US20100003889A1 - Flexible mechanical appendage - Google Patents
Flexible mechanical appendage Download PDFInfo
- Publication number
- US20100003889A1 US20100003889A1 US12/498,753 US49875309A US2010003889A1 US 20100003889 A1 US20100003889 A1 US 20100003889A1 US 49875309 A US49875309 A US 49875309A US 2010003889 A1 US2010003889 A1 US 2010003889A1
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- United States
- Prior art keywords
- flexible spine
- cable
- spool
- flexible
- appendage
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- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Abandoned
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- 238000005452 bending Methods 0.000 description 4
- 241000086550 Dinosauria Species 0.000 description 1
- 230000000712 assembly Effects 0.000 description 1
- 238000000429 assembly Methods 0.000 description 1
- 230000000694 effects Effects 0.000 description 1
- 238000000034 method Methods 0.000 description 1
- 238000012986 modification Methods 0.000 description 1
- 230000004048 modification Effects 0.000 description 1
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Classifications
-
- A—HUMAN NECESSITIES
- A63—SPORTS; GAMES; AMUSEMENTS
- A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
- A63H31/00—Gearing for toys
- A63H31/06—Belt or string gear
-
- A—HUMAN NECESSITIES
- A63—SPORTS; GAMES; AMUSEMENTS
- A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
- A63H3/00—Dolls
- A63H3/36—Details; Accessories
- A63H3/46—Connections for limbs
-
- A—HUMAN NECESSITIES
- A63—SPORTS; GAMES; AMUSEMENTS
- A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
- A63H31/00—Gearing for toys
- A63H31/10—Gearing mechanisms actuated by movable wires enclosed in flexible tubes
Definitions
- the background of the invention relates to moveable appendages used and incorporated in toys. Toys have been developed for many years and the ability to fully enjoy such toys is often left to the child's imagination. One such type of enjoyment is having the toy with movable appendages. While most toys already have some form of moveable appendage, it has been difficult to employ flexible mechanical appendages because of the complexity of the structural elements necessary to provide various types of curling and flexible movement. There is a need to provide for various types of flexible mechanical movement in an appendage. Such a need is addressed by one or more of the embodiments provided herein.
- the appendage is provided with in one embodiment a flexible spine having a predetermined length positioned between a head end and a tail end, and having two sides disposed along the predetermined length.
- a plurality of arms extend outwardly from both sides of the flexible spine. Each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through the distal end.
- a cable extends along both sides of the flexible spine through each of the apertures of the arms and terminating about the tail end of the flexible spine.
- a pulley system is positioned about the head end of the flexible spine and has a spool rotatably driven by a reciprocating motor.
- the spool has a fastener for securing the cable thereto.
- the reciprocating motor rotates the spool in a single direction reeling on cable extending along one side of the flexible spine and releasing cable extending along the other side of the flexible spine such that the flexible spine bends in an arc.
- the flexible spine is comprised of a uniform material extending from the head end to its tail end and which is a rigid flexible material having a resiliently straight disposition such that when the flexible spine is bent and then released, the flexible spine tends to return to a substantially straight disposition.
- the spool is positioned within a spool cover and the distance between the spool and the spool cover has a tolerance measured to be less than one half the diameter of the cable to substantially reduce unraveling of the cable.
- the flexible spine further includes a top portion and a bottom portion extending along the predetermined length, and the top and bottom portions further include a plurality of secondary arms extending outwardly from the flexible spine.
- Each of the plurality of secondary arms has an aperture positioned there through about an end distal to the flexible spine.
- a secondary pulley system is provided and angled substantially 90 degrees from the pulley system and includes a secondary reciprocating motor for rotating a secondary spool having cable, string, filament (referred to herein as cable) fastened there to and the cable extending from the secondary spool through the apertures on the plurality of secondary arms extending outwardly from the top and bottom portions of the flexible spine and terminating about the tail section.
- the flexible spine has a substantially consistent thickness or has a tapered thickness defined by having a head diameter larger than a tail diameter.
- the appendage includes along a region of the flexible spine a crossing of cable such that cable positioned along a first side of the flexible spine moves to a second side of the flexible spine and cable positioned along the second side moves to the first side, whereby when cable along one side of the flexible spine is reeled by the spool the flexible spine curves inwardly from the head end up to the region and then curves outwardly from the region to the tail end.
- the appendage may include an outer covering encasing the appendage and having an covering end around the tail end of the flexible spine, the covering end further including a first section movable with respect to a second section and wherein and end of cable extends from the tail end and is attached to the first section such that when the cable is reeled by the spool the flexible spine curves and the end of cable pulled by the spool moves the first section with respect to the second section.
- a flexible mechanical appendage having a flexible spine with a predetermined length terminating at a pair of tail ends distal to each other.
- the flexible spine having a first side disposed along the predetermined length.
- a plurality of arms extend outwardly from the first side of the flexible spine, each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through said distal end. Cable extends along the first side of the flexible spine through each of the apertures of the arms and terminates about the tail ends of the flexible spine.
- a pulley system is positioned intermediate of the tail ends of the flexible spine and defines a pair of head ends on the flexible spine about either side of the pulley system, the pulley system has a spool rotatably driven by a reciprocating motor.
- the spool has a fastener for securing the cable thereto, wherein when the pulley system is activated the reciprocating motor rotates the spool in a single direction reeling on cable extending along the first side of the flexible spine such that the flexible spine bends moving the tail ends in an arc.
- the flexible appendage may further have a second side being opposed from the first side and disposed along the predetermined length, the second side having a second plurality of arms extending outwardly there from, each second arm of the second plurality of arms having an aperture there through, and cable extending along the second side of the flexible spine extending through the apertures of the second plurality of arms and being attached to the spool.
- a flexible mechanical appendage having a flexible spine with a predetermined length positioned between a head end and a tail end, and having two side portions a top portion and a bottom portion all disposed along the predetermined length.
- a plurality of arms extend outwardly from the side portions and the top and bottom portions of the flexible spine.
- Each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through the distal end. Cable extends along the side portions and the top and bottom portions of the flexible spine through each of the apertures of the arms and terminates about the tail end of the flexible spine.
- a first pulley system is positioned about the head end of the flexible spine and has a first spool rotatably driven by a first reciprocating motor.
- the first spool has a first fastener for securing cable extending along the two side portions, and wherein when the first pulley system is activated the first reciprocating motor rotates the spool in a single direction reeling on cable extending along one of the side portions and releasing cable extending along the other side portion such that the flexible spine bends in an arc.
- a second pulley system is positioned about the head end of the flexible spine and having a second spool rotatably driven by a second reciprocating motor.
- the second spool has a second fastener for securing cable extending along the top and bottom portions, and wherein when the second pulley system is activated the second reciprocating motor rotates the spool in a single direction reeling on cable extending along one of the top or bottom portions and releasing cable extending along the other top or bottom portions such that the flexible spine bends in an arc.
- the first and second pulley systems are positioned at a 90 degree angle with respect to one another, such that bending of the flexible spine by only the first pulley system is at a 90 degree angle to the bending of the flexible spine by only the second pulley system but when both the first and second pulley systems bend the flexible spine, the flexible spine is bent substantially between the two at about a 45 degree angle.
- FIG. 1 a is a top view of a flexible mechanical appendage in accordance with one embodiment of the present invention
- FIG. 1 b if a side perspective view of FIG. 1 a;
- FIG. 1 c is a side perspective view of FIG. 1 a illustrating partial rotation of a spool used to pull one side of a flexible spine;
- FIG. 1 d is a side perspective view of FIG. 1 d illustrating substantially 100% rotation of a spool used to pull one side of a flexible spine;
- FIG. 2 a is an exploded view of a pulley system used in accordance with an embodiment of the present invention
- FIG. 2 b is a top view of an assembled pulley system
- FIG. 2 c is a perspective view of FIG. 2 b;
- FIG. 2 d is a sectional view of FIG. 2 c taken along line 2 d;
- FIG. 3 a is a top graphic illustration of a flexible mechanical arm with 0 degree rotation of the spool
- FIG. 3 b is a top graphic illustration of a flexible mechanical arm at partial rotation of the spool
- FIG. 3 c is a top graphic illustration of a flexible mechanical arm at a rotation of the spool greater than the rotation illustrated in FIG. 3 b;
- FIG. 4 is a perspective view of another embodiment of a flexible mechanical appendage having two pulley systems
- FIG. 5 a is a perspective view of another embodiment of a flexible mechanical appendage having two pulley systems and a tapered flexible spine;
- FIG. 5 b is a sectional view of FIG. 5 a;
- FIG. 5 c is an exploded view of FIG. 5 a
- FIG. 6 a is a perspective view of a flexible mechanical appendage having two pulley systems and a tapered flexible spine, illustrating the appendage when a first pulley is at 100% rotation and the second pulley is at 0% rotation;
- FIG. 6 b is a perspective view of the flexible mechanical appendage from FIG. 6 a, illustrating the appendage when a first pulley and the second pulley are at 100% rotation;
- FIG. 6 c is a perspective view of the flexible mechanical appendage from FIG. 6 a, illustrating the appendage when a first pulley is at 0% rotation and the second pulley is at 100% rotation;
- FIG. 7 is a perspective view of a flexible mechanical appendage having at least one pulley system and includes a crossing of the cable sections to create an s pattern when the at least one pulley system is activated;
- FIG. 8 shows a flexible mechanical appendage inserted through a character formed as a dinosaur and including a pair of flexible spines controlled by a single pulley system
- FIG. 9 a shows a flexible mechanical appendage inserted through a character formed as a doll and including a single flexible spine with two ends by a single pulley system positioned between the two ends;
- FIG. 9 b is a perspective view of the flexible mechanical appendage without the character casing of FIG. 9 a;
- FIG. 9 c is an illustration of the flexible mechanical appendage of FIG. 9 a without the character casing
- FIG. 10 a is a perspective view of a flexible mechanical appendage embedded in a vehicle
- FIG. 10 b is a top view of FIG. 10 a;
- FIG. 10 c is a side view of FIG. 10 a.
- FIG. 10 d is a top perspective view of the vehicle from FIG. 10 a illustrating the flexible mechanical appendage in a curved position.
- the appendage 100 includes a flexible spine 110 traveling from a head 120 of the appendage 100 to a tail 130 of the appendage.
- the spine 110 is preferably a flexible but uniform element, and may be made from a plastic material that would exhibit such qualities. The term uniform is meant to infer that it is a single element and that the spine is not a plurality of smaller elements jointed together end to end.
- the spine 110 also has a resiliently straight disposition such that while the spine may be bent or flexed, it has a tendency to return to a straight position when no forces are acting on it.
- the spine 110 includes arms 140 extending outwardly from each side 112 , 114 of the spine 110 .
- Each arm 140 includes an aperture 142 about an end 144 of the arm 140 that is opposed to the spine 110 .
- a cable 150 travels through the apertures 142 and is secured about its ends 152 , 154 separately to the arms 140 that are furthest from the head 120 of the spine 110 or the last arms. It is not material to the scope of the embodiment if excess cable is hanging from the last arm.
- two cables can also work rather than a single cable 150 .
- reference in the embodiments will be to a first section 156 and a second section 158 .
- the appendage 100 includes a pulley system 160 that when activates pulls on one side or the other side of the spine by pulling on one of the sections of cable, illustrated in FIGS. 2 a - 2 d.
- the pulley system 160 includes spool 162 , one or more cables 150 , a spool cover 164 , and a reciprocating motor assembly 166 .
- the first and second sections 156 , 158 of cable 150 are secured to a fastener 170 positioned on the spool 162 .
- the spool 162 includes apertures (not shown) that permit the first and second sections of cable to pass from an external centered section 172 to an internal section 174 of the spool 162 such that the cable may be secured to the fastener 170 that is also positioned in the internal section.
- the spool 170 further includes a pin 176 extending away from the base 178 of the spool 170 and is fastened to a gear (not shown) that is driven by reciprocating motor assembly 166 .
- a tolerance 179 between the spool 170 and a spool cover 164 may be smaller than one half the cable diameter to prevent the cable from unraveling and possible become tangled during use.
- the spool cover 164 further includes a pair of apertures 165 that extend from a top edge of the spool cover downwardly, but not necessarily extending to a bottom edge of the spool cover. The apertures 165 permit the first and second sections of cable 150 to pass through the spool cover to be inserted through the arms 140 of the appendage 100 .
- FIGS. 3 a through 3 c there is shown in accordance to one or more of the above embodiments an appendage 100 having a pulley system 160 and a flexible spine 110 .
- the pulley system 160 rotates the spool 162 counter clockwise the first section of cable 156 pulls on its end 152 and through the other arms causing the flexible spine to bend from a straight position to a bent position, and will create an arc.
- each pulley system has a cable 150 a and 150 b with two sections (first sections 156 a, 156 b and second sections 158 a, 158 b ) that travel through openings 142 a, 142 b in arms 140 a, 140 b that extend from a single flexible spine 110 .
- first sections 156 a, 156 b and second sections 158 a, 158 b that travel through openings 142 a, 142 b in arms 140 a, 140 b that extend from a single flexible spine 110 .
- first sections 156 a, 156 b and second sections 158 a, 158 b that travel through openings 142 a, 142 b in arms 140 a, 140 b that extend from a single flexible spine 110 .
- the flexible spine 110 has a consistent thickness pulling on a cable will cause a consistent arc.
- the function of the two pulley systems will be discussed in greater detail below.
- a tapered flexible spine 510 causes the flexible spine to bend into a spiral configuration, referred to as an appendage 500 .
- a head 512 of the flexible spine 510 is secured to the pulley system 160 .
- the shape of the curve may also changed by changing the distance, size or a combination thereof of the flexible spine or by changing the distance between arms or the length of the arms. As illustrated, the arms are equally spaced and have an equal length.
- the tapering in one embodiment has a greater thickness at the head 512 of the flexible spine 510 than at the tail 514 of the spine 510 .
- the arms 140 a, 140 b may either extend from the flexible spine 510 or may be part of an arm assembly 520 .
- the arm assembly 520 includes a centered bore 522 to allow the arm assembly 520 to slide along the flexible spine 510 , during assembly only.
- the centered bore size would be different depending on the thickness of the flexible spine.
- the arms 140 a, 140 b would extend outwardly from the centered bore region 524 .
- the entire flexible spine and arm assemblies can be a uniform single molded piece.
- the appendage 500 having four sections of cable allow for different types of movement depending upon which section(s) are pulled.
- the spine will bend at a relatively zero degree offset from the activated pulley system.
- the pulley systems 160 a and 160 b were separately positioned substantially at a vertical and horizontal position, then movement of only the horizontal pulley system will cause the flexible spine to bend and spiral along a horizontal plane.
- the flexible spine will bend and spiral along a vertical plane.
- the two pulley systems are activated the flexible spine will bend at an angle relative to the degree of movement of each system.
- both pulley systems pull their respective cables at the same rate the flexible spine will bend along a plane that is angle 45 degrees from each plane of the pulley system.
- the flexible spine will spiral along a plane that is 45 degrees offset from each other ( FIG. 6 b ); occurring when cable 156 a and 156 b are pulled.
- a release of one of the pulley systems will cause the flexible spine to move towards the opposite plane.
- the vertical pulley system is at 100% maximum coil and the horizontal pulley system is at 0%, the flexible spine will spiral along a vertical plane ( FIG. 6 c ); occurring when cable 156 b is pulled and 156 a/ 158 a are released.
- the flexible spine When the horizontal pulley system was at 100% and the vertical pulley system was at 0% the flexible spine would spiral along a horizontal plane ( FIG. 6 a ); occurring when cable 156 a is pulled and cable 156 b/ 158 b is released. Similarly, when the opposite cables are pulled from what is illustrated, the flexible spine is capable of bending 180 degrees from what is shown and if the percent of the pull is less than that which is illustrated one can easily imagine that a full range of motion of the flexible spine is 360 degrees from an axis extending along a substantially unbent flexible spine.
- the appendage 700 includes at least one pulley system 702 and a pair of cable sections 704 , 706 .
- the cable sections are positioned through the apertures in the arms 708 .
- At least along one point 715 on the flexible spine 710 the cable sections cross and are thread through the openings on the opposite arms to which it was originally being thread.
- the appendage 700 is illustrated with a covering or skin 720 such that the appendage may be defined as a tail, arm, head, or any other type of appendage for a figure.
- the mechanical appendage 800 includes a pulley system 810 used to control two flexible spines 815 and 820 directed on either side of the pulley system 810 .
- a cable 825 with two segments 830 and 835 connect the pulley system 810 to the flexible spines 815 and 820 .
- the cables cross around the spool 813 and continue to extend on opposite sides of the center of the spines, such that one segment that was connected to the top of one flexible spine is connected to the bottom of the opposite flexible spine. This also allows the appendage 800 to use a single motor to control the movement of the two flexible spines 815 and 820 .
- the second flexible spine 820 also includes a cross-over section 840 , similar to the region 715 in FIG. 7 . This permits the second flexible spine 820 to exhibit an S shape movement when the pulley system 810 is pulling up on the flexible spine 820 .
- an end 845 of one of the cable sections 830 extends past the last arm section 850 and is attached to a lower jaw 855 of a mouth 860 . When the cable section 830 is pulled or released, the end 845 will pull or release to move the lower jaw 855 and act to either shut the mouth 860 or allow it to open (if biased in an closed position).
- a flexible mechanical appendage 900 is inserted into a doll 950 to simulate movement of its arms.
- the flexible mechanical appendage 900 includes a single flexible spine 902 .
- a pulley system 904 is placed in the middle of the flexible spine 902 with a 906 having a first section 906 a and a second section 906 b extending outwardly to the ends 908 of the flexible spine 902 .
- the cable travels through openings in arm members 910 that extend from the flexible spine 902 .
- FIGS. 10 a through 10 d a similar flexible mechanical appendage 900 is illustrated for use with a vehicle 950 .
- the vehicle includes multiple sets of wheels, a first set of wheels 952 are powered by the motor assembly used in the pulley system 904 , while two sets of end wheels 954 may either be powered or freely rotating.
- the pulley system 904 uses two cables 956 and 958 that crisscross about the pulley system 904 to continue traveling along the opposite bank of flexible spine.
- the pulley system curves the flexible spine.
- FIG. 10 d shows the vehicle in a complete flexed position and the vehicle would travel in circles, a less curved position would turn the vehicle in specified direction.
- the spool cover would includes multiple pairs of apertures to permit the sections of cable to pass through the spool cover and to be inserted through the arms of the appendage.
Abstract
A flexible mechanical appendage is provided to include a predetermined length positioned between head and tail ends, and having two sides disposed along the length. Arms extending outwardly from both sides of the flexible spine, and having an aperture positioned through each arm. A cable extends along both sides of the flexible spine through each of the apertures and terminates about the tail end of the flexible spine. A pulley system is positioned about the head end and has a spool rotatably driven by a reciprocating motor. The spool has a fastener for securing the cable thereto, wherein when the pulley system rotates the spool in a single direction reeling on cable, one side of the flexible spine bends in an arc.
Description
- The present invention claims priority to U.S. Provisional Application 61/078,676 filed Jul. 7, 2008.
- The background of the invention relates to moveable appendages used and incorporated in toys. Toys have been developed for many years and the ability to fully enjoy such toys is often left to the child's imagination. One such type of enjoyment is having the toy with movable appendages. While most toys already have some form of moveable appendage, it has been difficult to employ flexible mechanical appendages because of the complexity of the structural elements necessary to provide various types of curling and flexible movement. There is a need to provide for various types of flexible mechanical movement in an appendage. Such a need is addressed by one or more of the embodiments provided herein.
- One or more of the embodiments provided in the present invention relates to the flexible movement of a mechanical appendage. The appendage is provided with in one embodiment a flexible spine having a predetermined length positioned between a head end and a tail end, and having two sides disposed along the predetermined length. A plurality of arms extend outwardly from both sides of the flexible spine. Each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through the distal end. A cable extends along both sides of the flexible spine through each of the apertures of the arms and terminating about the tail end of the flexible spine. A pulley system is positioned about the head end of the flexible spine and has a spool rotatably driven by a reciprocating motor. The spool has a fastener for securing the cable thereto. When the pulley system is activated, the reciprocating motor rotates the spool in a single direction reeling on cable extending along one side of the flexible spine and releasing cable extending along the other side of the flexible spine such that the flexible spine bends in an arc.
- In another embodiment, the flexible spine is comprised of a uniform material extending from the head end to its tail end and which is a rigid flexible material having a resiliently straight disposition such that when the flexible spine is bent and then released, the flexible spine tends to return to a substantially straight disposition. In another embodiment, the spool is positioned within a spool cover and the distance between the spool and the spool cover has a tolerance measured to be less than one half the diameter of the cable to substantially reduce unraveling of the cable.
- In another embodiment, the flexible spine further includes a top portion and a bottom portion extending along the predetermined length, and the top and bottom portions further include a plurality of secondary arms extending outwardly from the flexible spine. Each of the plurality of secondary arms has an aperture positioned there through about an end distal to the flexible spine. In addition, a secondary pulley system is provided and angled substantially 90 degrees from the pulley system and includes a secondary reciprocating motor for rotating a secondary spool having cable, string, filament (referred to herein as cable) fastened there to and the cable extending from the secondary spool through the apertures on the plurality of secondary arms extending outwardly from the top and bottom portions of the flexible spine and terminating about the tail section.
- In yet other embodiments, the flexible spine has a substantially consistent thickness or has a tapered thickness defined by having a head diameter larger than a tail diameter.
- In yet another embodiment, the appendage includes along a region of the flexible spine a crossing of cable such that cable positioned along a first side of the flexible spine moves to a second side of the flexible spine and cable positioned along the second side moves to the first side, whereby when cable along one side of the flexible spine is reeled by the spool the flexible spine curves inwardly from the head end up to the region and then curves outwardly from the region to the tail end. In similar aspects, the appendage may include an outer covering encasing the appendage and having an covering end around the tail end of the flexible spine, the covering end further including a first section movable with respect to a second section and wherein and end of cable extends from the tail end and is attached to the first section such that when the cable is reeled by the spool the flexible spine curves and the end of cable pulled by the spool moves the first section with respect to the second section.
- In still yet other embodiments, there is provided a flexible mechanical appendage having a flexible spine with a predetermined length terminating at a pair of tail ends distal to each other. The flexible spine having a first side disposed along the predetermined length. A plurality of arms extend outwardly from the first side of the flexible spine, each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through said distal end. Cable extends along the first side of the flexible spine through each of the apertures of the arms and terminates about the tail ends of the flexible spine. A pulley system is positioned intermediate of the tail ends of the flexible spine and defines a pair of head ends on the flexible spine about either side of the pulley system, the pulley system has a spool rotatably driven by a reciprocating motor. The spool has a fastener for securing the cable thereto, wherein when the pulley system is activated the reciprocating motor rotates the spool in a single direction reeling on cable extending along the first side of the flexible spine such that the flexible spine bends moving the tail ends in an arc. Based on such embodiments, the flexible appendage may further have a second side being opposed from the first side and disposed along the predetermined length, the second side having a second plurality of arms extending outwardly there from, each second arm of the second plurality of arms having an aperture there through, and cable extending along the second side of the flexible spine extending through the apertures of the second plurality of arms and being attached to the spool.
- In yet still other embodiments, there is provided a flexible mechanical appendage having a flexible spine with a predetermined length positioned between a head end and a tail end, and having two side portions a top portion and a bottom portion all disposed along the predetermined length. A plurality of arms extend outwardly from the side portions and the top and bottom portions of the flexible spine. Each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through the distal end. Cable extends along the side portions and the top and bottom portions of the flexible spine through each of the apertures of the arms and terminates about the tail end of the flexible spine. A first pulley system is positioned about the head end of the flexible spine and has a first spool rotatably driven by a first reciprocating motor. The first spool has a first fastener for securing cable extending along the two side portions, and wherein when the first pulley system is activated the first reciprocating motor rotates the spool in a single direction reeling on cable extending along one of the side portions and releasing cable extending along the other side portion such that the flexible spine bends in an arc. In addition, a second pulley system is positioned about the head end of the flexible spine and having a second spool rotatably driven by a second reciprocating motor. The second spool has a second fastener for securing cable extending along the top and bottom portions, and wherein when the second pulley system is activated the second reciprocating motor rotates the spool in a single direction reeling on cable extending along one of the top or bottom portions and releasing cable extending along the other top or bottom portions such that the flexible spine bends in an arc. Furthermore, when the first and second pulley systems are positioned at a 90 degree angle with respect to one another, such that bending of the flexible spine by only the first pulley system is at a 90 degree angle to the bending of the flexible spine by only the second pulley system but when both the first and second pulley systems bend the flexible spine, the flexible spine is bent substantially between the two at about a 45 degree angle.
- Numerous other advantages and features of the invention will become readily apparent from the following detailed description of the invention and the embodiments thereof, from the claims, and from the accompanying drawings.
- A fuller understanding of the foregoing may be had by reference to the accompanying drawings, wherein:
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FIG. 1 a is a top view of a flexible mechanical appendage in accordance with one embodiment of the present invention; -
FIG. 1 b if a side perspective view ofFIG. 1 a; -
FIG. 1 c is a side perspective view ofFIG. 1 a illustrating partial rotation of a spool used to pull one side of a flexible spine; -
FIG. 1 d is a side perspective view ofFIG. 1 d illustrating substantially 100% rotation of a spool used to pull one side of a flexible spine; -
FIG. 2 a is an exploded view of a pulley system used in accordance with an embodiment of the present invention; -
FIG. 2 b is a top view of an assembled pulley system; -
FIG. 2 c is a perspective view ofFIG. 2 b; -
FIG. 2 d is a sectional view ofFIG. 2 c taken along line 2 d; -
FIG. 3 a is a top graphic illustration of a flexible mechanical arm with 0 degree rotation of the spool; -
FIG. 3 b is a top graphic illustration of a flexible mechanical arm at partial rotation of the spool; -
FIG. 3 c is a top graphic illustration of a flexible mechanical arm at a rotation of the spool greater than the rotation illustrated inFIG. 3 b; -
FIG. 4 is a perspective view of another embodiment of a flexible mechanical appendage having two pulley systems; -
FIG. 5 a is a perspective view of another embodiment of a flexible mechanical appendage having two pulley systems and a tapered flexible spine; -
FIG. 5 b is a sectional view ofFIG. 5 a; -
FIG. 5 c is an exploded view ofFIG. 5 a; -
FIG. 6 a is a perspective view of a flexible mechanical appendage having two pulley systems and a tapered flexible spine, illustrating the appendage when a first pulley is at 100% rotation and the second pulley is at 0% rotation; -
FIG. 6 b is a perspective view of the flexible mechanical appendage fromFIG. 6 a, illustrating the appendage when a first pulley and the second pulley are at 100% rotation; -
FIG. 6 c is a perspective view of the flexible mechanical appendage fromFIG. 6 a, illustrating the appendage when a first pulley is at 0% rotation and the second pulley is at 100% rotation; -
FIG. 7 is a perspective view of a flexible mechanical appendage having at least one pulley system and includes a crossing of the cable sections to create an s pattern when the at least one pulley system is activated; -
FIG. 8 shows a flexible mechanical appendage inserted through a character formed as a dinosaur and including a pair of flexible spines controlled by a single pulley system; -
FIG. 9 a shows a flexible mechanical appendage inserted through a character formed as a doll and including a single flexible spine with two ends by a single pulley system positioned between the two ends; -
FIG. 9 b is a perspective view of the flexible mechanical appendage without the character casing ofFIG. 9 a; -
FIG. 9 c is an illustration of the flexible mechanical appendage ofFIG. 9 a without the character casing; -
FIG. 10 a is a perspective view of a flexible mechanical appendage embedded in a vehicle; -
FIG. 10 b is a top view ofFIG. 10 a; -
FIG. 10 c is a side view ofFIG. 10 a; and -
FIG. 10 d is a top perspective view of the vehicle fromFIG. 10 a illustrating the flexible mechanical appendage in a curved position. - While the invention is susceptible to embodiments in many different forms, there are shown in the drawings and will be described herein, in detail, the preferred embodiments of the present invention. It should be understood, however, that the present disclosure is to be considered an exemplification of the principles of the invention and is not intended to limit the spirit or scope of the invention and/or the embodiments illustrated.
- Referring now
FIGS. 1 a-1 d, there is shown in a first embodiment a flexiblemechanical appendage 100 illustrated from various angles and in various flexed positions. The flexible mechanical appendage referred to in the various embodiments will be more commonly referenced as an appendage. Theappendage 100 includes aflexible spine 110 traveling from ahead 120 of theappendage 100 to atail 130 of the appendage. Thespine 110 is preferably a flexible but uniform element, and may be made from a plastic material that would exhibit such qualities. The term uniform is meant to infer that it is a single element and that the spine is not a plurality of smaller elements jointed together end to end. Thespine 110 also has a resiliently straight disposition such that while the spine may be bent or flexed, it has a tendency to return to a straight position when no forces are acting on it. - The
spine 110 includesarms 140 extending outwardly from eachside spine 110. Eacharm 140 includes anaperture 142 about anend 144 of thearm 140 that is opposed to thespine 110. Acable 150 travels through theapertures 142 and is secured about itsends arms 140 that are furthest from thehead 120 of thespine 110 or the last arms. It is not material to the scope of the embodiment if excess cable is hanging from the last arm. In addition, it is contemplated throughout the embodiments that two cables can also work rather than asingle cable 150. Thus, for clarity purposes only, since a single cable version also includes two sections will have the same effect as having two cables, reference in the embodiments will be to afirst section 156 and asecond section 158. - The
appendage 100, in one or more embodiments, includes apulley system 160 that when activates pulls on one side or the other side of the spine by pulling on one of the sections of cable, illustrated inFIGS. 2 a-2 d. Thepulley system 160 includesspool 162, one ormore cables 150, aspool cover 164, and areciprocating motor assembly 166. - The first and
second sections cable 150 are secured to afastener 170 positioned on thespool 162. In one aspect of this embodiment, thespool 162 includes apertures (not shown) that permit the first and second sections of cable to pass from an externalcentered section 172 to aninternal section 174 of thespool 162 such that the cable may be secured to thefastener 170 that is also positioned in the internal section. Thespool 170 further includes apin 176 extending away from thebase 178 of thespool 170 and is fastened to a gear (not shown) that is driven by reciprocatingmotor assembly 166. - It has also been determined that a
tolerance 179 between thespool 170 and aspool cover 164 may be smaller than one half the cable diameter to prevent the cable from unraveling and possible become tangled during use. Thespool cover 164 further includes a pair ofapertures 165 that extend from a top edge of the spool cover downwardly, but not necessarily extending to a bottom edge of the spool cover. Theapertures 165 permit the first and second sections ofcable 150 to pass through the spool cover to be inserted through thearms 140 of theappendage 100. - Referring now to
FIGS. 3 a through 3 c, there is shown in accordance to one or more of the above embodiments anappendage 100 having apulley system 160 and aflexible spine 110. As thepulley system 160 rotates thespool 162 counter clockwise the first section ofcable 156 pulls on itsend 152 and through the other arms causing the flexible spine to bend from a straight position to a bent position, and will create an arc. The more the spool is rotated the more theflexible spine 110 bends. In addition, as the spool is rotated to pull thefirst section 156 ofcable 150, a portion of thesecond section 158 of cable unwinds from the spool such that the flexible spine does not bend against resistance from thesecond section 158 of cable and is freely able to bend in the direction of the pulled section of cable. As the spool is rotated in the opposite direction, from a bent flexible spine, the section of cable pulling and bending the spine releases slack allowing the flexible spine to resiliently return back to a substantially straight position. - Referring now to
FIG. 4 , there is shown in accordance to another embodiment an appendage 400 having twopulley systems first sections 156 a, 156 b and second sections 158 a, 158 b) that travel throughopenings arms 140 a, 140 b that extend from a singleflexible spine 110. As will be discussed in further embodiments, when theflexible spine 110 has a consistent thickness pulling on a cable will cause a consistent arc. The function of the two pulley systems will be discussed in greater detail below. - Referring now to
FIGS. 5 a through 5 c, it has been found that a taperedflexible spine 510 causes the flexible spine to bend into a spiral configuration, referred to as anappendage 500. As shown inFIGS. 5 b, ahead 512 of theflexible spine 510 is secured to thepulley system 160. In addition, the shape of the curve may also changed by changing the distance, size or a combination thereof of the flexible spine or by changing the distance between arms or the length of the arms. As illustrated, the arms are equally spaced and have an equal length. The tapering in one embodiment has a greater thickness at thehead 512 of theflexible spine 510 than at thetail 514 of thespine 510. - The
arms 140 a, 140 b may either extend from theflexible spine 510 or may be part of anarm assembly 520. Thearm assembly 520 includes acentered bore 522 to allow thearm assembly 520 to slide along theflexible spine 510, during assembly only. The centered bore size would be different depending on the thickness of the flexible spine. Thearms 140 a, 140 b would extend outwardly from the centeredbore region 524. Alternatively, the entire flexible spine and arm assemblies can be a uniform single molded piece. - The
appendage 500 having four sections of cable allow for different types of movement depending upon which section(s) are pulled. For example and as shown inFIGS. 6 a through 6 c, when only one pulley system is activated, the spine will bend at a relatively zero degree offset from the activated pulley system. Thus if thepulley systems FIG. 6 b); occurring whencable 156 a and 156 b are pulled. However, a release of one of the pulley systems will cause the flexible spine to move towards the opposite plane. Thus, when the vertical pulley system is at 100% maximum coil and the horizontal pulley system is at 0%, the flexible spine will spiral along a vertical plane (FIG. 6 c); occurring when cable 156 b is pulled and 156 a/ 158 a are released. When the horizontal pulley system was at 100% and the vertical pulley system was at 0% the flexible spine would spiral along a horizontal plane (FIG. 6 a); occurring whencable 156 a is pulled and cable 156 b/ 158 b is released. Similarly, when the opposite cables are pulled from what is illustrated, the flexible spine is capable of bending 180 degrees from what is shown and if the percent of the pull is less than that which is illustrated one can easily imagine that a full range of motion of the flexible spine is 360 degrees from an axis extending along a substantially unbent flexible spine. - Referring now to
FIG. 7 , it is further shown that when the sections of cable are crossed, the resulting configuration of the flexible spine when pulled will create a sinuous shape or an S pattern. The appendage 700 includes at least onepulley system 702 and a pair ofcable sections arms 708. At least along onepoint 715 on theflexible spine 710 the cable sections cross and are thread through the openings on the opposite arms to which it was originally being thread. In addition, the appendage 700 is illustrated with a covering orskin 720 such that the appendage may be defined as a tail, arm, head, or any other type of appendage for a figure. - Referring now to
FIG. 8 , a flexiblemechanical appendage 800 is shown embedded in acharacter 805. Themechanical appendage 800 includes apulley system 810 used to control twoflexible spines pulley system 810. Acable 825 with twosegments pulley system 810 to theflexible spines segments pulley system 810, the cables cross around thespool 813 and continue to extend on opposite sides of the center of the spines, such that one segment that was connected to the top of one flexible spine is connected to the bottom of the opposite flexible spine. This also allows theappendage 800 to use a single motor to control the movement of the twoflexible spines - As further illustrated in
FIG. 8 , the secondflexible spine 820 also includes across-over section 840, similar to theregion 715 inFIG. 7 . This permits the secondflexible spine 820 to exhibit an S shape movement when thepulley system 810 is pulling up on theflexible spine 820. Lastly, anend 845 of one of thecable sections 830 extends past thelast arm section 850 and is attached to alower jaw 855 of amouth 860. When thecable section 830 is pulled or released, theend 845 will pull or release to move thelower jaw 855 and act to either shut themouth 860 or allow it to open (if biased in an closed position). - Referring now to
FIGS. 9 a through 9 c, a flexiblemechanical appendage 900 is inserted into adoll 950 to simulate movement of its arms. The flexiblemechanical appendage 900 includes a singleflexible spine 902. Apulley system 904 is placed in the middle of theflexible spine 902 with a 906 having a first section 906 a and a second section 906 b extending outwardly to theends 908 of theflexible spine 902. The cable travels through openings inarm members 910 that extend from theflexible spine 902. - Referring now to
FIGS. 10 a through 10d, a similar flexiblemechanical appendage 900 is illustrated for use with avehicle 950. The vehicle includes multiple sets of wheels, a first set ofwheels 952 are powered by the motor assembly used in thepulley system 904, while two sets ofend wheels 954 may either be powered or freely rotating. Except in this section thepulley system 904 uses twocables pulley system 904 to continue traveling along the opposite bank of flexible spine. To turn the vehicle the pulley system curves the flexible spine. WhileFIG. 10 d shows the vehicle in a complete flexed position and the vehicle would travel in circles, a less curved position would turn the vehicle in specified direction. As one can foresee, in order to have the cables extend through different directions, the spool cover would includes multiple pairs of apertures to permit the sections of cable to pass through the spool cover and to be inserted through the arms of the appendage. - While other more complicated types of flexible appendages require a push/pull system, one or more of the present embodiments use a pull/pull system, meaning that the pulley system pulls on both sides of the spine and does not at any time have to push on a side.
- From the foregoing and as mentioned above, it will be observed that numerous variations and modifications may be effected without departing from the spirit and scope of the novel concept of the invention. It is to be understood that no limitation with respect to the specific methods and apparatus illustrated herein is intended or should be inferred.
Claims (17)
1. A flexible mechanical appendage comprising:
a flexible spine having a predetermined length positioned between a head end and a tail end, and having two sides disposed along the predetermined length;
a plurality of arms extending outwardly from both sides of the flexible spine, each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through said distal end;
a cable extending along both sides of the flexible spine through each of the apertures of said arms and terminating about the tail end of the flexible spine; and
a pulley system positioned about the head end of the flexible spine and having a spool rotatably driven by a reciprocating motor, the spool having a fastener for securing the cable thereto, wherein when the pulley system is activated the reciprocating motor rotates the spool in a single direction reeling on cable extending along one side of the flexible spine and releasing cable extending along the other side of the flexible spine such that the flexible spine bends in an arc.
2. The appendage of claim 1 , wherein the flexible spine is comprised of a uniform material extending from the head end to its tail end and which is a rigid flexible material having a resiliently straight disposition such that when the flexible spine is bent and then released, the flexible spine tends to return to a substantially straight disposition.
3. The appendage of claim 1 , wherein the spool is positioned within a spool cover and the distance between the spool and the spool cover has a tolerance measured to be less than a diameter of the cable to substantially reduce unraveling of the cable.
4. The appendage of claim 3 , wherein the spool cover includes a pair of apertures extending from a top edge of the spool cover downwardly to permit cable to pass through the spool cover.
5. The appendage of claim 1 , wherein:
the flexible spine further includes a top portion and a bottom portion extending along the predetermined length, and the top and bottom portions further include plurality of secondary arms extending outwardly from the flexible spine, each of the plurality of secondary arms having an aperture positioned there through about an end distal to the flexible spine,
a secondary pulley system includes a secondary reciprocating motor for rotating a secondary spool having cable fastened there to and the cable extending from the secondary spool through the apertures on the plurality of secondary arms extending outwardly from the top and bottom portions of the flexible spine and terminating about the tail section.
6. The appendage of claim 5 , wherein the flexible spine has a substantially consistent thickness.
7. The appendage of claim 5 , wherein the flexible spine has a tapered thickness defined by having a head larger than a tail.
8. The appendage of claim 1 further comprising along a region of the flexible spine a crossing of cable such that cable positioned along a first side of the flexible spine moves to a second side of the flexible spine and cable positioned along the second side moves to the first side, whereby when cable along one side of the flexible spine is reeled by the spool the flexible spine curves inwardly from the head end up to the region and then curves outwardly from the region to the tail end.
9. The appendage of claim 1 further comprising:
a outer covering encasing the appendage and having an covering end around the tail end of the flexible spine, the covering end further including a first section movable with respect to a second section and wherein and end of cable extends from the tail end and is attached to the first section such that when said cable is reeled by the spool the flexible spine curves and the end of cable pulled by the spool moves the first section with respect to the second section.
10. The appendage of claim 1 further comprising:
a secondary flexible spine extending outwardly from said pulley system and having a secondary predetermined length positioned between a secondary head end and a secondary tail end, and having two secondary sides disposed along the secondary predetermined length;
a plurality of secondary arms extending outwardly from both secondary sides of the secondary flexible spine, each secondary arm of the plurality of secondary arms includes a secondary end distal to the secondary side of the secondary flexible spine to which it extends, and includes a secondary aperture through said secondary distal end;
a secondary cable extending along both secondary sides of the secondary flexible spine through each of the secondary apertures of said secondary arms and terminating about the secondary tail end of the secondary flexible spine; and
the secondary cable being fastened to said spool defined by the pulley system.
11. The appendage of claim 1 further comprising at least two sets of wheels separately positioned along the flexible spine, each set of wheels includes an axles extending there and wherein one of the at least two sets of wheels being driving by a motor.
12. A flexible mechanical appendage comprising:
a flexible spine having a predetermined length terminating at a pair of tail ends distal to each other, the flexible spine having a first side disposed along the predetermined length;
a plurality of arms extending outwardly from the first side of the flexible spine, each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through said distal end;
cable extending along the first side of the flexible spine through each of the apertures of said arms and terminating about the tail ends of the flexible spine; and
a pulley system positioned intermediate of the tail ends of the flexible spine and defining a pair of head ends on flexible spine about either side of the pulley system, the pulley system having a spool rotatably driven by a reciprocating motor, the spool having a fastener for securing the cable thereto, wherein when the pulley system is activated the reciprocating motor rotates the spool in a single direction reeling on cable extending along the first side of the flexible spine such that the flexible spine bends moving the tail ends in an arc.
13. The flexible appendage of claim 12 wherein the flexible spine further having a second side being opposed from the first side and disposed along the predetermined length, the second side having a second plurality of arms extending outwardly there from, each second arm of the second plurality of arms having an aperture there through, and cable extending along the second side of the flexible spine extending through the apertures of the second plurality of arms and being attached to the spool.
13. The appendage of claim 12 , wherein about one of the head ends of the flexible spine the cable crosses such that cable positioned along a first side of the flexible spine moves to a second side of the flexible spine and cable positioned along the second side moves to the first side.
14. A flexible mechanical appendage comprising:
a flexible spine having a predetermined length positioned between a head end and a tail end, and having two side portions a top portion and a bottom portion all disposed along the predetermined length;
a plurality of arms extending outwardly from the side portions and the top and bottom portions of the flexible spine, each arm of the plurality of arms includes an end distal to the side of the flexible spine to which it extends, and includes an aperture through said distal end;
cable extending along the side portions and the top and bottom portions of the flexible spine through each of the apertures of said arms and terminating about the tail end of the flexible spine;
a first pulley system positioned about the head end of the flexible spine and having a first spool rotatably driven by a first reciprocating motor, the first spool having a first fastener for securing cable extending along the two side portions, wherein when the first pulley system is activated the first reciprocating motor rotates the spool in a single direction reeling on cable extending along one of the side portions and releasing cable extending along the other side portion such that the flexible spine bends in an arc; and
a second pulley system positioned about the head end of the flexible spine and having a second spool rotatably driven by a second reciprocating motor, the second spool having a second fastener for securing cable extending along the top and bottom portions, wherein when the second pulley system is activated the second reciprocating motor rotates the spool in a single direction reeling on cable extending along one of the top or bottom portions and releasing cable extending along the other top or bottom portions such that the flexible spine bends in an arc, and
wherein the first and second pulley systems are capable of pulling/releasing cable to bend the flexible spine in a 360 degree range of motion defined along an axis extending along the flexible spine when the flexible spin is substantially straight.
15. The appendage of claim 14 , wherein the flexible spine has a substantially consistent thickness.
16. The appendage of claim 14 , wherein the flexible spine has a tapered thickness defined by having a head larger than a tail.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
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US12/498,753 US20100003889A1 (en) | 2008-07-07 | 2009-07-07 | Flexible mechanical appendage |
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US7867608P | 2008-07-07 | 2008-07-07 | |
US12/498,753 US20100003889A1 (en) | 2008-07-07 | 2009-07-07 | Flexible mechanical appendage |
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US20100003889A1 true US20100003889A1 (en) | 2010-01-07 |
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ID=41464742
Family Applications (1)
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US12/498,753 Abandoned US20100003889A1 (en) | 2008-07-07 | 2009-07-07 | Flexible mechanical appendage |
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