Method for simulating real-life motion of a character and toy

The invention relates to a method of simulating real-life motion of a character and to a toy according to the preamble of claims 1 and 11, respectively. The invention thus relates generally to the field of toys, and in particular to toys having a character wherein manipulation of the toy causes the character to move in a way that simulates the real-life movement of the character.

The use of interlocking pieces to form various geometric configurations has been the basis for a variety of toys. For example, LEGO brand building blocks have long been a popular toy. Other interlocking toy sets are described in US-A-4 509 929, US-A-5 110 315, and US-A-5 172 534.

Although such toys have been generally commercially successful, it would be desirable to provide various improvements and diversifying features. Thus, embodiments of the present invention provide various enhancements to a toy system having a set of interlocking pieces.

The invention is defined in claims 1 and 11. Further embodiments are inferable from the dependant claims and the description.

A further understanding of the nature and advantages of the present invention may be realized by reference to the remaining portions of the specification and the drawings wherein like reference numerals are used throughout the several drawings to refer to similar components. <ul id="ul0001" list-style="none" compact="compact"><li>Fig. 1 illustrates a first embodiment of a toy according to the present invention.</li><li>Fig. 2 illustrates a second embodiment of a toy according to the present invention.</li><li>Figs. 3A-3C illustrate how a toy according to an embodiment of the invention may be manipulated so as to simulate the real-life motion of a character.</li><li>Fig. 4 illustrates a third embodiment of a toy according to the present invention.</li><li>Fig. 5 illustrates a fourth embodiment of a toy according to the present invention.</li></ul>

According to embodiments of the present invention, a toy having a character is used to simulate the real-life motion of the character. The toy consists of a plurality of rotatably-coupled links that are interchangeable with one another. The links are connected end-to-end and form a ring. The links may be constructed of woods, plastics, composites, metals, and the like. Similar, previously-know such toys are more fully described in US-A-4 509 929, US-A-5 110 315, and US-A-5 172 534.

Attention is directed to Figs. 1 and 2, which illustrate embodiments of the invention in greater detail. A toy 100 is formed by a plurality of pivotally connected segments 102, which may be twisted into an infinite variety of configurations such as the unique and decorative sculpture shown in Fig. 1. The toy has a character 103 attached thereto. A support base 104, in this case, a suction cup, is attached to a display surface and supports the smoothly curving toy 100 in a configuration that simulates an action pose of the character 103. The sculpture in the Fig. 1 embodiment has eighteen segments, while the embodiment of Fig. 2 (shown in a flat configuration and without a character attached thereto) has sixteen segments.

With reference to Fig. 2, it is shown that every segment 102 has a twisting axis 108 at each end thereof which pass through an end interface 110 between each pair of adjacent segments. Each segment may be twisted relative to either adjacent segment through 360 degrees by displacing or flipping the remainder of the toy 100.

The toy has an amazing retention property, which causes the segments thereof to remain in the last configuration set by the user. The toy is readily twistable into new configurations, but tends to retain the prior configuration until retwisted. Preferably, each extension fits snugly into the cooperating channel of the adjacent segment, which aids the retention property.

The torus curve along each segment body portion causes the two twisting axes of each segment to be nonaligned (at ninety degrees in the Fig. 2 embodiment). A single segment cannot be twisted relative to both adjacent segments at the same time, without displacing other segments within the toy. The segments cannot be displaced independently.

Even in the unusual case of axis alignment, the segments between the aligned interfaces can pivot or be displaced only as part of the group of adjacent segments bounded by the pair of aligned axes. These locked groups may be large (the entire toy) or small (four minimum) depending on the configuration. In some embodiments, each locked group must have at least four torus quadrant segments in order to present an accumulated axis shift of 360 degrees required for axis alignment.

Typically when the user initially twists the toy, the twisting axes are random and non-aligned. The initial locked group includes the entire chain of segments. The force required to displacement a single segment must be sufficient to disturb the entire toy, simultaneously moving every segment and reorienting every twisting axis. The chain-wide disturbance proceeds until two axes come into alignment. The initial resistance to change in the toy is the origin of the configuration retention characteristic. This initial resistance is at least in part responsible for the self-supporting feature of the sculpture 100 shown in Fig. 1. Minor displacement forces (such as gravity and occasional bumps) acting on the toy are insufficient to overcome the non-alignment resistance.

Hand action coupled with a low attention requirement is well known to have a tranquilizing effect. Crocheting and whittling are traditional examples of diversion-relaxation therapy. The present toy provides a similar tension relief function. Twisting the device is a simple, thoughtless procedure, which instantly produces unlimited fascinating and unpredictable configurations. With each twist of the segments, the device undergoes a chain-wide transformation in silhouette and axis orientation without repetition. The device functions as a mechanical or sculptural kaleidoscope, with a corresponding relaxing, mesmeric characteristic.

The continuous center line of symmetry around the toy insures that each of the infinite random configurations will have a smooth and graceful silhouette, which contributes to the relaxation of the user. The torus section embodiments produces only continuous configurations free from geometric or mathematical discontinuities (no infinite derivatives).

The toy may be displayed as a stationary artistic sculpture without change, and still have a desirable therapeutic effect. The flowing appearance of the toy contributes to a relaxing atmosphere.

Any number of segments may be included in the toy to provide a wide range of configurations. Straight segments and shorter curved segments may also be employed in a toy to modify the scope of possible configurations. Further, rather than being limited to round tubes, the segments may be square tubes or may be other shapes.

Attention is directed to Figs. 3A-3C, which illustrate a toy 300 having a character 302, in this case a skateboarder, being manipulated so as to simulate real-life motion of the character. The movement of the toy causes the skateboarder to appear to skateboard over infinitely varying hills. As shown in Fig. 3A, a person grasps the toy 300 with his hands 304 in two places so that at least two (but preferably more) links 306 are between the user's hands, and the character 302 is attached to one of those two links. Then the user manipulates the toy by moving his hands so as to cause the links to move with respect to one another. As a result, the character moves along with the link to which the character is attached. This activity may be particularly enjoyable for children who may develop skill in manipulating the character in a desired fashion.

Because of the way the character moves with the link, the motion of the character follows a generally circular path as shown by the movement arrows 310, 312 of Figs. 3B and 3C, respectively. This movement generally approximates the real-life movement of an analogous character. For example, skateboarders, rollerbladers, surfers, snowboarders, and the like, often move in circular paths as they climb half-pipes, carve turns, rip waves, and such. Further, the randomizing nature of the toy's movement makes the character appear to move almost independently of the actions of the user. This feature adds to the enjoyment experienced by many users and introduces a challenge as users attempt to control the character's movement.

Attention is directed to Fig. 4, which illustrates another embodiment of a toy 400, in this case one having square links 402 and a rollerblader character 404. Fig. 5 illustrates a toy 500 having square links 502 and a surfer character 504.

Having described several embodiments, it will be recognized by those of skill in the art that various modifications, alternative constructions, and equivalents may be used without departing from the spirit of the invention. Additionally, a number of well known processes and elements have not been described in order to avoid unnecessarily obscuring the present invention. For example, those skilled in the art know how to manufacture modeled plastic parts for toys such as those described herein.