TWM495776U - Container with illumination function - Google Patents

Description

Illuminated container

This creation relates to a container, especially a container with illumination function.

In order to stay away from the urban dust mites and relieve the busy city life and pressure, many people like to go to outdoor suburban camping when they are on vacation, or climb the mountains to enjoy the quiet life of the forest. At night, the aforementioned outdoor suburbs and the aforementioned mountains usually do not have lighting equipment, and campers or hikers must carry their own lighting devices to illuminate the area. Since the campers or climbers mentioned above have a lot of camping or climbing equipment to prepare for camping or climbing, if the items to be prepared can be reduced, the burden on the camper or the climber can be alleviated.

The camper or the climber usually performs picnics in the outdoor suburbs or mountains and boils the boiled water, and then fills the boiled water in a container; however, the aforementioned containers usually only have the function of holding liquid food, so the camping mentioned above The climber or climber must additionally prepare the aforementioned lighting device to illuminate the area in which it is located. If the aforementioned container and the aforementioned lighting device can be integrated, it helps to alleviate the burden of the aforementioned camper or climber.

How to develop a lighting-enabled container that can alleviate the burden of the aforementioned campers or hikers in view of the shortcomings of the prior art design structure is an urgent problem to be solved in the art.

In view of the foregoing problems of the prior art, the main object of the present invention is to provide a container having a lighting function, so that the user can simultaneously have a lighting function when using a container to hold hot water. The illuminating container comprises: a bottom cup, a bottom cup, a temperature difference wafer, a heat conductive metal sheet, a heat sink fin, a transparent cover, an LED light source and a heat dissipation jacket; The back surface is formed by a bottom ring forming a recessed receiving groove, the diameter of the cup bottom block is matched with the inner diameter of the receiving groove of the cup bottom, and the back surface of the cup bottom block has a receiving portion, and the outer periphery of the temperature difference wafer The edge is matched with the inner circumference of the accommodating portion, and the temperature difference wafer can be accommodated in the accommodating portion of the cup bottom block, and the height of the temperature difference wafer matches the height of the cup bottom block accommodating portion. The heat dissipation jacket has a casing wall and defines an accommodating space; the outer diameter of the heat conductive metal sheet is matched with the inner diameter of the casing wall of the heat dissipation jacket; the front surface of the heat dissipation fin may be opposite to the back surface of the heat conductive metal sheet In close contact, an LED light source is disposed at a center of a back surface of the inner peripheral portion of the heat dissipation fin; the accommodating space of the heat dissipation jacket can accommodate the heat dissipation fin and the heat conductive metal sheet; a plate, the partition plate divides the transparent cover into a front cavity and a back cavity, wherein the front cavity is surrounded by a partition and a periphery having an outer diameter matching the inner diameter of the casing wall of the casing, and the periphery The top edge of the front side of the partition is formed with a receiving portion, and the center of the receiving portion is provided with a central through hole, and the receiving portion can accommodate the LED light source, the LED The light source is located at the central perforation; the back cavity is formed by the partition and a transparent ring wall, and the light source protruding toward the front cavity is opposite to the center of the partition of the back cavity Portion, the central bore has a front receiving groove accommodating the light source portion forming a bottom portion of the reflector. The present invention further includes a bottom cover, a pivoting member is disposed at one end of the outer back surface of the bottom cover, and a pivoting member is disposed on an outer side of the open end of the transparent ring of the transparent cover, and the pivoting member forms the transparent cover and the bottom cover Pivot. The pivoting member of the transparent cover of the present invention is provided with two upwardly protruding longitudinal tabs on the outer side of the open end of the transparent ring wall, and the protruding piece is provided with an outwardly protruding post, and the periphery of the protruding post is provided There are several radial ridges. a pivoting member is disposed at one end of the outer side of the bottom cover, and a second piece is disposed on the outer side of the outer side of the bottom cover. The protruding piece 2 is provided with a through hole, and the peripheral edge of the through hole is provided with a plurality of radial shapes. The ribs 2, the through holes of the protrusions 2 are pierced by the protrusions of the protrusions of the transparent cover, so that the transparent cover and the bottom cover are pivotally connected.

With the present invention, when the user can store the boiled water in the wild, boil water, and store the boiled water in the above-mentioned illuminating container, the illuminating container can also serve as a lighting device to make the picnic environment brighter. To increase the safety of the aforementioned users outdoors.

The following examples are intended to illustrate the creation of the creation to make the scope of the requested creation clearer. The examples are not to be construed as limiting the scope of the claims in any respect.

Referring to FIG. 1 and FIG. 2, the present invention comprises a container interior 90, a cup bottom 10, a thermally conductive metal cup bottom block 100, a temperature difference wafer 20, a heat conductive metal sheet 30, a heat sink fin 40, and a transparent cover. 50. An LED light source 60, a heat dissipation sleeve 70 and a bottom cover 80. The cup bottom 10 includes a front surface and a back surface. The front surface of the cup bottom 10 protrudes from the container interior 90 to form a heat conducting column 101. The heat conducting column 101 can increase the heat conducting area of the cup bottom 10, and the cup bottom 10 The back surface is formed with a recessed receiving groove 102 via the cup bottom ring 11, and the cup bottom 10 is made of a metal material selected from the group consisting of copper, aluminum, iron, and stainless steel. The heat-conducting metal cup bottom block 100 is adapted to the accommodating groove 102 of the cup bottom 10, and the heat-conducting metal cup bottom block 100 can be locked into the accommodating groove 102 of the cup bottom 10 by a hard pressing method. The bottom block 100 includes a front surface and a back surface, and the front surface is in close contact with the back surface of the cup bottom 10. The back surface of the cup bottom block 100 includes four sides, and the four sides are formed by four bumps 105 having a flush surface. A recessed portion 110 is formed, and a plurality of fixing holes 120 are formed on the surface of the bump 105.

The temperature difference wafer 20 includes a surface and is adapted to the aforementioned receiving portion 110. The heat conductive metal cup bottom block 100 is selected from the group consisting of copper, aluminum, iron, and stainless steel. The heat-dissipating casing 70 is a circular hollow casing wall 71. The casing wall 71 includes an accommodating space 72 and two ends. The casing wall 71 forms an inwardly protruding portion with respect to one end of the cup bottom 10. The inner flange 701 includes a plurality of through holes 702, and the inner flange 701 is adapted to the cup bottom ring 11; the heat dissipation sleeve 70 is selected from the group consisting of copper, aluminum, iron and stainless steel. Group of.

The heat conductive metal piece 30 includes a first heat conductive metal piece 301 and a second heat conductive metal piece 302. The first heat conductive metal piece 301 and the second heat conductive metal piece 302 are in the shape of a disk; From the group consisting of copper, aluminum, iron and stainless steel. The first heat conductive metal piece 301 includes a front surface, a back surface, an inner circumference circle, an outer circumference circle, a plurality of first through holes 3011, a plurality of second through holes 3012, and a periphery. Relative to the back surface of the cup bottom block 100, and in contact with the surface of the aforementioned temperature difference wafer 20. The plurality of first through holes 3012 are disposed on the inner circumference of the first heat conductive metal piece 301 and are opposite to the plurality of fixing holes 120 of the cup bottom block 100; the plurality of second through holes 3012 are disposed in the first The outer surface of the heat conductive metal piece 301 has a plurality of perforations 702 with respect to the outer circumference of the heat dissipation metal sheet 301. The periphery of the first heat conducting metal piece 301 is in contact with the casing wall 71 of the heat dissipation jacket 70. The second heat conductive metal piece 302 includes a front surface, a back surface, an inner circumference circle, an outer circumference circle, a plurality of third through holes 3021, a plurality of fourth through holes 3022, and a periphery, and the front surface of the second heat conduction metal piece 302 is It is in contact with the back surface of the aforementioned first heat conductive metal piece 301. The plurality of third through holes 3021 and the plurality of fourth through holes 3022 are respectively disposed on the inner circumference circle and the outer circumference circle of the second heat conduction metal piece 302, and are respectively pluralityed first with respect to the first heat conduction metal piece 301 A perforation 3011 and a plurality of second perforations 3012. The periphery of the second heat conductive metal piece 302 is in contact with the casing wall 71 of the heat dissipation jacket 70.

The heat dissipation fins 40 are a solid structure and include a front surface, a back surface and an outer circumference, and a plurality of radiating fins. The plurality of radiating fins are disposed on the outer circumference. The front surface of the heat dissipation fin 40 is flush with a plurality of fixing holes (not shown) corresponding to the third through holes 3021 of the second heat conductive metal piece 302. The front surface of the heat dissipation fins 40 is in contact with the front surface of the heat dissipation fins 40. A circuit board 61 is disposed on the back surface of the heat dissipating metal sheet 302. The circuit board 61 is disposed with an LED light source 60. A plurality of fixing holes 41 are disposed adjacent to the periphery of the circuit board 61. The accommodating space 72 of the heat dissipation jacket 70 can accommodate the heat dissipation fins 40 and the heat conductive metal sheet 30.

Referring to FIG. 2 and FIG. 3 , a partition 501 is formed in the longitudinal direction of the transparent cover 50 . The partition 501 divides the transparent cover 50 into a front receptacle 54 and a rear receptacle 55 . The front side pocket 54 is surrounded by the partition 501 and a periphery 505 having an outer diameter matching the inner diameter of the sleeve wall 71 of the sleeve 70. The top edge of the periphery 505 has a ring edge 503, and the front side pocket 54 The central portion of the partition 501 is formed with a receiving portion 504, and a central through hole 506 is defined in the center of the receiving portion 504. The central through hole 506 is in communication with the back surface receiving groove 55 of the partition plate 501. The LED light source 60 and the circuit board 61 are disposed, and the LED light source 60 is located at the center through hole 506; the ring edge 503 of the front surface groove 54 may contact the back surface of the heat dissipation fin 40. The groove 54 is disposed at a periphery of the accommodating portion 504 at a plurality of protrusions 5010 having a hole at a center. The position of the protrusion 5010 is matched with the plurality of fixing holes 41 of the heat dissipation fin 40, and the protrusion 5010 is free. The height of the end is flush with the top edge of the aforementioned accommodating portion 504. The back surface receiving groove 55 is formed by the partition plate 501 and a transparent ring wall 56. A light source reflecting portion 57 is formed in the center of the partition plate 501 of the back surface receiving groove 55 in a curved shape in the direction of the front surface receiving groove 55. The bottom surface of the light source reflecting portion 57 is formed with a central through hole 506 of the receiving portion 504 of the front surface receiving groove 54. The outer surface of the open end of the transparent ring wall 56 is provided with two upwardly protruding longitudinal tabs 51. The outer 51 is provided with an outwardly protruding post 52. The periphery of the stud 52 is provided with a plurality of radial ridges 53. The bottom cover 80 has a front surface and a back surface. The front surface of the bottom cover 80 has an arcuate cover 84 protruding toward the transparent partition 501 of the transparent cover 50. The curved cover 84 is an opaque material. The central portion 841 of the arcuate cover 84 is provided with an annular transparent portion 842 made of a transparent material. The outer peripheral edge of the curved cover 84 is formed toward the transparent cover 50. The cover flange 85 in the direction of the partition 501, the outer diameter of the cover flange 85 is matched with the inner diameter of the transparent ring wall 56 of the transparent cover 50, so that the bottom cover 80 can be covered with the transparent surface of the transparent cover 50. At the top of the ring wall, one end of the back side of the bottom cover 80 is provided with two protrusions 81 matching the longitudinal protrusions 51 of the transparent cover 50. The protrusions 81 are provided with a through hole 82, and the periphery of the through hole 82 is provided. A plurality of radial ribs 83 are disposed in cooperation with the plurality of radial ridges 53 of the tab 51, and the through holes 82 of the tabs 81 are available for the protrusions 52 of the tabs 51 of the transparent cover 50. So that the transparent cover 50 and the bottom cover 80 are formed Access.

The steps of the present combination are as follows: the cup bottom block 100 is snap-fitted into the cup bottom receiving groove 102 in a hard pressing manner, and the front surface of the cup bottom block 100 is attached to the back surface of the cup bottom 10; The temperature difference wafer 20 is placed in the accommodating portion 110 of the cup bottom block 100; the first heat conducting metal piece 301 is placed in the heat dissipation jacket 70 such that the outer peripheral edge of the first heat conducting metal piece 301 is located at the inner flange 701. a plurality of second through holes 3012 of the outer peripheral edge of the first heat conductive metal piece 301 are aligned with the through holes 702 of the flange 701, and a flat screw of an appropriate length is passed through the first through hole 3011 of the first heat conductive metal piece 301. The first heat conducting metal piece 301 and the heat sinking shell 70 are combined with the cup bottom block 100, and the front surface of the first heat conducting metal piece 301 is front and the foregoing. The surface of the temperature difference wafer 20 is in close contact with each other. Next, a plurality of fixing holes (not shown) of the plurality of third through holes 3021 of the inner circumference circle and the front surface of the heat dissipation fins 40 are inserted from the front surface of the second heat conductive metal piece 302 by a flat-head screw of an appropriate length. The second heat conducting metal piece 302 is coupled to the heat dissipating fin 40; and further, the screw of the appropriate length is passed through the gap between the fin and the fin of the heat dissipating fin 40. The fourth through hole 3022 of the outer edge of the second heat conductive metal piece 302 and the second through hole 3012 of the outer edge of the first heat conductive metal piece 301 are screwed with the through hole 702 of the inner convex ring 701 of the heat dissipation cover 70, and the heat dissipation fin is 40. The second heat conductive metal sheet 302, the first heat conductive metal sheet 301 and the heat dissipation jacket 70 are combined; then, the transparent cover 50 is passed through the through hole from the front groove 55 in a proper length. The plurality of fixing holes 41 of the back surface of the heat dissipation fins 40 are connected to the heat dissipation fins 40, and the periphery of the upper cover 505 of the transparent cover 50 is located at the heat dissipation. Shell 70 In the rear end portion, finally, the two longitudinal projections 182 of the bottom cover 80 and the plurality of radial ribs 83 of the two longitudinal projections 51 of the transparent cover 50 are opposite to the plurality of radial ridges 53. The protrusions 52 are disposed as the through holes 82, and the plurality of radial ridges 83 and the plurality of radial ridges 53 are interdigitated, so that the transparent cover 50 and the heat dissipation fins 40 can be arranged. The angle is adjusted within 90 degrees, and can be paused at a fixed angle; the assembly of the creation can be completed.

Referring to FIG. 1 , when the user cooks the boiled water in the wild, the hot boil water is injected into the interior 90 of one of the containers of the present creation. At this time, the temperature of the hot boil water can be transmitted to the bottom of the cup 10 to the bottom of the cup. The thermal conductive metal cup bottom block 100, the temperature difference wafer 20 disposed on the back surface of the heat conductive metal cup bottom block 100 can sense a thermal temperature conducted by the heat conductive metal cup bottom block 100, and the temperature difference wafer 20 is heated by the heat The temperature produces an output current that is conducted via an electrical line to the LED light source 60 of the circuit board to illuminate the LED light source 60. The aforementioned cup bottom 10 and the metal material of the heat conductive metal cup bottom block 100 help to quickly transfer the aforementioned thermal temperature to the temperature difference wafer 20 of the heat conductive metal cup bottom block 100.

The light source emitted by the LED light source 60 is transmitted through the transparent cover 50 to provide the container with an illumination device. Therefore, the present invention can provide the above-mentioned container with hot water to have an additional lighting function, which makes the outdoor picnic environment brighter and increases the safety of the user during outdoor activities at night. In addition, when the LED light source 60 emits bright light, a thermal energy is generated. In order to avoid the high temperature generated by the aforementioned heat energy accumulation, the LED light source 60 is damaged, and the device for the heat dissipation fin 40 can promote the heat dissipation of the heat energy. Thereby reducing the damage rate of the aforementioned LED light source 60.

Referring to FIG. 2, the partition 501 of the transparent cover 50 can further include the number of radial ridges 83 and the number of the longitudinal protrusions 81 of the bottom cover 80 and the two longitudinal protrusions 51 of the transparent cover 50. The radial ribs 53 are relatively matched to rotate the bottom cover 80 relative to the lower pocket of the transparent cover 50. When the bottom cover 80 is rotated parallel to the container, the container for the blooming water can be Forming a flashlight device to increase the safety of the user when walking outdoors; when the bottom cover 80 is rotated to form 45 degrees or 30 degrees with the transparent cover 50, the light source emitted by the LED light source 60 can also be used by The curved top cover that is convex toward the aforementioned transparent cover 50 is refracted to illuminate the corresponding range around the container.

The casing wall 71 of the heat dissipation jacket 70 may further include a plurality of holes, and the plurality of holes of the heat dissipation jacket 70 may increase the heat dissipation function of the LED light source 60.

The present invention may further include a flat micro-shaped fan, and the fan is disposed on the back surface of the heat dissipation fin 40. The function of the fan can further accelerate the heat dissipation of the LED light source 60, and reduce the LED light source 60. Damage rate.

The present invention may further include a rechargeable battery and a power switch socket. The rechargeable battery is disposed on the back surface of the heat dissipation fin 40. The power switch socket is disposed around the heat dissipation jacket 70. The power switch socket is used for The opening and closing of the aforementioned LED light source 60 is controlled. With the present invention, the aforementioned current generated by the aforementioned thermal temperature can be conducted to the rechargeable battery via another electric wire, thereby storing electric energy, and the battery is supplied with the LED light source 60. In addition, when the user needs to use the LED light source 60 to illuminate, the electric energy stored in the rechargeable battery can be utilized, and the power switch socket can be used to control the opening and closing of the LED light source 60, thereby increasing the user's use of the present invention. The flexibility of creation.

10‧‧‧ cup bottom
11‧‧‧ cup bottom ring
100‧‧‧thermal metal cup bottom block
101‧‧‧ Thermal column
102‧‧‧ accommodating slots
105‧‧‧Bumps
110‧‧‧Receipt Department
120‧‧‧Fixed holes
20‧‧‧Wave temperature chip
30‧‧‧thermal metal sheet
301‧‧‧First thermal conductive metal sheet
3011‧‧‧First perforation
3012‧‧‧Second perforation
3021‧‧‧ third perforation
302‧‧‧Second thermal metal sheet
3022‧‧‧fourth perforation
40‧‧‧ Heat sink fins
41‧‧‧Fixed holes
50‧‧‧Transparent cover
501‧‧‧Transparent cover
5010‧‧‧Bump
5011‧‧‧Perforation
503‧‧‧The edge of the groove on the transparent cover
504‧‧‧Receiving part of the cover on the transparent cover
505‧‧‧The periphery of the transparent cover
506‧‧•The center of the transparent cover is perforated
51‧‧‧ 片片
52‧‧‧Tibe 2
53‧‧ ‧ ribs
54‧‧‧Front
55‧‧‧ Back pocket
56‧‧‧Transparent ring wall
57‧‧‧Light source reflection
60‧‧‧LED light source
61‧‧‧ boards
70‧‧‧heating jacket
701‧‧‧ inner convex ring
702‧‧‧Perforation
71‧‧‧shell wall
72‧‧‧ accommodating space
80‧‧‧ bottom cover
81‧‧‧Prot 2
82‧‧‧Perforation
83‧‧‧Jump 2
84‧‧‧ curved cover
841‧‧‧ central part
842‧‧‧Circular transparent part
85‧‧‧ cover ring

Figure 1 is a cross-sectional view of the present creation. Figure 2 is a partial exploded view of the present creation. Figure 3 is a perspective view of the transparent cover of the present invention.

10‧‧‧ cup bottom

11‧‧‧ cup bottom ring

100‧‧‧thermal metal cup bottom block

102‧‧‧ accommodating slots

105‧‧‧Bumps

110‧‧‧Receipt Department

120‧‧‧Fixed holes

20‧‧‧Wave temperature chip

30‧‧‧thermal metal sheet

301‧‧‧First thermal conductive metal sheet

3011‧‧‧First perforation

3012‧‧‧Second perforation

302‧‧‧Second thermal metal sheet

3021‧‧‧ third perforation

3022‧‧‧fourth perforation

40‧‧‧ Heat sink fins

41‧‧‧Fixed holes

50‧‧‧Transparent cover

501‧‧‧Transparent cover

506‧‧•The center of the transparent cover is perforated

51‧‧‧ 片片

52‧‧‧Tibe 2

53‧‧ ‧ ribs

56‧‧‧Transparent ring wall

57‧‧‧Light source reflection

60‧‧‧LED light source

61‧‧‧ boards

70‧‧‧heating jacket

701‧‧‧ inner convex ring

702‧‧‧Perforation

71‧‧‧shell wall

72‧‧‧ accommodating space

80‧‧‧ bottom cover

81‧‧‧Prot 2

82‧‧‧Perforation

83‧‧‧Jump 2

84‧‧‧ curved cover

841‧‧‧ central part

842‧‧‧Circular transparent part

85‧‧‧ cover ring

Claims (7)

The utility model relates to a container with illumination function, comprising: a bottom of a cup, a bottom piece of a cup, a temperature difference chip, a heat conductive metal piece, a heat dissipation fin, a transparent cover, an LED light source and a heat dissipation cover; the cup bottom comprises a The back surface and the bottom ring of the cup have a recessed receiving groove on the back surface of the cup bottom, and the receiving groove is adapted to receive the cup bottom block; the cup bottom block comprises a back surface, and the back surface of the cup bottom block has a receiving portion The accommodating portion has a height, and the temperature difference chip is disposed in a receiving portion of the bottom portion of the cup; the heat dissipation sleeve has a casing wall, the casing wall includes an accommodating space; and the heat dissipation fin Including a back surface, the LED light source is disposed on the back surface of the heat dissipation fin; the heat dissipation fin and the heat conduction metal sheet are disposed in an accommodation space of the heat dissipation jacket, and the shell sleeve of the heat dissipation jacket The transparent cover includes a transparent ring wall and an inner portion, and the transparent ring wall includes a pivoting member, and the inner portion of the transparent cover forms a partition longitudinally, and the partition plate has the foregoing through The cover is divided into a front cover and a rear cover. The front cover is formed by a partition and a periphery. The central portion of the front cover has a receiving portion in the opening direction, and the receiving portion is formed. The center is provided with a central perforation, the receiving portion is adapted to receive the LED light source, and the LED light source is disposed at the central perforation; the back cavity is formed by a partition and a transparent ring wall, and the back cavity is formed The center of the partition is provided with a central through hole of the receiving portion of the front surface receiving groove; the transparent cover is adapted to fit the heat dissipation cover. The illuminating container according to claim 1, wherein the illuminating container further comprises a bottom cover; the bottom cover comprises a pivoting member, and the pivoting member of the bottom cover is adapted to the transparent ring of the transparent cover The pivotal connection of the wall. The illuminating container according to claim 2, wherein the pivoting member of the transparent cover comprises two upwardly projecting longitudinal tabs, and a protrusion is disposed on the outer side of the tab, and the plurality of protrusions are arranged on the periphery of the protrusion. a rib of a radial shape; the pivoting member of the bottom cover is provided with a protrusion 2 corresponding to the protrusion, the protrusion 2 is provided with a perforation, and the periphery of the perforation is provided with a plurality of radial ribs 2, the protrusion The perforations of the second piece can be pierced by the protrusions of the tabs of the transparent cover. The illuminating container according to claim 3, wherein the front surface of the cup bottom protrudes forwardly in the container space to form a heat conducting column. In the container having the illumination function described in claim 3, the temperature difference wafer has a height, and the height of the temperature difference wafer matches the height of the receiving portion of the cup bottom block. The illuminating metal sheet according to claim 3, wherein the heat conductive metal sheet comprises a first heat conductive metal sheet and a second heat conductive metal sheet, wherein the first heat conductive metal sheet and the second heat conductive metal sheet are in the shape of a disc. And each of the periphery comprises a periphery, and the periphery of the first heat conductive metal piece and the second heat conductive metal piece is in contact with the casing wall of the heat dissipation jacket. The first heat conducting metal sheet and the second heat conducting metal sheet respectively have a front surface, a back surface, an inner circumference circle and an outer circumference circle, and the first heat conduction metal sheet is The front side faces the back surface of the cup bottom block and is in contact with the surface of the temperature difference wafer, and the front surface of the second heat conductive metal sheet is in contact with the back surface of the first heat conductive metal sheet; a plurality of first perforations are formed in the circumference of the circumference, and a plurality of second perforations are formed in the outer circumference of the first heat conducting metal sheet; a plurality of third perforations are formed in the inner circumference of the second heat conducting metal sheet, and the second heat conducting metal is formed A plurality of fourth perforations are formed in the outer circumference of the sheet.