1. Field of the Invention
The present invention relates to mechanical toys exhibiting realistic actions and functions. More particularly, the invention relates to a realistic electro-mechanical toy that can simulate lifelike purring and other vibratory sensations of animals and other creatures by transmission of vibrations to the body of the mechanical toy.
2. Description of the Related Art
In recent years, many sectors of the toy industry have responded to consumer demands for more realistic toys and games with enhanced capabilities by utilizing technological advancements to make toys and games more realistic and lifelike.
Consumer driven evolutions in the industry are found in toys embodied as creatures, animals, dolls and various other life forms real or imagined. For example, dolls can now speak, walk, and even roller skate, exhibiting movements and actions more realistic and lifelike than anyone could have imagined even ten years ago.
To provide a more realistic and interactive doll or toy, a cost-technology trade off becomes important. As is known, new technologies cannot typically be implemented to meet customer demands because of other constraints played on the industry by consumers. One of the most important constraints is cost. Therefore, even though technologies may exist to meet consumer demands, those technologies cannot be applied to this industry until they have adapted in such a way as to be more cost effective. To this end, the toy industry has employed relatively inexpensive motors and linkage assemblies to provide realistic mechanical dolls and toys. However, although such dolls may provide some realistic movable body parts, the dolls do not exhibit realistic sensations or functions which would provide an enhanced and lifelike interaction with a user.
An attempt to increase the realism of a doll or toys' functions focused on simulating a heartbeat, as seen in U.S. Pat. No. 3,298,132 to Elwell for “Heartbeat Simulating Mechanism for Dolls” issued Jan. 17, 1967, disclosing a mechanism for producing a pattern of intermittent vibratory sounds. Elwell discloses a radially extending disc carrying four radially projecting pairs of fingers mounted on an operating shaft and in contact with a rigid stud upstanding from a heart chamber. Upon rotation of the operating shaft, contact between the stud and each finger results in a visible shock wave extending over the heart chamber and producing simulated auricle and ventricle sounds.
The Elwell mechanism does not disclose an arm coupled to a body and biased against a cam including one or more protuberances on a surface perimeter, or alternatively, a cam including an elliptical surface perimeter. Elwell does not suggest a realistic electro-mechanical toy that can replicate lifelike purring and other vibratory sensations of animals and other creatures by transmission of vibrations to the body of the mechanical toy.
In view of the foregoing, a need exists for a mechanism to replicate lifelike vibratory sensations and functions of toys, animals and other creatures to provide an enhanced lifelike and realistic interaction with the user.
The present invention addresses shortcomings of the prior art to provide a realistic electro-mechanical toy that can simulate lifelike purring and other vibratory sensations of animals and other creatures providing an enhanced and lifelike interaction with a user. An arm is coupled to a body and includes a finger portion at an end of the arm. The finger portion is biased against a cam which is rotatably coupled to the body and includes one or more protuberances on a surface perimeter such that when the cam is rotated a vibration is transmitted to the body simulating lifelike purring and other vibratory sensations.
In one embodiment of the invention, the biasing means includes a spring coupled to the body maintaining the contact between the finger portion of the arm and the cam surface perimeter as the cam is rotated in a oscillating back and forth motion. Alternatively, in another embodiment, the cam includes an elliptical surface perimeter for engagement with the finger portion of the arm while the cam oscillates in a back and forth motion.
In another embodiment of the invention, a covering for the body in the form of an animated toy is provided. The covering lies adjacent the arm wherein the vibration is transmitted to the covering when the cam is rotated.
In another embodiment, the arm further includes an uneven surface to accentuate the vibration sensation transmitted to the body covering when the cam is rotated. The uneven surface of the arm includes one or more projections which emulate vertebrae, especially in a toy simulating an animal or other creature, furthering the vibration sensation felt on the body covering and providing an enhanced and lifelike interaction with the user.
In yet another embodiment of the invention, the back and forth oscillation of the cam is synchronized with a sound element producing a purring sound occurring around the time the vibration is transmitted to the body.
The following description is provided to enable those skilled in the art to make and use the described embodiment set forth in the best modes contemplated for carrying out the invention. Various modifications, however, will remain readily apparent to those skilled in the art. Any and all such modifications, equivalents, and alternatives are intended to fall within the spirit and scope of the present invention.
The present embodiment of the invention is an electro-mechanical toy providing lifelike purring and other vibratory sensations of animals and other creatures simulating realistic physiological functions and sensations. The toy of the present invention, generally shown in
The body 12 of the present invention may look like a variety of animals, including bipeds and quadrupeds, as well as creatures real or imagined, and in an embodiment as seen in
Movement of the limb portions is driven by a motor 40 and directed by a drive assembly. The drive assembly includes a cam mechanism affixed to a drive shaft cooperating with one or more linkage assemblies positioned for engagement with one or more cam followers. Rotation of the drive shaft and affixed cam mechanism translates into movement of the limb and/or limb portions as well as simultaneous movement of the body portions. This drive assembly may also simultaneously drive the production of vibrations transmitted to the body 12 to simulate lifelike purring and other vibratory sensations, or alternatively, a second drive assembly cooperating with a second drive shaft may be included.
A vibratory assembly 14 for transmitting vibrations to the body 12 is coupled to and may be contained at least partially within the body 12. The vibratory assembly 14 includes an arm 16 and a cam 18, as seen in
Cam 18, as seen in
A biasing means is coupled to the arm 16 for keeping the finger portion 24 in contact with the cam 18 when the cam is rotated. As seen in
Cam 18 is driven for rotation by the motor 40 and directed by the drive assembly, as discussed above. Cam 18 is a affixed to and rotated by the drive shaft as discussed above, or alternatively, cam 18 is affixed to and rotated by a second drive shaft. When cam 18 is rotated it oscillates in a back and forth direction, as shown in
A covering 32 for the body 12 is shown in
The arm 16 also includes an uneven or bumpy surface 34 lying adjacent the covering 32, as seen in
As shown in
The mechanical vibratory sensations 46 transmitted to the body 12 also produces a purring-like vibratory sound even without activation of the sound effects circuitry 42, and likewise the production of purring sounds from the sound effects circuitry 42 also produces a vibratory sensation felt in the body 12 even without activation of the mechanical vibratory transmissions 46. The microprocessor 38 can coordinate the two sensations to supplement each other by activating the mechanical vibratory transmissions 46 and sound effects circuitry 42 simultaneously, or alternatively coordinate the two sensations to activate independently and occur consecutively, or at completely separate times, or any combination thereof.
For example, the microprocessor 38 can coordinate the production of purring sounds from the sound effects circuitry 42 to supplement the vibratory sounds which accompany the mechanical transmission of vibratory sensations 46 felt in the body 12 of the present described embodiment, or not supplement the mechanical vibratory transmissions 46. Likewise, the microprocessor 38 can coordinate the production mechanical vibratory sensations 46 to supplement the vibratory sensations felt in the body 12 which accompany the production of purring sounds from the sound effects circuitry 42 of the present described embodiment, or not supplement the sound effects circuitry 42.
It should be appreciated that a wide range of changes and modifications may be made to the embodiments of the inventions as described herein. It is intended that the foregoing detailed description be regarded as illustrative rather than limiting. While there have been illustrated and described particular embodiments of the inventions, it will be appreciated that numerous changes and modifications will occur to those skilled in the art, and it is intended in the appended claims to cover those changes and modifications which fall within the true spirit and scope of the present invention.
Number | Name | Date | Kind |
---|---|---|---|
923672 | Leedy et al | Jun 1909 | A |
1601721 | Colledanchise | Oct 1926 | A |
1693140 | Dietze, Jr. | Nov 1928 | A |
2410646 | Finn et al. | Nov 1946 | A |
2618377 | May, Jr. | Nov 1952 | A |
3064389 | Lemelson | Nov 1962 | A |
3137092 | Salerno | Jun 1964 | A |
3298132 | Elwell | Jan 1967 | A |
3504455 | Gardel et al. | Apr 1970 | A |
3619936 | Tauriello | Nov 1971 | A |
5074820 | Nakayama | Dec 1991 | A |