BACKGROUND OF THE INVENTION1. Field of the Invention[0001]
The present invention is related to toy figures having manually moveable limbs. More particularly, the present invention relates to toy figures that contain magnets and are thus capable of magnetically interconnecting with ferromagnetic surfaces and other similarly constructed figures.[0002]
2. Prior Art Statement[0003]
The prior art is replete with different types of toy figures. Toy figures typically fall within one of three major categories. The first category of toy figures includes stuffed figures, such as rag dolls. The second category of toy figures includes plastic action figures, such as Barbie™ dolls. The third category of toy figures includes molded wire frame figures.[0004]
Springs and magnets have been used in all three categories of toy figures for different reasons. In stuffed toy figures, springs are sometimes used as skeletal element within a doll. For example, a spring might be used within the tail of a stuffed monkey to provide the tail with a positional memory. This would enable the tail of the toy monkey to return to a set configuration after having being stretched by a child. However, the spring is a hidden element buried deep under the fabric and stuffing of the toy figure. The spring itself is not a visible part of the stuffed doll's body.[0005]
Magnets are sometimes used in the hands of stuffed dolls to provide the stuffed dolls with the ability to join its hands together. For example, if magnets were placed in the hands of the previously exemplified stuffed toy monkey, the monkey would be able to join its hands around the neck or arm of a child.[0006]
Plastic molded figures, such as Barbie™ dolls and G.I. Joe™ action figures use internal springs to provide the figure with some type of predictable movement. For example, a toy action figure may contain a spring loaded arm that enables the figure to throw an object. The springs, however, are internal components and are not integral parts of the visible body of the molded plastic figure. Magnets may also be used in the hands of molded plastic figures. For example, a toy Spiderman™ may have magnets in its hands so that it can cling to the metal door of a refrigerator.[0007]
Molded wire frame figures are figures that have a wire frame. Elastomeric material is hot molded around the wire frame. The wire frame is used to add strength to the elastomeric material. In some instances, the wire frame may have a spring constant to enable the elastomeric figure to return to a set orientation after being manipulated by a child. However, the wire frame is disposed deep within the molded elastomeric material. As such, the wire frame is not a visible part of the figure.[0008]
Magnets are typically not used in molded wire frame figures because the high temperatures used during molding would de-magnetize many common types of magnets.[0009]
The present invention is a toy figure that uses springs and magnets in a novel manner, thereby producing a figure where the springs and magnets are integral, visible parts of the body of the figure. The structure of the novel figure and its associated method of manufacture are described and claimed below.[0010]
SUMMARY OF THE INVENTIONThe present invention is a toy figure having an upper torso section and a lower torso section. The upper torso section and the lower torso section are connected with a vertical spring. The vertical spring serves as the visible abdomen of the toy figure and enables the upper torso section and the lower torso section to move relative each other. The arms and legs of the figure are also made of springs. The arms terminate with magnetic hands and the legs terminate with magnetic feet. The springs used as the arms, legs and abdomen of the toy figure are all fully compressed coil springs that are made of ferromagnetic metal. As such, the magnetic hands and feet of the figure can be selectively attached to the arms, legs or abdomen of that figure or any other figure. This provides the toy figure with unique posing options.[0011]
BRIEF DESCRIPTION OF THE DRAWINGSFor a better understanding of the present invention, reference is made to the following description of an exemplary embodiment thereof, considered in conjunction with the accompanying drawings, in which:[0012]
FIG. 1 is a perspective view of an exemplary embodiment of the present invention toy figure;[0013]
FIG. 2 is a perspective view of the toy figure shown in FIG. 1 with indicators showing range of motion;[0014]
FIG. 3 is a side view of the toy figure shown in FIG. 1 being bent at the abdomen spring; and[0015]
FIG. 4 is a perspective view of the toy figure of FIG. 1 shown in conjunction with an alternate embodiment of a toy figure.[0016]
DETAILED DESCRIPTION OF THE DRAWINGSReferring to FIG. 1, an exemplary embodiment of the present invention toy FIG. 10 is shown. In this embodiment, the toy FIG. 10 is that of a person. However, it will be understood that the figure could be that of an alien, a monster, an animal or any other common toy figure configuration.[0017]
The toy FIG. 10 has an[0018]upper torso section12 that is comprised of achest14 and ahead16. Thechest14 andhead16 can be molded as a single rigid piece. However, thehead16 may be jointed so that thehead16 can rotate or otherwise move in relation to thechest14. The toy figure also has alower torso section18. Theupper torso section12 is joined to thelower torso section18 by a first coil spring. It is this first coil spring that acts as the abdomen of the toy FIG. 10. For the sake of clarity, the first coil spring will herein be referred to as theabdomen spring20.
The[0019]abdomen spring20 is a coil spring made from ferromagnetic metal. Theabdomen spring20 has a predetermined exposed length L1 and spring constant, the importance of which will later be explained. When not manually stressed, the abdomen spring is fully compressed, wherein the turns of the coil spring abut and prevent the coil spring from being compressed into any smaller length. The top of theabdomen spring20 is attached to theupper torso section12 of the toy FIG. 10. The bottom of theabdomen spring20 is attached to thelower torso section18. As such, it will be understood that by manually manipulating theupper torso section12 and/or thelower torso section18 of the toy FIG. 10, theabdomen spring20 can be selectively deformed out of its fully compressed condition. This enables the orientation of theupper torso section12, relative thelower torso section18, to be selectively altered during play. Once the manipulation force is removed from either theupper torso section12 or thelower torso section18, theabdomen spring20 returns to its fully compressed linear configuration, thereby returning the orientation between theupper torso section12 and thelower torso section18 back to what is shown in FIG. 1.
A second and third coil spring extend horizontally from opposite ends of the[0020]upper torso section12. The second and third coil springs serve as the arms of the toy FIG. 10. As such, the second and third coil springs will herein be referred to as arm springs22. The arm springs22 are coil springs made of a ferromagnetic metal. The arm springs22 are also normally fully compressed. Eacharm spring22 has the same predetermined length L2 and spring constant, the importance of which will later be explained.
[0021]Hand elements24 are disposed at the ends of the arm springs22 opposite theupper torso section12. Eachhand element24 is non-metallic. In eachhand element24 is amagnet26. The non-metallic material of eachhand element24 isolates themagnet26 from thearm spring22. Consequently, thearm spring22 itself does not become magnetically polarized by being in contact with themagnet26. Themagnets26 used in thehand elements24 are preferably rare earth magnets. Rare earth magnets have very strong magnetic field-to-weight ratios. As such, strong lightweight magnets can be used. The combined weight of eachhand element24 and eachmagnet26 is preferably not sufficient to deform the arm springs22. Consequently, even though the arm springs22 are supporting the combined weight of thehand elements24 andmagnets26, the spring constant of the arm springs22 is sufficient to maintain the arm springs22 in a fully compressed horizontal orientation.
A fourth and fifth coil spring extend vertically below the[0022]lower torso section18. The fourth and fifth coil springs serve as the legs of the toy FIG. 10. As such, the fourth and fifth coil springs will herein be referred to as leg springs30. The leg springs30 are coil springs made of a ferromagnetic metal. The leg springs30 are also fully compressed. Eachleg spring30 has the same predetermined length L3 and spring constant, the importance of which will be later explained.
[0023]Foot elements32 are disposed at the ends of the leg springs30 opposite thelower torso section18. Eachfoot element32 is non-metallic. In eachfoot element32 is amagnet34. The non-metallic material of eachfoot element32 isolates themagnets34 from the leg springs30. Consequently, the leg springs30 themselves do not become magnetically polarized by being in contact with themagnets34. Themagnets34 used in the foot elements are also preferably rare earth magnets. Rare earth magnets have very strong magnetic field-to-weight ratio, which is a desirable feature in the toy FIG. 10.
Since[0024]magnets34 are placed in thefoot elements32 of the toy FIG. 10, thefoot elements32 of the toy figure will magnetically adhere to any ferromagnetic surface. When free standing, the weight of the toy FIG. 10 is supported by the leg springs30. The spring constant of the leg springs30 is preferably sufficient to maintain the fully compressed condition of the leg springs30 and support the weight of the toy FIG. 10 without bending or buckling.
Referring to FIG. 2, it will be understood that once the[0025]foot elements32 of the toy FIG. 10 are attached to a metallic surface, the spring components of the toy figure's body enable the toy figure to move in a variety of ways. Theabdomen spring20 in the center of the toy FIG. 10 enables theupper torso section12 of the toy FIG. 10 to rock back and forth in the directions ofarrow40 andarrow42. Theabdomen spring20 also enables theupper torso section12 to be twisted in the directions ofarrow44. The leg springs30 enable both theupper torso section12 and thelower torso section18 to rock back and forth in the direction ofarrow42. As such, if the toy FIG. 10 is placed on a moving or vibrating surface, such as a washing machine or a car dashboard, the toy FIG. 10 will randomly move through a wide range of movements.
Returning to FIG. 1, it will be understood that since magnets are disposed within the[0026]hand elements24 and thefoot elements32 of the toy FIG. 10, thehand elements24 andfoot elements32 of the toy FIG. 10 can be selectively attached to any ferromagnetic surface, such as a refrigerator, metal lunchbox or the like. However, the arm springs22, leg springs30 and abdomen spring20 of the toy FIG. 10 are visible, exposed parts of the toy FIG. 10. All the springs used are made of ferromagnetic metal. Accordingly, themagnets26,34 in thehand elements24 andfoot elements32 can be used to attach thehand elements24 and/orfoot elements32 to the legs springs30, arm springs22 orabdomen spring20 of the toy FIG. 10. The toy FIG. 10 is therefore able to be posed in a plurality of different poses. It will therefore be understood that eachhand element24 can be magnetically connected to the opposite hand element, theopposite arm spring22, theabdomen spring20, eitherleg spring30 or eitherfoot element32. Likewise, eachfoot element32 can be attached to the opposite foot element, theopposite leg spring30, eitherarm spring22 or eitherhand element24. The springs in the toy FIG. 10 are normally isolated from the magnets. As such, the springs do not have a magnetic polarity that might repel anyparticular hand magnet26 orfoot magnet34.
Referring to FIG. 3, it can be seen that the[0027]hand elements24 of the toy FIG. 10 can be oriented to magnetically attach to thefoot elements32 on that same figure. The length and spring constant of theabdomen spring20 is specifically designed to enable the toy FIG. 10 to bend over this far. Furthermore, the length of the arm springs22 is coordinated with the length of theabdomen spring20 to enable thehand elements24 to be able to reach thefoot elements32 in such a manner.
The combination of metallic springs and magnetic extremities not only enables a single toy figure to be posed in a variety of positions, these same configurations enable one toy figure to interconnect with other toy figures of the same construction. The magnet in the hand element of one toy figure will attach to the hands, feet, arms, legs and/or abdomen of any other toy figure that shares the same construction.[0028]
Referring to FIG. 4, two toy figures are shown. The first toy FIG. 10 is the same as that previously shown and described. However, the second FIG. 50 is formed as an animal. Like the first toy FIG. 10, the animal toy FIG. 50 has an[0029]upper torso section52, alower torso section54, arm springs56, leg springs58, anabdomen spring60,hand elements62 andfoot elements64. However, in the shown embodiment, the arm springs56 serve as the front legs and thehand elements62 serve as the front paws.
From FIG. 4, it can also be understood that the hand elements and foot elements of any one toy figure can connect to the exposed springs on any other similar toy figure. Furthermore, the hand elements and foot elements from any two figures can also magnetically interconnect.[0030]
It will be understood that the present invention toy figures described and illustrated are merely an exemplary embodiment and that a person skilled in the art can make many variations to the shown design. For example, the appearance and character motif of the toy figure can be changed as desired to mimic the appearance of any real or fictional creature. All such modifications and alternate embodiments are intended to be included within the scope of the present invention as described and claimed below.[0031]