The disclosure relates to shaking devices and more particularly pertains to a new shaking device for mixing bottles of nail polish prior to use in order to achieve a uniform mixing of contents in the bottle.
An embodiment of the disclosure meets the needs presented above by generally comprising a housing having a top side, a bottom side, and a peripheral wall extending between the top and bottom sides. A frame is mounted in an interior of the housing. A primary shaft is coupled to the frame. A container is coupled to the primary shaft and has an interior space configured for holding an object to be shaken. A motor is coupled to the frame. The motor is mechanically coupled to the primary shaft wherein actuation of the motor causes movement of the primary shaft and vibrates the object held in the container.
There has thus been outlined, rather broadly, the more important features of the disclosure in order that the detailed description thereof that follows may be better understood, and in order that the present contribution to the art may be better appreciated. There are additional features of the disclosure that will be described hereinafter and which will form the subject matter of the claims appended hereto.
The objects of the disclosure, along with the various features of novelty which characterize the disclosure, are pointed out with particularity in the claims annexed to and forming a part of this disclosure.
The disclosure will be better understood and objects other than those set forth above will become apparent when consideration is given to the following detailed description thereof. Such description makes reference to the annexed drawings wherein:
With reference now to the drawings, and in particular to
As best illustrated in
A primary shaft 48 is coupled to the frame 30. The primary shaft 48 has a top end 50 and a bottom end 52. The primary shaft 48 preferably tapers from the top end 50 to the bottom end 52. The bottom end 52 may be arcuate. The primary shaft 48 is made from aluminum or similar material. A container 54 is coupled to the primary shaft 48. The container 54 has a bottom wall 56 and a perimeter wall 58 extending upwardly from the bottom wall 56. The container 54 is preferably cup-shaped. The container 54 has an interior space 60 configured for holding an object 62 to be shaken. The container 54 is preferably designed to hold and shake a bottle of nail polish 62, though other objects 62 are within the scope of the invention and may be positioned within the container 54 and shaken. A top edge 64 of the perimeter wall 58 defines an opening 66 into the interior space 60.
A cover 68 is coupled to the container 54. The cover 68 has a first member 70 coupled to a second member 72. The first member 70 is coupled to the perimeter wall 58 of the container 54. The second member 72 is positionable over the opening 66 of the container 54 such that the second member 72 secures the object 62 within the interior space 60 of the container 54 when the object 62 is positioned in the container 54 and the second member 72 is positioned to abut the object 62. The second member 72 may be arcuate. Each of the first 70 and second 72 members are preferably made from plastic or similar material, A pair of biasing members 74 is preferably positioned in the cover 68 wherein the biasing members 74 are configured to bias the cover 68 over the opening 66 of the container 54. Each of the biasing members 74 may be positioned on opposite ends 76 of the cover 68 at a juncture between the first member 70 and the second member 72.
A motor 78 is coupled to the frame 30. The motor 78 is mechanically coupled to the primary shaft 48 wherein actuation of the motor 78 causes movement of the primary shaft 48 and vibration of the object 62 held in the container 54. A motor shaft 80 is coupled to and extends outwardly from the motor 78. The motor shaft 80 may extend through an opening 82 in the medial portion 42 of the frame 30. The motor shaft 80 may be positioned on a first side 84 of the motor 78. A first pair of fasteners 86 couples the frame 30 to the motor 78. Each of the first pair of fasteners 86 extends through a first pair of holes 88 positioned in the medial portion 42 of the frame 30 and further through a second pair of holes 90 positioned on the first side 84 of the motor 78. A pad 92 may be coupled to the bottom side 16 of the housing 12 and extend between the first side 28 and a second side 94 of the housing 12. The pad 92 may be comprised of a resiliently compressible material 96 wherein the pad 92 is configured for controlling vibration of the housing 12.
A first gear 98 is coupled to the motor shaft 80. The first gear 98 is mechanically coupled to the motor 78 wherein actuation of the motor 78 rotates the first gear 98. A second gear 100 is coupled to the frame 30. The second gear 100 is mechanically coupled to the first gear 98 wherein rotation of the first gear 98 causes the second gear 100 to rotate. The second gear 100 is preferably larger in size than the first gear 98. A counterweight 102 may be coupled to the primary shaft 48 and the frame 30 wherein the counterweight 102 is configured to control vibration of the container 54. The counterweight 102 has a main portion 104 and a projection 106, Each of the main portion 104 and the projection 106 may be arcuate. The projection 106 may be coupled to and extend upwardly from a top edge 108 of the main portion 104. The counterweight 102 is preferably coupled to a bottom portion 110 of the primary shaft 48. The counterweight 102 is mechanically coupled to the second gear 100 and the primary shaft 48 wherein rotation of the second gear 100 causes rotation of the counterweight 102 and movement of the primary shaft 48.
A first pin 112 couples the counterweight 102 to the second gear 100. The first pin 112 extends through an aperture 114 positioned in a lower end 116 of the upper portion 34 of the flame 30 and further extends through a central aperture 118 positioned in the second gear 100 and a bottom aperture 120 positioned in the counterweight 102. A second pin 122 couples the primary shaft 48 to the counterweight 102, The second pin 122 extends through an aperture 124 positioned in the bottom portion 110 of the primary shaft 48 and further extends through an upper aperture 126 positioned in the counterweight 102. Each of the first 112 and second 122 pins may be made from steel or other similar material.
A panel 128 is coupled to the frame 30. The panel 128 is positioned between the primary shall 48 and a first side 130 of the frame 30 wherein the panel 128 is configured to provide space between the primary shaft 48 and the frame 30. A pair of rollers 132 is coupled to the panel 128. Each of the rollers 132 is preferably positioned on opposite sides 134 of the primary shaft 48 wherein the rollers 132 are configured for retaining the primary shaft 48 in place when the primary shaft 48 moves up and down. A plate 136 is coupled to the primary shaft 48 and the rollers 132 wherein the plate 136 is configured to retain the primary shaft 48 in place when the primary shaft 48 moves up and down. The plate 136 has a pair of holes 138 positioned therein. Each of the holes 138 in the plate 136 is positioned on opposite ends 140 of the plate 136. A second pair of fasteners 142 is provided. Each of the second pair of fasteners 142 comprises an extending member 144 and a retaining member 146. The extending members 144 extend through the holes 138 in the plate 136. Each of the extending members 144 further extends through holes 148 positioned in each of the rollers 132, through holes 150 positioned in the panel 128, and through upper holes 152 positioned in the upper portion 34 of the frame 30. Each of the retaining members 146 is positionable to abut a second side 154 of the frame 30 and a second end 156 of the extending members 144.
A power source 158 is coupled to the housing 12 wherein the power source 158 comprises a battery 160. The battery 160 may be a 12 Volt battery or a battery of similar voltage. The power source 158 is electrically coupled to the motor 78 wherein the power source 158 delivers power to actuate the motor 78. A compartment 162 is coupled to the housing 12. The compartment 162 may extend upwardly from the second surface 22 of the housing 12, The power source 158 is mounted in the compartment 162. A timer switch 164 is preferably mounted to the housing 12. The timer switch 164 is electrically coupled to the motor 78 and the power source 158 wherein selective manipulation of the timer switch 164 actuates the motor 78 for a pre-determined period of time. Preferably, the timer switch 164 turns on the motor 78 for thirty seconds so as to evenly distribute the contents of the object 62, such as nail polish, that is held in the container 54. However, it is contemplated that this period of time may be longer or shorter depending on the particular object 62 to be shaken. An on/off switch may be provided and be electrically coupled to the power source 158 to selectively provide power to the device 10 when manipulated.
The housing 12 has a width between approximately 1 centimeter and 10 centimeters, a length between approximately 8 centimeters and 20 centimeters, and a height between approximately 9 centimeters and 22 centimeters. The pad 92 has a length between approximately 5 centimeters and 20 centimeters.
In use, as stated above and shown in the Figures, an object 62, such as a bottle of nail polish, is positioned in the container 54. The cover 68 is positioned over the opening 66 of the container 54 such that the object 62 is securely retained within the interior space 60 of the container 54. The timer switch 164 is then manipulated in order to shake the object 62 for a pre-determined period of time, such as thirty seconds. After the pre determined period of time elapses, the object 62 is removed from the container 54 and then used. The device 10 has particular application in nail salons, spas, or the like since the device 10 can be used to automatically shake a bottle of nail polish 62.
With respect to the above description then, it is to be realized that the optimum dimensional relationships for the parts of an embodiment enabled by the disclosure, to include variations in size, materials, shape, form, function and manner of operation, assembly and use, are deemed readily apparent and obvious to one skilled in the art, and all equivalent relationships to those illustrated in the drawings and described in the specification are intended to be encompassed by an embodiment of the disclosure.
Therefore, the foregoing is considered as illustrative only of the principles of the disclosure. Further, since numerous modifications and changes will readily occur to those skilled in the art, it is not desired to limit the disclosure to the exact construction and operation shown and described, and accordingly, all suitable modifications and equivalents may be resorted to, falling within the scope of the disclosure.
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