powder box system with a mirror, featuring cooling, sterilization, and lighting functions; 100: Lower container; 200: Upper shell; 201: Rotating part; 300, 300': Lighting module; 300: Printed circuit board assembly; 311, 311': Printed circuit board; 320: Light-emitting component; 330, 330': Reflector; 332': Light-transmitting and reflecting component; 334: Reflection module; 336: Reflecting part; 340: Light-transmitting component; 340': Parabolic reflective light-transmitting component; 341: Plate-shaped part; 341a: Shielding part; 341b: Light-transmitting part; 342: Connecting part; 342': Parabolic reflective surface; 350: Display charging LED; 400: Control module; 410: Switching power supply. 415: Health and Beauty Information Database Department; 420: Lighting Control Department; 425: GPS Module Department; 430: Display and Charging Control Department; 435: Temperature Acceleration Sensor Department; 440: Opening and Closing Sensing Lighting Linkage Control Department; 445: Speaker Module Department; 450: Lighting Intensity Adjustment Control Department; 455: Microphone Module Department; 460: Lighting Adjustment Switch Department; 465: Illuminance Sensor Module Department; 470: Terminal Device Linkage Control Department; 475: Voice-to-Text and Text-to-Speech Department; 480: Alarm Control Department; 485: Spray Module Department; 487: Illuminance Sensor Module Department; 490: Control Module Central Management Department; 495: Peltier Component Department; 510: Charging Port. Detailed Implementation

[0055] The following description, in conjunction with the accompanying drawings, details specific embodiments of the present invention. However, these described embodiments represent only a portion, not all, of the embodiments. Based on the embodiments of the present invention, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features; such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention. Furthermore, when describing the present invention, if the specific description of relevant known technologies obscures the key points of the present invention, such description will be omitted.

[0056] In the accompanying drawings described in this invention, some parts are enlarged or highlighted to make the explanation and understanding of the functions relatively easy.

[0057] The features of this invention will be described below by directly utilizing the technologies of Korean Patent Registration No. 10-1579404 (December 15, 2015) "Illuminating Mirror for Small Powder Box with Improved Usability" and Korean Patent Application No. 10-2023-0091344 (July 13, 2023) "Small Powder Box Device with Illumination Function".

[0058] The following describes in detail, with reference to the accompanying drawings, a mirrored powder box device with illumination function according to an embodiment of the present invention.

[0059] Figure 2 This is a perspective view of a mirrored powder box device with illumination function according to an embodiment of the present invention. Figure 3 This is a front view of a powder box device with illumination function and a mirror according to an embodiment of the present invention. Figure 4 This is an open perspective view of a mirrored powder box device with illumination function according to an embodiment of the present invention. Figure 5 This is an exploded top perspective view of the upper housing of a mirror-mounted powder box device with illumination function according to an embodiment of the present invention. Figure 6 This is an exploded lower perspective view of the upper housing of a small powder box device with illumination function according to an embodiment of the present invention. Figure 7 This is an enlarged cross-sectional view of portion AA in the reflector according to a preliminary embodiment of the present invention. Figure 8 These are a top perspective view (A) and a bottom perspective view (B) of a printed circuit board assembly according to an embodiment of the present invention. Figure 9 This is a side view of the printed circuit board assembly and reflector combined according to an embodiment of the present invention. Figure 10 This is a lower perspective view of a reflector according to an embodiment of the present invention. Figure 11 This is a functional block diagram of the control module of a small powder box device with lighting function and mirror according to an embodiment of the present invention.

[0060] A small powder box device with illumination function according to an embodiment of the present invention, such as a mirror, is as follows: Figures 2 to 11 As shown, it generally includes a lower container 100, an upper housing 200, a lighting module 300, a control module 400, and a battery module 500.

[0061] Specifically, the mirrored powder box device with illumination function of the present invention is as follows: Figures 2 to 11 As shown, it includes: a lower container 100 having a recessed receiving portion for containing powder solids 101; an upper housing 200 rotatably coupled to the lower container 100 about a rotating portion 201 on one side, serving as a lid for opening and closing the upper part of the lower container 100; an illumination module 300 provided in the upper housing 200 and configured to emit light from the upper housing 200 as an illumination device for a small powder box with a mirror; a control module 400 provided in at least one or both of the lower container 100 and the upper housing 200, controlling the operation of the illumination module 300; and a battery module 500 provided in at least one or both of the lower container 100 and the upper housing 200, configured to provide power to the control module 400.

[0062] The lower container 100 is formed by an outer shell or housing having a receiving portion that can contain cosmetic powder or a solid 101 for solidifying powder.

[0063] The upper shell 200 is rotatably connected to the lower container 100 via a rotating part 201 that is hinged to the upper end of the lower container 100 on one side, thereby functioning as a lid for the lower container 100.

[0064] Here, the rotating part 201 may be equipped with a braking device so that when the upper housing 200 rotates relative to the lower container 100 and opens, it is temporarily fixed at a predetermined rotational position.

[0065] In other words, in the rotating part 201, one of the lower container 100 and the upper shell 200 has a circular or dome-shaped groove spaced apart on its surface in the rotational direction, and the other of the lower container 100 and the upper shell 200 has a circular or dome-shaped protrusion on its surface. Here, the protrusion may be composed of a ball that is elastically supported by a spring member and partially protrudes outward and can move inward.

[0066] Furthermore, the lower container 100 and the upper shell 200, facing the rotating part 201, are provided with a locking-unlocking device that can lock the lower container 100 and the upper shell 200 together when the upper shell 200 covers and seals the lower container 100. The locking-unlocking device can adopt the locking-unlocking components used in known small powder compacts with mirrors, such as having a hook-shaped locking protrusion on one side and a locking groove on the other.

[0067] In this invention, the upper housing 200 is formed by an outer shell that can open the lower side (the side facing the lower container), and a light-transmitting component of the lighting module 300, which will be described below, is provided on the lower side of the upper housing 200.

[0068] The upper housing 200 described in this invention can be formed to be transparent or semi-transparent, allowing light to pass through entirely or on one side. This will be explained again in the following description of the light-emitting component included in the lighting module, namely the light-emitting element for charging display.

[0069] As shown in the figure, the lower container 100 and the upper shell 200 can be formed not only as a circle, but also as a square or other polygons with aesthetic appeal, as well as various other shapes and appearances.

[0070] In this invention, multiple holes (micro-holes) can be formed on the upper housing 200 along its outer periphery. Therefore, the upper housing 200 is provided with a lighting module 300, which can be used to release the heat generated from the lighting module 300.

[0071] Figure 210 is a powder puff tray component, one side of which is rotatably connected to the other side of the lower container 100 via a rotating part 211, with the powder puff (not shown) located on its upper or lower part.

[0072] The lighting module 300 is a component provided on the upper housing 200 and indirectly irradiates light (illumination) to make the upper housing 200 emit light. The preliminary embodiment and an embodiment will be described in turn.

[0073] <Preliminary Example>

[0074] The lighting module 300' according to the preliminary embodiment includes: a printed circuit board (PCB); a light-emitting component 320 disposed on the printed circuit board (PCB) 310'; a reflector component 322' disposed on the lower part of the light-emitting component 320 and configured to reflect light irradiated from the light-emitting component 320 in the rear direction in the front direction; a reflector 330' that receives light generated by the light-emitting component 320 and light reflected by the reflector component 332' and diffusely reflects it; and a parabolic reflective light-transmitting component 340' disposed on the outer edge of the printed circuit board 311' and provided with a parabolic reflective surface 342' so that the light generated by the light-emitting component 320 and the light diffusely reflected by the reflector 330' bend towards the center direction where the mirror is located and reflect and transmit light.

[0075] In the accompanying drawings, the printed circuit board 311' is shown as a ring, but it can of course also be made of a circular flat plate shape.

[0076] The printed circuit board 311' includes various known components and circuit patterns required for lighting control operations.

[0077] The light-emitting component 320 is composed of a plurality of LEDs spaced apart along the circumferential direction on the lower edge of the printed circuit board 311'.

[0078] In this invention, the illumination direction of the light-emitting component 320 is arranged to illuminate light in the direction facing the front of the mirror, i.e., in a right-angle direction toward the plane formed by the printed circuit board 311' or toward the center, so as to face the user's face. Its advantage is that the illumination (light) diffused by the reflector 330' and reflected by the parabolic reflective surface 342' of the parabolic reflector 340' can directly or indirectly illuminate the user's face, thereby avoiding shadows.

[0079] The reflector 330' is disposed on the upper part of the light-emitting component 320 and is configured to diffusely reflect the light generated and irradiated by the light-emitting component 320 and the light reflected by the reflector component 332'.

[0080] The parabolic reflective light-transmitting component 340' is formed in a ring shape and is positioned between the outer peripheral surface of the printed circuit board 311' and the upper housing 200'.

[0081] The parabolic reflector 342' and the reflector component 332' can be formed of materials that reflect light very well and attached in close contact, or they can be formed by plating light-reflecting materials onto the corresponding surfaces of the parabolic reflective light-transmitting component 340' and the printed circuit board 311'. Such plating materials include silver and chromium, and the plating is performed using vacuum sputtering. Vacuum sputtering is a widely known technique and will not be described in detail here.

[0082] <An Example>

[0083] According to one embodiment, the lighting module 300 includes: a printed circuit board assembly (PCB assembly) 310; a light-emitting component 320 disposed on the PCB assembly 310; a reflector 330 disposed on the lower part of the light-emitting component 320 and configured to reflect light irradiated by the light-emitting component 320 to a light-transmitting reflective component 340; and a light-transmitting component 340 disposed on the upper part of the reflector 330, combined with the lower part of the upper housing 200, and in which light reflected by the reflector 330 is transmitted.

[0084] The printed circuit board assembly 310 comprises various known components and circuit patterns required for the lighting control operation of the printed circuit board 311.

[0085] The light-emitting component 320 consists of a plurality of LEDs spaced apart along the circumferential direction on the lower edge of the printed circuit board 311 of the printed circuit board assembly 310.

[0086] In this invention, the illumination direction of the light-emitting component 320 is arranged to illuminate the horizontal direction, i.e., the center of the printed circuit board 311. Furthermore, it is tightly connected to the reflector 330 so that indirect illumination is achieved by reflection through the reflector 330.

[0087] The reflector 330 is located at the lower part of the light-emitting component 320 and is a component configured to reflect the light irradiated by the light-emitting component 320 to the light-transmitting reflective component 340.

[0088] Specifically, the reflector 330 is formed as an annular ring with a predetermined width, and the width portion is formed to gradually slope inward from the top to the bottom. In other words, the reflector 330 is formed as a conical cylinder, and the side with the larger diameter (larger diameter portion) is located on the top side.

[0089] In this invention, the light-emitting component 320 is arranged below the edge of the printed circuit board 311, and the reflector 330, which is a large-diameter portion, is arranged on the side of the printed circuit board 311 and located within a virtual circle that connects the light-emitting components 320 along the circumferential direction. It is also arranged at certain intervals in the radial direction starting from the light-emitting component 320.

[0090] The reflective surface of reflector 330 can be formed by coating.

[0091] Preferably, the mounting surface of the light-emitting component 320 and the upper end of the reflector 330 on the printed circuit board 311 are located on the same plane.

[0092] Then, the parabolic reflective light-transmitting component 340 is a component in which a reflector 330 is provided on the upper part and is attached to the lower part of the upper housing 200, and the light reflected from the reflector 300 is transmitted to the outside.

[0093] Specifically, the central part of the parabolic reflective light-transmitting component 340 is composed of a shielding part 341a, and the edge part is formed by a plate-shaped part 341 formed by a transparent or semi-transparent light-transmitting annular light-transmitting part 341b and a connecting part 342 that protrudes upward from the outer edge of the plate-shaped part 341 and is joined to the lower end of the upper housing 200.

[0094] A mirror is provided below the shielding part 341a.

[0095] The connecting portion 342 of the parabolic reflective light-transmitting component 340 and the lower end of the upper housing 200 are connected by either a threaded connection or a bayonet connection. Here, the bayonet connection can be configured to rotate to the left or right at a predetermined rotation angle (e.g., between 8 and 30 degrees) and then secure in place in one step. In other words, the bayonet fastening method involves forming a pair of... A shaped fastening groove is formed on one side, and a pair of fastening protrusions are formed on the other side to hold the fastening protrusions from... The fastening groove is inserted vertically and then rotated horizontally (e.g., between 8 and 30 degrees) to fasten it in one go.

[0096] In this invention, multiple holes (micropores) can be formed on the plate-shaped portion 341 of the parabolic reflective light-transmitting component 340. Because the upper housing 200 is provided with an illumination module 300, it can be used to release the heat generated from the illumination module 300.

[0097] On the other hand, the lighting module 300 may also include a charging display light-emitting component, namely a charging display LED 350, disposed on one side of the printed circuit board 311 of the printed circuit board assembly 310 for displaying the display status of the battery module 500.

[0098] Here, the upper housing 200 portion on the side where the charging LED 350 is located can be formed to allow light to pass through, either transparently or semi-transparently. Of course, the entire upper housing 200 can be formed of a transparent or semi-transparent material.

[0099] The lighting module 300 may further include an upper housing opening / closing sensing device disposed between the upper container 100 and the upper housing to sense the opening and closing of the upper housing 200 and to automatically open / close the light-emitting component 320.

[0100] The upper housing opening and closing sensing device consists of a Hall sensor module.

[0101] Specifically, the upper housing opening and closing sensing device may include a magnet disposed in one of the lower container 100 and the upper housing 200, and a Hall sensor disposed in the other of the lower container 100 and the upper housing 200 for sensing the magnetic field of the magnet.

[0102] The signal detected by the Hall sensor module is transmitted to the light emission control unit 420 of the control module 400, which controls the light emission of the light emission component 320 to be in the on or off state.

[0103] In this invention, the printed circuit board assembly 310 is disposed in the upper housing 200. Therefore, preferably, the Hall sensor is disposed on one side of the upper housing 200, and the magnet is disposed in the lower container 100.

[0104] Then, the control module 400 is disposed in at least one or one of the lower container 100 and the upper housing 200, and becomes a component for controlling the operation of the lighting module 300.

[0105] Specifically, the control module 400 includes a power switch 410 for turning the battery module 500 on / off, a light emission control 420 for controlling the light emission of the light emission component 320, a display charging control 430 for displaying the charging status of the battery module 500, and an on / off sensing lighting linkage control 440 for receiving sensing signals from a Hall sensor and controlling the light emission control 420.

[0106] The control module 400 may also include an illumination intensity adjustment control unit 450 for adjusting the illumination intensity (luminous intensity) of the light-emitting component 320, and an illumination adjustment switch unit 460 for transmitting the user's illumination intensity input signal to the illumination intensity adjustment control unit 450.

[0107] The power on / off switch 410 and the lighting adjustment switch 460 are composed of a diaphragm sensor switch.

[0108] The lighting adjustment switch 460 is configured such that, by inputting a command signal, the intensity of the lighting gradually increases when pushed in one direction and gradually decreases when pushed in the other direction.

[0109] When the central management unit 490 of the control module determines that the lighting adjustment switch unit 460 has not input a command signal to adjust the lighting intensity within a predetermined time, it performs corresponding control to set the intermediate lighting value as a reference or outputs a corresponding control signal.

[0110] Here, the set time can be set arbitrarily, but preferably 1 to 2 hours. Of course, the set time can be left unset as needed, so that the final adjusted brightness value of the lighting is maintained.

[0111] Then, the battery module 500 is disposed in at least one or one of the lower housing 100 and the upper housing 200, and is a battery component that provides operating power to the control module 400.

[0112] The battery module 500 preferably includes a charging port (a Type-C charging port in the figure) 510 for connecting a charging cable and a rechargeable battery 520 disposed in the upper housing 200. Of course, the battery module 500 can be composed of a replaceable battery module that can accommodate disposable batteries, or it can be integrated with the aforementioned rechargeable battery module.

[0113] According to one embodiment of the present invention, the powder box device with lighting function may further include a terminal device linkage module disposed in one of the lower container 100 or the upper housing 200 and linked to the lighting module 400 of the smartphone.

[0114] Here, the control module 400 may also include a terminal device linkage control unit 470, which enables linkage between the terminal device linkage module and the smartphone.

[0115] According to an embodiment of the present invention, the powder box device with illumination function may further include an acceleration sensor disposed on one of the lower container 100 or the upper housing 200, and a speaker module disposed on one of the lower container 100 or the upper housing 200 to receive the signal from the acceleration sensor and generate an alarm sound.

[0116] Here, the control module 400 also includes an alarm control unit 480 that receives the sensing signal from the acceleration sensor and then triggers an alarm sound through a speaker module.

[0117] The alarm control unit 480 triggers an alarm when the detection signal from the acceleration sensor reaches or exceeds a preset value.

[0118] Typically, women carry the small pink box product with mirror in their handbags. If a woman swings her handbag to defend herself against a sexual harasser, the product can activate an alarm via the aforementioned accelerometer, speaker module, and alarm control unit 480, alerting those around her and thus protecting her from criminal attacks.

[0119] According to an embodiment of the present invention, the powder box device with illumination function may further include a GPS module disposed on one of the lower container 100 or the upper housing 200 and transmitting the position signal to the terminal device linkage control unit 470.

[0120] In this situation, if a handbag with a built-in pink box containing a camera is accidentally lost, its location can be tracked using the camera box, which includes a GPS module.

[0121] According to the above-described embodiment of the present invention, a small powder box device with a lighting function can be provided to prevent the light from directly shining into the user's eyes and to prevent glare caused by direct light. Therefore, it has the advantage of improving the usability and functionality of the small powder box with a mirror.

[0122] Furthermore, the advantages of this invention are that, taking into account that women often carry it, it provides a variety of functions, including an emergency alarm function and a positioning function, to further expand the functionality and applicability of the mirrored powder compact. It also prevents the powder from deteriorating by preventing the powder from being affected by the heat generated by the light-emitting part, thereby ensuring product reliability.

[0123] Other embodiments of the present invention also require the ability to detect ambient illuminance and adjust the brightness of the lighting to the corresponding multi-stage levels. Health and beauty information is recorded and managed in the built-in memory, and user questions are identified through artificial intelligence analysis to provide corresponding information. The system can also measure the ambient temperature; if it exceeds a preset temperature, the temperature of the powder solid 101 is set to a lower temperature to prevent deterioration.

[0124] The functions that do not specify the installation location among the functional parts that make up the control module 400 are preferably located on the printed circuit board 311.

[0125] The structure of a Peltier element involves two different conductive materials (conductors) through which current flows, resulting in a continuous temperature difference between the two ends of the conductive material layer. It is said to have been discovered by the French physicist Jean-Charles Athanase Peltier in 1834.

[0126] A Peltier element is a structure in which one side of two different conductors absorbs heat and the other side dissipates heat. It is used in noiseless refrigerators or insulated boxes.

[0127] Photocatalysis is a process in which specific substances, when exposed to light or light energy, participate in a chemical reaction system, thereby undergoing only specific reactions such as oxidation or reduction, or accelerating the reaction rate. Titanium dioxide nanoparticles are widely known as representative materials with photocatalytic activity.

[0128] According to other embodiments, a mirrored powder box system 90 with cooling, sterilization, and lighting functions includes a lower container 100, an upper shell 200, a lighting module 300, a control module 400, and a battery module 500. The control module 400 comprises a power switch unit 410, a central management unit 490, a light emission control unit 420, a display charging control unit 430, an on / off sensing lighting linkage control unit 440, a lighting intensity adjustment control unit 450, a lighting adjustment switch unit 460, a terminal device linkage control unit 470, an alarm control unit 480, a health and beauty information database unit 415, a GPS module unit 425, a temperature acceleration sensor unit 435, a speaker module unit 445, a microphone module unit 455, an illuminance sensor module unit 487, a text-to-speech unit 475, a spray module unit 485, and a Peltier element unit 495.

[0129] The switching power supply switch 410 is installed in a part of the upper housing 200, and supplies or cuts off the operating power of the battery module 500 to each drive unit of the system 90 through a command signal input from the outside via a touch signal.

[0130] The central management unit 490 of the control module receives the operating power from the battery module 500, and connects to the various functional units that make up the mirror-equipped powder box system 90, which has cooling, sterilization, and lighting functions, according to the built-in installed and used programs and operating values. It then monitors the operating status and outputs corresponding control signals to each of these functional units. The detailed functions of the central management unit 490 are further explained in the descriptions of each functional unit.

[0131] The light-emitting control unit 420 controls the light-emitting component 320 to be in an on or off state according to the corresponding control signal from the central management unit 490 of the control module.

[0132] The light-emitting component 320 is a point light source when it emits light, but it becomes a line light source when it emits light in a linear manner. When a line light source is emitted in a dispersed state through a semi-transparent or scattering device, it becomes a surface light source. It is widely known that surface light sources generally do not create shadows.

[0133] The display charging control unit 430 controls the display of the charging status detected by the battery module 500 on the display charging LED 350 based on the corresponding control signal from the central management unit 490 of the control module. Although four display charging LEDs 350 are shown in the attached figure, it is self-evident that the number can be increased or decreased. The display charging control unit 430, based on the charging status of the rechargeable battery 520, illuminates a corresponding number of LEDs from the majority of LEDs constituting the display charging LED 350 according to their proportion. Furthermore, if a majority of LEDs are illuminated, it indicates a large charging capacity; if a minority of LEDs are illuminated, it indicates a small charging capacity.

[0134] The on / off sensing lighting linkage control unit 440 inputs the sensing signal of the Hall sensor and transmits it to the light emission control unit 420 based on the corresponding control signal from the central management unit 490 of the control module.

[0135] Furthermore, the central management unit 490 of the control module analyzes the signal applied by the Hall sensor, detects when the lower container 100 is engaged with the upper housing 200, controls the light-emitting diode (LED) constituting the light-emitting component 320 to be in the off state, and detects when the lower container 100 is separated from the upper housing 200, controls the light-emitting diode (LED) constituting the light-emitting component 320 to be in the on state.

[0136] The lighting intensity adjustment control unit 450 adjusts the brightness value output by the light-emitting component 320 according to the corresponding control signal from the central management unit 490 of the control module, and then transmits it to the light-emitting component 320. The central management unit 490 of the control module adjusts the brightness value by adjusting the current value and voltage value or by adjusting the LED number of the light.

[0137] The lighting adjustment switch unit 460 receives an external input command signal as a touch signal and transmits it to the lighting intensity adjustment control unit 450 based on the corresponding control signal from the central management unit 490 of the control module. Then, the central management unit 490 of the control module analyzes the touch input signal to determine whether it is a command signal to control the lighting to brighten or dim, and then outputs the corresponding control signal.

[0138] The terminal device linkage control unit 470 connects with nearby portable terminals via Wi-Fi or Bluetooth through corresponding control signals from the control module central management unit 490, enabling simultaneous bidirectional transmission and reception of communication signals. Then, the control module central management unit 490 connects to nearby mobile communication portable terminals via Wi-Fi or Bluetooth through the terminal linkage control unit 470, thereby sending and receiving signals. When connected via Wi-Fi or Bluetooth, it can also connect to the internet, allowing for web browsing and searching.

[0139] Once connected to the internet, you can search for all kinds of necessary information and listen to your favorite music. This kind of internet access is widely known, so I won't go into further detail.

[0140] The alarm control unit 480 generates and outputs an alarm sound signal based on the corresponding control signal from the central management unit 490 of the control module. The central management unit 490 then outputs the corresponding control signal to the alarm control unit 480, causing the alarm sound signal corresponding to the warning signal to be output, thereby informing the surrounding users that an emergency has occurred. If necessary, the central management unit 490 can control the terminal device to link with the control unit 470 and establish a wireless communication path with a designated party.

[0141] The health and beauty information database unit 415 records and manages health and beauty information in designated areas according to corresponding control signals from the central management unit 490 of the control module, and outputs information based on search signals. For example, health and beauty information can record information such as foods beneficial to health in different seasons, suitable resting places, beauty-enhancing exercise methods, and suitable exercise locations, and output information selected based on a search. This information is updated and managed, and can be wirelessly received via the terminal device linkage control unit 470, and recorded in designated memory areas.

[0142] GPS module 425 receives GPS signals transmitted by artificial satellites according to the corresponding control signals from the central management unit 490 of the control module, and outputs the calculated coordinate information.

[0143] GPS is widely known, so it will not be explained further.

[0144] Furthermore, the GPS module 425 receives location-based service (LBS) signals provided by the mobile communication base station according to the corresponding control signals from the central management unit 480 of the control module, and outputs the calculated coordinate information.

[0145] On the other hand, the GPS module 425 receives GPS signals and location-based service (LBS) signals respectively according to the corresponding control signals from the central management unit 490 of the control module, and outputs the average coordinate information calculated by arithmetic average.

[0146] Then, the central management unit 490 of the control module receives coordinate information based on GPS signals, coordinate information based on location-based services (LBS) signals, GPS signals, and location-based services (LBS) signals respectively according to the input command signals, programs, and parameter values, and controls and monitors the selection of a certain output from the average coordinate information calculated by arithmetic average.

[0147] The temperature and acceleration sensor unit 435 detects the ambient temperature and acceleration respectively based on the corresponding control signals from the central management unit 490 of the control module. Sensors that detect temperature and acceleration separately are also widely known, and therefore will not be described in detail here.

[0148] The speaker module 445 outputs a voice-level audible signal based on the corresponding control signal from the control module central management unit 490. The control module central management unit 490 adjusts the output voice-level signal level according to a corresponding command signal or according to a set program and parameter values. Here, the command signal refers to a signal input from an external source.

[0149] The microphone module 455 receives a voice-level audible (audio) signal based on the corresponding control signal from the central management unit 490 of the control module.

[0150] The illuminance sensor module 487 detects the ambient luminance value input based on the corresponding control signal from the central management unit 490 of the control module.

[0151] The speech-to-text / text-to-speech unit 475 is configured to consist of a speech-to-text (STT) module that converts speech-level language signals input from the microphone module 455 into text signals according to corresponding control signals from the central management unit 490 of the control module, and a text-to-speech (TTS) module that converts retrieved and received text signals into speech-level language signals and outputs them to the speaker module 445. The speech-to-text (STT) and text-to-speech (TTS) modules are widely known and will not be described in detail here.

[0152] Its advantages are that it can connect to the Internet via voice signal through the speech-to-text-to-speech unit 475, search for the information you need, listen to the search results by voice to confirm, and you can also choose to listen to your favorite music.

[0153] The spray module 485 is a structure that converts liquid into a mist spray based on the corresponding control signal from the central management unit 490 of the control module. Here, the liquid includes perfume, disinfectant, purified water, etc., and the structure uses an ultrasonic vibration element to convert such liquid into a mist before discharging it.

[0154] The Peltier element unit 495 transmits the cooling temperature to the powder solid 101 according to the corresponding control signal from the central management unit 490 of the control module. Here, when the central management unit 490 of the control module detects that the set predetermined temperature or the average indoor temperature reaches 25 degrees Celsius or above, in order to prevent the powder solid 101 from being subjected to high temperature and thus deteriorating, it transmits the cooling temperature generated by the Peltier element to the powder solid 101.

[0155] It goes without saying that the Peltier element section 495 can replace the Peltier element when it is functioning. Furthermore, compounds, mixtures, and compositions containing powdered solids 101 generally undergo accelerated chemical reactions and deterioration at higher ambient temperatures. Therefore, it is preferable to maintain a low temperature, but preferably, the average indoor temperature is controlled below 25 degrees Celsius. Thus, when an ambient temperature is detected to be higher than the average of 25 degrees Celsius, the Peltier element section 495 is activated to apply cooling temperature to the powdered solids 101.

[0156] On the other hand, the lower container 100 and the upper shell 200 are structures molded from a resin composition that is durable, corrosion-resistant, and waterproof. The resin composition is composed of, relative to the weight percentage of the durable, corrosion-resistant, and insulating polycarbonate resin 100, 10 weight percentages of a metallic polysiloxane, 15 weight percentages of cashew nut oil, 20 weight percentages of silica-zirconia composite powder with nanoparticle size, 15 weight percentages of TCPP (tris 2-chloropropyl phosphate), 10 weight percentages of polyvinyl butyral, and 10 weight percentages of 6-bromohexanoic acid.

[0157] Polycarbonate resin is a base resin used to increase corrosion resistance, durability, and adhesion. Metallic polysiloxanes can improve defoaming and water resistance, thereby protecting the surface.

[0158] Cashew kernel oil is an extract from the pericarp of cashews grown in India. It contains a large amount of cardiotonic phenols and anacardic acid, which improve the coating strength of the insulation layer, thereby enhancing its durability and adhesion, thus extending the lifespan of the insulation layer and anti-rotation components.

[0159] The addition of silica-zirconia composite powder is to utilize the enhanced surface activity of porous silica and zirconia to improve buffering, sound absorption, waterproofing, and water pressure resistance, increase the cohesion between components, inhibit cracking, and thus maintain a strong bond.

[0160] The addition of TCPP (tris 2-chloropropyl phosphate) enhances heat resistance, reduces fatigue, prevents cracking and breakage, and thus maintains a long service life for the coated surface. The addition of polyvinyl butyral ensures chemical resistance and flexibility, maintains the stability of the coated surface or molded parts, and inhibits oxidation, thereby enhancing antifouling and water resistance.

[0161] The addition of 6-bromohexanoic acid is to prevent moisture penetration by oxygen, thus preventing cracking and breakage of the coated surface and preventing deterioration. Furthermore, its addition also enhances water pressure resistance and heat resistance.

[0162] The lower container 100 and the upper shell 200 are sprayed with an antibacterial agent with an average thickness of 100 micrometers for antibacterial and foreign matter removal. The antibacterial agent is composed of, relative to the weight percentage of water-soluble acrylic resin 100, 4.5 weight percentage of copper nanoparticles, 3.5 weight percentage of zinc oxide, 25 weight percentage of Dendropanax Morbiferus Extract, 15 weight percentage of Zirconium Phosphate, 10 weight percentage of Cilopirox, and 4.5 weight percentage of titanium dioxide nanoparticles.

[0163] Acrylic resin is a synthetic resin composed of polymers of acrylic acid or methacrylic acid and their derivatives. It has high transparency, thermoplasticity, and good weather resistance and heat resistance when used as a lacquer.

[0164] Copper is a typical metal with bactericidal properties. When it comes into contact with bacteria, copper ions are absorbed by the cells and damage the cell membrane, creating pores in the cell membrane. This deprives the cells of nutrients and hinders their metabolism, thereby inhibiting and destroying bacterial activity.

[0165] Zinc oxide is an antibacterial substance safe for human use. Preferably, in this invention, in addition to its antibacterial properties, it also maintains a certain level of air permeability (e.g., 330 cm²) while preserving whiteness and filter porosity. 2 Added ( / sec).

[0166] In addition, preferably, the extract of Dendropanax morbifera was evaluated according to the description on pages 29-36 of the article "The Antimicrobial Activity of Fermented Extracts from Korean Dendropanax morbifera" in the journal of the Korean Society for Life Sciences, Vol. 29, No. 1 (2019.1). The antimicrobial activity of the fermented extracts of leaves, branches, and sap of Dendropanax morbifera was compared with that of Escherichia coli, Staphylococcus aureus (S. aureus), and Pseudomonas aeruginosa (P. aeruginosa) using the minimum inhibitory concentration (MIC) method and disk diffusion. The results showed that the antimicrobial activity of all three bacterial groups was significantly increased. Therefore, based on this paper, it can be confirmed that it belongs to the category of natural antimicrobial substances.

[0167] In addition, zirconium phosphate is an inorganic antibacterial agent that exerts its antibacterial function by inhibiting the growth of microorganisms, i.e., by inhibiting their reproduction.

[0168] Cilopirox, equivalent to CAS No. 29342-05-0, works by inhibiting lanosterol 14α-demethylase, a protein involved in the biosynthesis of ergosterol, a component of fungal cell membranes, thus achieving an antifungal effect. Therefore, it is effective against Candida and other fungi. To confirm its antibacterial properties, an antibacterial solution was sprayed onto filter 200. According to KS K 0693, a 10-day activity test was conducted on the following bacterial test groups: Escherichia coli (ATCC25922), Staphylococcus aureus (ATCC6538), Pseudomonas aeruginosa (ATCC15442), and mold (ATCC6275). All bacteria were killed. Furthermore, according to AATCC30, no mold was formed during the mold prevention test. Therefore, its antibacterial properties are confirmed.

[0169] Furthermore, it is widely known that titanium dioxide nanoparticles can sterilize bacteria through photocatalysis via oxidation and decompose harmful compounds containing nitrogen oxides (NOx) and sulfur oxides (SOx). The nanoparticles are composed of particles with an average diameter of 100 nanometers.

[0170] According to the configuration of the present invention, its advantages are as follows: when the ambient temperature of the powder compact with mirror is detected to be higher than the set temperature, cooling is used to prevent the storage temperature of the contained cosmetics from rising above the set temperature, thereby preventing the cosmetics from deteriorating and protecting the user's skin health; the photocatalytic effect of nano-powder titanium dioxide removes harmful pollutants that flow into the surface of the powder compact with mirror during use and eliminates attached bacteria, protecting the user's health from the source; when the ambient illuminance value of the powder compact with mirror is detected to be lower than the segmented set value, soft illumination is output by the surface light source of corresponding brightness of each segment, evenly illuminating the convoluted skin surface of the user's face, thus facilitating proper makeup application as needed during use.

[0171] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit them. Although the present invention has been described in detail with reference to the foregoing specific embodiments, those skilled in the art should understand that modifications or variations can still be made to the technical solutions described in the foregoing embodiments, and these modifications and variations do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions described in the embodiments of the present invention.

Claims

1. A mirror-equipped powder box system with cooling, sterilization, and lighting functions, comprising a lower container (100), an upper shell (200), a lighting module (300'), a control module (400), and a battery module (500), characterized in that, The lighting module (300') includes: a printed circuit board (311') comprising a circuit that drives and connects multiple electronic components of the mirror-equipped powder box system with cooling, sterilization, and lighting functions; a light-emitting component (320) consisting of multiple LEDs that are evenly spaced at the edge of the printed circuit board (311') and connected by circuitry, and that flash via corresponding control signals; a reflector (330') that allows light emitted by the light-emitting component (320) to pass through and scatter for indirect illumination; and a light-transmitting reflective component (332') that is mounted in close contact with the periphery of the light-emitting component (320) on the printed circuit board (311'). The edge portion reflects the light generated by the light-emitting component (320) toward the reflector (330'); the parabolic reflective light-transmitting component (340') is mounted on the outer edge portion of the printed circuit board (311') and has a parabolic reflective surface (342') that bends the light generated by the light-emitting component (320) and the light diffusely reflected by the reflector (330') toward the center of the mirror; the charging LED (350) is mounted on the printed circuit board (311'), the circuit is connected, the light is lit by a corresponding control signal, and the charging amount of the battery module (500) is displayed.

2. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 1, characterized in that, The light-emitting component (320) is configured to emit light in a forward direction toward the printed circuit board (311) or toward the center of the printed circuit board (311).

3. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 2, characterized in that, The parabolic reflective surface (342') is formed by coating a material that reflects light.

4. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 3, characterized in that, The light-transmitting and reflective component (332') is formed by coating a material that reflects light.

5. The mirrored powder box system with cooling, sterilization, and lighting functions according to claim 3 or claim 4, characterized in that, The coating material is silver or chromium, and it is formed by vacuum sputtering.

6. A mirror-mounted powder box system with cooling, sterilization, and lighting functions, comprising a lower container (100), an upper shell (200), a lighting module (300), a control module (400), and a battery module (500), characterized in that, The control module (400) includes: a power supply switch (410), which is installed in a part of the upper housing (200) and provides or cuts off the working power of the battery module (500) to each drive unit of the system through a command signal input from the outside via a touch signal; a central management unit (490), which, after receiving the working power of the battery module (500), connects to each functional unit of the system according to the built-in installed and used program and usage values, thereby monitoring the working status and outputting corresponding control signals respectively; a light emission control unit (420), which controls the light emission of the light emission component (320) to be on or off according to the corresponding control signal of the central management unit (490); a display charging control unit (430), which controls the display of the charging status detected from the battery module (500) on the display charging LED (350) according to the corresponding control signal of the central management unit (490); and an on / off sensing lighting linkage control unit (4410). 40), which inputs the sensing signal of the Hall sensor and transmits it to the light emission control unit (420) according to the corresponding control signal of the central management unit (490) of the control module; the lighting intensity adjustment control unit (450) adjusts the brightness value output by the light emission component (320) according to the corresponding control signal of the central management unit (490) of the control module and transmits it to the light emission component (320); the lighting adjustment switch unit (460) inputs the input command signal from the outside as a touch signal and transmits it to the lighting intensity adjustment control unit (450) according to the corresponding control signal of the central management unit (490) of the control module; the terminal device linkage control unit (470) connects with the surrounding portable terminal through Wi-Fi or Bluetooth according to the corresponding control signal of the central management unit (490) of the control module, and then sends and receives communication signals in both directions simultaneously; the alarm control unit (480) generates an alarm sound signal output according to the corresponding control signal of the central management unit (490) of the control module.

7. The mirrored powder box system with cooling, sterilization, and lighting functions according to claim 6, characterized in that, The lighting adjustment switch (460) is configured to input a command signal to control the lighting intensity to gradually increase when pushed in one direction and gradually decrease when pushed in the other direction.

8. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 7, characterized in that, The central management unit (490) of the control module is configured to determine that when the lighting adjustment switch unit (460) does not input a command signal to adjust the lighting intensity within a predetermined time, it performs corresponding control to set an intermediate lighting value as a reference, or outputs a corresponding control signal.

9. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 8, characterized in that, include: The health and beauty information database unit (415) records and manages health and beauty information in designated areas according to the corresponding control signals from the central management unit (490) of the control module, and outputs the information based on search signals; the GPS module unit (425) receives GPS signals transmitted by artificial satellites according to the corresponding control signals from the central management unit (490) of the control module, and outputs the calculated coordinate information; the temperature and acceleration sensor unit (435) detects the ambient temperature and acceleration according to the corresponding control signals from the central management unit (490); the speaker module unit (445) outputs audible signals at the level of speech according to the corresponding control signals from the central management unit (490); and the microphone module unit (455) inputs audible signals at the level of speech according to the corresponding control signals from the central management unit (490). The system includes: an audio signal receiver; an illuminance sensor module (487) that detects ambient brightness values ​​based on corresponding control signals from the central management unit (490) of the control module; a speech-to-text / text-to-speech unit (475) configured to convert speech-level language signals transmitted from the microphone module (455) into text signals based on corresponding control signals from the central management unit (490), and to output retrieved and received text signals to the speaker module (445) after converting them into speech-level language signals; a spray module (485) that converts liquid into mist spray based on corresponding control signals from the central management unit (490); and a Peltier element unit (495) that transmits cooled temperatures to the powder solids (101) based on corresponding control signals from the central management unit (490).

10. The mirrored powder box system with cooling, sterilization, and lighting functions according to claim 11, characterized in that, The lighting intensity adjustment control unit (450) is configured to adjust the current and voltage values ​​applied to the light-emitting component (320) and adjust the brightness value according to the corresponding control signal from the central management unit (490) of the control module.

11. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 10, characterized in that, The lighting intensity adjustment control unit (450) adjusts the brightness value by adjusting the lighting number of the LEDs arranged on the light-emitting component (320) according to the corresponding control signal of the central management unit (490) of the control module.

12. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 11, characterized in that, The GPS module (425) receives location-based service (LBS) signals provided by the mobile communication base station according to the corresponding control signals of the central management unit (490) of the control module and outputs the calculated coordinate information.

13. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 12, characterized in that, The GPS module (425) receives the GPS signal and the location-based service (LBS) signal respectively according to the corresponding control signal of the central management unit (490) of the control module, and outputs the average coordinate information calculated by arithmetic average.

14. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 13, characterized in that, The lower container (100) and the upper shell (200) are molded from a resin composition that is durable, corrosion-resistant, and waterproof.

15. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 14, characterized in that, The resin composition is composed of 100% by weight of a durable, corrosion-resistant, and insulating polycarbonate resin, plus 10% by weight of a metal polysiloxane, 15% by weight of cashew kernel oil, 20% by weight of silica-zirconium oxide composite powder with nanoparticle size, 15% by weight of TCPP (tris 2-chloropropyl phosphate), 10% by weight of polyvinyl butyral, and 10% by weight of 6-bromohexanoic acid.

16. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 15, characterized in that, The lower container (100) and the upper shell (200) are coated with an antibacterial agent with an average thickness of 100 micrometers for antibacterial and foreign matter removal.

17. The mirrored powder box system with cooling, sterilization, and lighting functions according to claim 16, characterized in that, The antibacterial agent is composed of 100% by weight of water-soluble acrylic resin, 4.5% by weight of copper nanoparticles, 3.5% by weight of zinc oxide, 25% by weight of Dendropanax Morbiferus Extract, 15% by weight of Zirconium Phosphate, 10% by weight of Cilopirox, and 4.5% by weight of titanium dioxide nanoparticles.

18. The mirror-equipped powder box system with cooling, sterilization, and lighting functions according to claim 17, characterized in that, The nanopowder is composed of particles with an average diameter of 100 nanometers.

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