Patent Application
20150184844
1. Field of the Invention
The present invention relates to an inflatable display, especially to an inflatable display with dynamic lighting effect.
2. Description of the Prior Art(s)
Inflatable displays are normally used for occasions of all kinds of exhibitions, carnivals, and parties. Based on means of application and displaying, the inflatable displays can be classified into a stationary type and a wearable type. The stationary type of inflatable displays pertains to inflatable displays that are fixedly mounted in fields of the foregoing occasions. The wearable type of inflatable displays pertains to outfits that are worn by performers for purpose of decoration, advertisement, and entertainment.
A conventional inflatable display has an inflatable body and an air pump for inflating the inflatable body. As the conventional inflatable display is not luminous, entertaining and decorative effects of the conventional inflatable display are limited. Moreover, since many activities, such as Halloween parties, are held in a dusky occasion with dim light, the conventional inflatable display does not fit the dusky occasion.
In order to enhance the entertaining and the decorative effects of the conventional inflatable display, a lighting unit is mounted inside the inflatable body of the conventional inflatable display. However, the lighting unit only illuminates the conventional inflatable display, or flickers so as to generate lighting variations of the lighting unit. The lighting variations are limited and the entertaining and the decorative effects of the conventional inflatable displays are still not improved efficiently.
To overcome the shortcomings, the present invention provides an inflatable display with dynamic lighting effect to mitigate or obviate the aforementioned problems.
The main objective of the present invention is to provide an inflatable display with dynamic lighting effect. The inflatable display has an inflatable body, an air pump inflating the inflatable body, and a lighting assembly mounted inside the inflatable body for providing dynamic lighting variations. The lighting assembly has a light housing, a power supply, a lighting module, and a refracting module mounted in the light housing. The lighting module and the refracting module rotate relative to each other.
As light beams emitted from the lighting module pass through the refracting module, the light beams are mixed and refracted. With relative rotation of the lighting module and the refracting module, the light beams can project outwards to further penetrate through the inflatable body at different angles covering a large area to form the dynamic lighting variations and to exhibit the dynamic lighting effect.
Other objectives, advantages and novel features of the invention will become more apparent from the following detailed description when taken in conjunction with the accompanying drawings.
With reference to
The inflatable body 10 is transparent and has an inner wall and an air inlet. The air inlet is formed through the inflatable body 10. Preferably, the air inlet is formed through a bottom of the inflatable body 10.
The air pump 20 is mounted to the air inlet of the inflatable body 10 and has a power cord 21. The power cord 21 of the air pump 20 is connected to an external power source, such as a mains power, to provide an operating power to the air pump 20 so as to inflate the inflatable body 10. Preferably, the air pump 20 is mounted on and supported by a seat 22. Alternatively, the operating power of the air pump 20 may be supplied from batteries.
With further reference to
The light housing 31 is hollow and has a front open end and a rear closed end.
The power supply 32 is mounted in the light housing 31, and has a power adapter 321 and a power cord 322. The power adapter 321 converts alternating current (AC) to direct current (DC). The power cord 322 of the power supply 32 is electrically connected to the power adapter 321, extends out of the light housing 31, and is electrically connected to an external power source. Preferably, the power cord 322 of the power supply 32 is electrically connected with the power cord 21 of the air pump 20, and is connected to the external power source via the power cord 21 of the air pump 20.
The motor 33 is mounted in the light housing 31, is electrically connected to the power adapter 321 of the power supply 32, and has a driving shaft 331. The driving shaft 331 protrudes toward the front open end of the light housing 31, and is driven to rotate by the motor 31. The driving shaft 331 may continuously rotate in a specific direction or may rotate back and forth.
The lighting module 34 and the refracting module 35 rotate relative to each other. Specifically, in the first preferred embodiment, the lighting module 34 is mounted in the light housing 31, is electrically connected to the power adapter 321 of the power supply 32, is disposed between the front open end of the light housing 31 and the motor 33, and has a circuit board 341 and multiple light emitting diodes (LEDs) 342. The circuit board 341 is annular, is disposed around the driving shaft 331 of the motor 33, is electrically connected to the power adapter 321 of the power supply 32, and has a front surface and a control unit. The front surface of the circuit board 341 faces the front open end of the light housing 31. The LEDs 342 can emit light beams in different colors, are electrically mounted on the front surface of the circuit board 341 and are controlled by the control unit of the circuit board 341 so as to form a specific lighting mode, such as a flicker mode (each of the LEDs 342 flickers) or a normal mode (each of the LEDs 342 shines continuously).
The refracting module 35 is mounted on the front open end of the light housing 31. The refracting module 35 has a refractive lens 36, a condenser 37, and a light shade 38. The refractive lens 36 is disposed between the front open end of the light housing 31 and the lighting module 34, is securely attached to the driving shaft 331 of the motor 33, and is driven to rotate by the driving shaft 331 of the motor 31. The refractive lens 36 has a front surface. The front surface of the refractive lens 36 faces the front open end of the light housing 31, is irregular and rough, and includes multiple refractive surfaces being plane and inclining at different angles. The condenser 37 is disposed around the driving shaft 331 of the motor 33 and between the refractive lens 36 and the lighting module 34. The condenser 37 has a rear surface and multiple cone protrusions 371. The rear surface of the condenser 37 faces the lighting module 34. The cone protrusions 371 are separately formed on and protrude from the rear surface of the condenser 37, and respectively correspond in position to the LEDs 342 of the lighting module 34. The light shade 38 is hemispherical, caps the light housing 31, and is mounted on and securely attached to the front open end of the light housing 31. The light shade 38 has an inner surface and a beam-splitter lens portion 381. The beam-splitter lens portion 381 is formed on the inner surface of the light shade 38 and includes multiple convex lens units.
In use, the power cord 322 of the power supply 32 that is connected to the external power source transmits the AC to the power adapter 321, and the power adapter 321 converts the AC to the DC for supplying electrical power to the motor 33 and the lighting module 34.
Thus, the LEDs 342 emit light beams in different colors and the light beams penetrate through the cone protrusions 371 of the condenser 37. The cone protrusions 371 of the condenser 37 condense and then diffuse the light beams to allow the light beams from the LEDs 342 to further penetrate through the refractive lens 36. In the meantime, the refractive lens 36 is driven to rotate by the driving shaft 331 of the motor 33. As the light beams from the LEDs 342 pass through the refractive lens 36, the light beams in different colors are mixed and then further penetrate through the beam-splitter lens portion 381 of the light shade 38 to allow the light beams from the LEDs 342 to be refracted again by the convex lens units of the beam-splitter lens portion 381 of the light shade 38.
With flickering of the LEDs 342 and rotation of the refractive lens 36, the light beams that pass through the light shade 38 can project outwards to further penetrate through the inflatable body 10 at different angles covering a large area to form a dynamic lighting variation and to exhibit a dynamic lighting effect. Moreover, as mounting position of the lighting assembly 30 in the inflatable body 10 changes, the lighting effects created on the inflatable body 10 differs as well.
With reference to
The light beams from the LEDs 342A penetrate through the beam-splitter lens portion 381A of the light shade 38A to allow the light beams from the LEDs 342A to be refracted by the convex lens units of the beam-splitter lens portion 381A of the light shade 38A. With flickering of the LEDs 342A and rotation of the LED module 343A, the lighting assembly 30A forms a dynamic lighting variation and exhibits a dynamic lighting effect.
The inflatable display with the dynamic lighting effect is entertaining irrespective of whether it is fixedly mounted on a site of an occasion or worn by a wearer, and can be more entertaining when used in a dusky occasion with dim light, such as a Halloween party. The inflatable display with the dynamic lighting effect has improved entertaining and decorative effects.
Even though numerous characteristics and advantages of the present invention have been set forth in the foregoing description, together with details of the structure and features of the invention, the disclosure is illustrative only. Changes may be made in the details, especially in matters of shape, size, and arrangement of parts within the principles of the invention to the full extent indicated by the broad general meaning of the terms in which the appended claims are expressed.
