US20090209166A1

US20090209166A1 - Shipping box toy

Info

Publication number: US20090209166A1
Application number: US12/070,437
Authority: US
Inventors: Samuel Chen
Original assignee: Individual
Current assignee: Individual
Priority date: 2008-02-19
Filing date: 2008-02-19
Publication date: 2009-08-20

Abstract

A corrugated cardboard constructible toy has a set of recyclable shipping boxes and comprises an outer box that in its entirety forms a main part of the toy besides temporary uses for shipping the toy to and from a toy user. One or more inner boxes of corrugated fiberboard are contained in the outer box during shipping and then deployed to mate with the outer box to provide a subassembly of the toy with a predetermined rigidity. Auxiliary forms of corrugated fiberboard for mating with the outer and inner boxes to selectively support the toy subassembly as it differentiates into a model figure or building for a child to actively play on or in. A number of dowel fasteners may penetrate walls of the fiberboard to maintain the integrity of the toy.

Description

BACKGROUND OF THE INVENTION

A. Field of the Invention
The present invention relates to toys. More particularly, the present invention relates to corrugated fiberboard construction toys that also serve the purpose of shipping themselves to and from end users with zero waste.
B. Description of the Prior Art
There are known toy structures made out of a cardboard material in the form of mating sheets and panels as used in making packaging boxes and they are many of which one is disclosed as early as U.S. Pat. No. 1,533,011 “Toy Construction” to Knaggs. U.S. Pat. No. 4,212,130 to Walker describes a modular playhouse comprising a plurality of sections derived from two related modular units. U.S. Pat. No. 5,162,010 to Krebs offers a cardboard assembly toy provided flat with predetermined fold lines and utilizing a proprietary edge connection arrangement.
However, no practical suggestions have ever been made to take advantage of the simplicity of ordinary shipping box forms of corrugated fiberboard to provide a durable frame structure to build up diverse children's toys for indoor ride and other activities in a built-in premises that the very toy construction box is self mailable to and from the end user to ensure recycling of resources at toy retirement and achieve zero packaging waste.
Rather, there have been more interests in designing the packages to provide improved durability and visibility to increase the perceived value of contained products requiring lower cost of material used for the immediate commercial reasons. But the current surge of product consumption due to lowered manufacturing cost and shorter product cycles have increased the burden to recycle packaging material. As a result, more empty boxes create a national household waste problem. Because elaborate packaging containers cease to function immediately after unloading the product contents and inevitably end up in the trash or a limited number of recycling bins, this waste of material resources becomes enormous especially in holiday seasons when consumers purchase more larger box items.
In view of the above, there is an immediate need to provide a zero packaging waste, 100% recyclable product for mass consumed products. Therefore, an object of the present invention is to provide a corrugated fiberboard construction toy incorporating a set of recyclable shipping boxes that may become the base frame to develop into a ride on or structural toy model via auxiliary accessories.
Another object of the present invention is to provide economical and high-durability constructible toys that also serve the purpose of shipping themselves to and from an end user to save money as well as save our fragile environment.

SUMMARY OF THE INVENTION

The present invention provides a fundamental concept of employing 100 percent recyclable packaging containers as a major component of a user-assembled permanent structure in the form of a model or toy for play. The container of the present invention initially transports itself and then transforms itself into a material component to make the final product for repeated uses over time.
In order to achieve these objectives, the corrugated fiberboard construction toy of the present invention incorporates a set of recyclable shipping boxes comprising an outer box that in its entirety forms a main part of the toy besides its temporary uses for shipping the toy to and from a toy user; one or more inner boxes of corrugated fiberboard contained in the outer box during shipping and then deployed to mate with the outer box to provide a subassembly of the toy with a predetermined rigidity; auxiliary forms of corrugated fiberboard for mating with the outer and inner boxes to selectively support the toy subassembly as it differentiates into a model figure or building for a child to actively play on or in; a number of dowel fasteners for penetrating walls of the fiberboard to maintain the integrity of the toy; and accessories for adding selective toy features to the outer and inner boxes to further simulate the building or vehicle the toy models after.
Both of the inner and outer boxes for the fiberboard construction toy may take the form of a regular slotted container. The toy may be offered in a model kit of transportation means including land, air and sea vehicles. Or, it may be an animal model on wheels. The toy may be a model house of a corrugated fiberboard and decorated wall accessories.
According to one embodiment of the present invention, a corrugated fiberboard construction toy ride incorporating a set of recyclable shipping boxes comprises an outer box that in its entirety forms a main frame of the toy ride besides its temporary uses in shipping the toy ride to and from a toy user; one or more inner boxes of corrugated fiberboard fully contained in the outer box during shipping and then deployed to mate with the outer box to provide a subassembly of the toy ride with an enough rigidity to support a child's weight, the inner boxes being a set of regular slotted containers oriented to have a group of flaps open sideways at one end of the toy ride and another group of closed flaps at the opposite end of the toy ride; a steering means mounted on the open group of flaps via a supporting column of corrugated fiberboard with a number of dowel fasteners threaded through walls of the fiberboard and two opposite floor wheels on an axle mounted across the main frame near the opposite end of the toy ride and; accessories for adding convenience and decoration to the toy ride to model after a man-made vehicle or animal figure to ride.
The corrugated fiberboard construction toy ride may be a three wheeled wagon with the steering means including a single wheel centrally positioned on the supporting column and an elongated handle to provide a control grip of the wagon. Alternatively, it may be developed into a four-wheeled animal figure with the steering means including two side wheels on a transverse axle through the supporting column and an elongated handle to provide a control grip of the animal figure.
The corrugated fiberboard construction toy wagon may be easily modified into an aircraft figure on landing gear of three wheels with the steering means including a single wheel centrally positioned on the supporting column and an elongated handle to provide a control grip of the aircraft figure. Auxiliary accessories to make the aircraft transformation include a tail plane on a fin mounted on the main frame near the single wheel, a cowl with a propeller at the opposite end of the main frame, and two side wings made of corrugated fiberboard boxes and having die-cut locks for attachment to the main frame.
In another important embodiment of the present invention, a corrugated fiberboard construction toy building incorporating a set of recyclable shipping boxes comprises an outer box that in its entirety forms an exploded first roof section of the toy building besides its temporary uses in shipping the toy building to and from a toy user; an inner box contained in the outer box during shipping and then exploded to join the first roof section to make an elongated roof component; at least four telescope boxes contained in the inner box for making peripheral supporting columns with a number of threading dowels penetrating through walls of the fiberboard boxes; flexible cover panels for forming walls attached by dowels to the roof components and supporting columns to complete a residential space inside the toy building.
The cover panels of the fiberboard toy building may be made of plastic and adapted to cover four peripheral sides between the columns under the roof components leaving reclosable doors and windows. Alternatively, the cover panels may be made of fabric.
Embodiments of the invention will now be described by way of example with reference to the accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a perspective view of a cardboard box wagon according to one embodiment of the present invention.

FIG. 2 is an exploded perspective view of the box wagon of FIG. 1.

FIG. 3 is a side elevational view of the box wagon of FIG. 1.

FIG. 4 is a cross sectional view along line 4-4 of the box wagon of FIG. 3.

FIG. 5 is a partially exploded perspective view of a toy character ride in the form of a bear on wheels according to an alternate embodiment of the present invention.

FIG. 6 is a perspective view of an airplane ride according to another alternate embodiment of the present invention.

FIG. 7 is a perspective view of a toy house according to yet another embodiment of the present invention.

FIG. 8 is a perspective view of component boxes of the toy house of FIG. 7 in shipment partially exploded to show the toy disassembled for shipment to a customer or recycling site according to the present invention.

Similar reference numbers denote corresponding features throughout the attached drawings.


CALL OUT LIST OF ELEMENTS

10: Box Wagon	12: Wheel	14: Real Axle
16: Front Wheel	18: Front Axle	20: Handle
22: Outer Frame Box	23: Cushion	24: Side Panel
26: Flat Top	28: Full Flap	30: Regular Flap
32: Opening	34: Rear Support	36: Front Panel
37, 38: Flap	40, 44: Axle Bore	42: Corner
46: Sleeve	48: Shaft	50: Connecting Rod
52: Full Flap	54: Supporting Column	56: Regular Flap
58: Support	60: Front Opening	62: Compartment
64: Blind Wall	68: Lateral Flap	70: Horizontal Flap
72: Dowel Hole	74: Side Bore	76: Pinning Tube
78: Back Plate	80: Arm	82: Connection Section
84: Forearm Section	86: Distal Thru Hole	88: Cross Rod
90: Rolling Sleeve	92: Side Bore	94: Lateral Thru Hole
96: Lower Fork	98: Double Barrel Joint	100: Axle Ring
102: Upper Handle Portion	200: Bear Ride	212: Rear Wheel
214: Rear Axle	216: Front Wheel	220: Handle
221 Sleeve	222: Outer Frame Box	223: Grip Bar
224: Front Axle	225: Animal Head	224: Side Panel
226: Top	227: Cover Mat	229: Frictional Surface
231: Top Side Opening	240: Lower Tube Section	242: Joint
245: Upper Tube Section	246: Sleeve	247: Foot Rest
248: Tubular Shaft	252: Full Flap	254: Supporting Column
256: Regular Flap	260: Front Opening	262: Compartment
276: Pinning Tube	280: Flexing Arms	300: Airplane
312: Front Landing Gear	314: Axle	316: Rear Landing Gear
318: Axle	320: Handle	322: Outer Frame Box
323: Cushion	332: First Opening	334: First Box Support
352: Full Flap	354: Column	358: Second Box Support
361: Slot	363: Cowl	365: Die-cut Lock
366: Bottom Lock	369: Shaft	371: Propeller
373: Bolt	375, 387: Top Slot	376: Tube
377: Sidewall Slot	379: Left Wing	380: Arm
381: Major Lock	383: Lock	385: Right Wing
500: Playhouse	510, 512: Roof Section	513: Roof Component
514, 516: End Flap	518. 520: End Flap	522: Dowel Hole
524: Telescope Box Column	526: Inner Tube	528: Outer Tube
530: Larger Sheet	532: Door	534: Handle
536, 544: Fastener	538: Reinforcement	540: Smaller Sheet
542: Window	546: Wall Fastener	548: Triangular Sheet
550: Opening	552: Dowel	554: Spine
556: Flap Overlap	557: Tube Junction	558: Lower Corner

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT

With reference to FIG. 1, a cardboard box construction toy wagon 10 according to one embodiment of the present invention has three package boxes in the most common style of regular slotted container that can be assembled in a child's room to provide a durable indoor toy. Wagon 10 is provided with two rear wheels 12 on a rear transverse axle 14 and a front wheel 16 on a front axle 18 to which an elongated handle 20 is connected for pushing or pulling the wagon 10. Wagon 10 comprises the largest single part that is an outer frame box 22. Box 22 may have sleek exterior surfaces with decorative graphic printed to simulate certain types of vehicle. Additionally, decals may be provided to add reality to the assembly kit of wagon 10. In order to give a convenient seating, cushion 23 may be optionally attached to wagon 10 about its top center. Also referring to FIG. 2, before the wagon 10 is completed by a recipient it contains its own components in two smaller boxes contained in the outer box 22 used as an original shipping container to deliver via a convenient shipping service of choice by a toy supplier. The shipping outer box 22 as used turns into a frame box, which becomes the principal part of wagon 10.
The wagon 10 mainly comprises the most widely used cardboard material, which is technically corrugated fiberboard consisting of a fluted corrugated sheet normally glued to and positioned between two flat linerboards for use as conventional shipping containers or storage boxes of various household items and commodities. This forms a single wall corrugated board for the box. To enhance the strength of frame box 22, it is possible to incorporate a double wall fiberboard having three flat facings and two intermediate fluted corrugated sheets. Also available is a triple wall corrugated board formed by four flat facings and three intermediate corrugated sheets.
Manufactured box structures of the fiberboard are known to have many different designs including the popular regular slotted containers with top and bottom areas made closable by four flaps respectively having the same length, overlap slotted containers with a set of two opposing flaps made longer to overlap partially or fully, telescope boxes consisting of two or three box sections telescoping in various degrees at different separation lines and combination of the above.
The boxes of this embodiment of wagon 10 may employ the combinations of the above types of boxes with careful positioning of their flaps to enhance the structural rigidity of the toy ride. The outer box 22 may be a modified full-overlap slotted container of a relatively thin profile having two identical elongated side panels 24 connected in a shorter parallel distance defined by another pair of flat top 26 and similar bottom panels so that top panel 26 provides convenient striding surfaces for a rider of wagon 10. Preferably, a longitudinal span 25 of box 22 is twice a latitudinal span 27 thereof so that regular squares may fit inside box 22 side by side. Side panels 24 have full overlap flaps 28 at one end that may be folded flat onto the inner surfaces of the respective side panels 24 to reinforce frame box 22 vertically against the rider's weight. In addition, top panel 26 and the bottom counterpart have regular flaps 30 folded into frame box 22 to double the thickness of frame box 22 locally. Thus, a rectangular opening 32 is formed by the four smooth folding lines of flaps 28, 30 leaving no sharp edges where young users may touch frequently.
In order to provide wagon 10 with a riding stability over longer product lifetime while keeping its lightweight, an upright support box 34 may be press fitted into the rear opening 32 of frame box 22 so that a vertical front panel 36 of rear support 34 extends midway along the entire length of frame box 22 on which most body weight of the rider will fall. Rear support 34 may be a regular slotted container with its entire top 37 and bottom 38 flaps kept closed after it is emptied of its load of the wagon components shipped therewith. In addition, rear support 34 has two axle bores 40 formed in line transversely close to opposite lower rear corners 42 corresponding to similar axle bores 44 that are preformed through frame box 22 and its proximal full flaps 28 at an appropriate distance from the floor to provide a safe ground clearance of wagon 10 for small toy riders. When rear support 34 is positioned in frame box 22 with bores 40, 44 aligned, axle 14 may be installed. Axle 14 may comprise a stationary sleeve 46, which is a cut length of a strong cardboard pipe tightly threaded through bores 40, 44 and may remain therein under friction between the paper materials. With sleeve 46 driven in, rear support 34 becomes fixed in box 22. Then, two wheels 12 each having a short section of tubular shaft 48 attached may be slidably mounted into the sleeve 46. Wheels 12 and shafts 48 may be ordinary plastic and/or wood structures and rubber tires or belts may be provided to surround the wheels 12 for an extra traction. In order to keep components in good size for the confined space such as the internal volume of box 34, two shortened shaft 48 may be fastened to each other via a section of connecting rod 50 inside sleeve 46. The remaining half of the interior space of frame box 22 may be reinforced using another common box structure but with an extra functionality in mind.
The opposite ends of side panels 24 of box 22 are provided with two lateral full flaps 52 generally extending in parallel for flexibly holding front wheel 16 supported on a supporting column 54. Between the two full flaps 52 are two regular flaps 56 folded inside box 22 to provide smooth edges and thicken the corresponding areas of frame box 22. The remaining box is a front support 58 pushed into box 22 from a front opening 60. Support 58 may be a regular slotted container that is oriented to lie sideways in a size to fill another half of the interior of box 22 next to rear support 34 to provide a front rectangular compartment 62 for supporting column 54. Support 58 is pushed tightly to line the box 22 so that a vertical blind wall 64 formed of closed inner four flaps engages front panel 36 of rear support 34 to double the vertical strength of box wagon 10. At the same time, front support 58 is completely opened forwardly where two lateral flaps 68 are folded out and back to face full flaps 28 of frame box 22 while two horizontal flaps 70 are folded in reverse to clear the space for regular flaps 56, which are already put inside box 22. There may be two sets of dowel holes 72 formed throughout both folded lateral flaps 44 close to the open compartment 62 of front support 58. Dowel holes 72 of each set extend in line transversely corresponding to similar side bore 74 that are preformed through frame box 22 near front opening 60. Equal length of cardboard tubes 76 may be used as dowel pins for latching box 22 and front support 58 together. Also threaded by pinning tubes 76 is supporting column 54 inside front support 58.
Supporting column 54 may be made of two or three stacked sheets of bent fiberboard comprising a vertical back plate 78 sized to fit in compartment 62 tightly and two flexing arms 80 extending from back plate 78 for supporting front wheel 16. Each arm 80 has a lateral connection section 82 that rests on the inner surface of front support 58 and a forearm section 84 provided with a distal thru hole 86 so that a cross rod 88 may be held by penetrating a series of holes 86 at opposite sides with a rolling sleeve 90 slidably mounted thereon. Sleeve 90 is in turn fixed to wheel 16 concentrically to allow wheel 16 rotate freely with respect to supporting column 54. Connection sections 82 each has two side bores 92 that will be aligned with dowel holes 72 of front support and side bores 74 of box 22 after assembly. When assembled, the outer surface of forearm section 84 faces the inner surface of full flaps 52 of box 22. Flaps 52 also have lateral thru holes 94 similar to and aligned with holes 86 to receive cross rod 88 protruding outwardly of thru holes 86. The longitudinal extension of forearm section 84 is determined relative to the length of full flap 52 of box 22 so that once tubes 76 secure box 22, front support 58 and supporting column 54 together flap 52 is flexed to retreat thru holes 86 for threading with cross rod 88 as illustrated in FIGS. 3 and 4. This provides an extra flexibility of flaps 52 sideways to increase its range of motion in concert with left or right deflections of front wheel 16 and forearm sections 84 by an operator through handle 20. Because of the inherent flexibility of the paper material, simply turning wheel 16 through handle 20 will result in a gentle directional change of the wagon 10 without a dedicated steering mechanism.
If it is desired to provide wheel 16 with an option of tight turns, support column 54 may be modified to adopt known steering methods. For example, forearm sections 84 with thru holes 86 may extend alternatively from top and bottom of back plate 78 generally horizontally in order to have the holes 86 open vertically in the center of wagon 10 for rotationally holding a single handle bar to which front wheel 16 and handles are connected at opposite ends thereof.
Handle 20 may be made of metal in the form of tube sections and comprise a lower fork 96 with two bent tubes welded by a double barrel joint 98. Axle rings 100 terminate two bifurcated ends of lower fork 96 for receiving the axle 18 threaded into cross rod 88 mounted on front wheel 16. At the time of assembly, fork 96 may be forcibly expanded and then released to engage axle 18 protruding from opposite thru holes 86 to secure wheel 16 in locked position between two forearm sections 84. Then, a shaped and padded upper handle portion 102 may be pushed into joint 98 to complete the handle 20. As with conventional push ride-ons, the handle 20 may be maneuvered by the rider or an assisting operator to propel wagon 10 of the present invention.
Alternatively, double or more multiple-wall fiberboard may replace the single wall as described above. In such case, two inner supports 34 and 58 may also be replaced by a single box structure that lines the outer box 22. Dowels are preferably hollow rather than solid so that they form tubes and are similar to shipping tubes having an uncorrugated cardboard wall portion. Dowel strength and stiffness are sized according to fit the design.
FIG. 5 shows a second one of diverse applications of the same shipping box toy concept to a slight different ride in the form of an interesting animal to ride that is a polar bear, which has us concern about our limited natural resources and global warming, too. A bear ride 200 is based on the same frame of wagon 10 in that it comprises two rear wheels 212 on a rear transverse axle 214, an outer frame box 222 that is the original shipping container, two smaller boxes press fitted inside outer box 222 contained in the outer box 222.
The outer box 222 may be a modified full-overlap slotted container of a relatively thin profile having two identical elongated side panels 224 connected in a shorter parallel distance defined by another pair of flat top 226 and similar bottom panels so that top panel 226 provides a convenient striding surface for a rider of toy bear 200. Side panels 224 have full overlap flaps at one end that may be folded flat onto the inner surfaces of the respective side panels 224 to reinforce frame box 222 vertically against the rider's weight.
Also, an upright box liner for reinforcement is press fitted into the rear of frame box 222 so that a vertical front panel of the rear box liner extends midway along the entire length of frame box 222 on which most body weight of the rider will fall. The rear box liner may be a regular slotted container with its entire top and bottom flaps kept closed after it is emptied of its load of the toy components shipped therewith. In addition, the rear box liner has two axle bores formed in line transversely close to opposite lower rear corners corresponding to similar axle bores that are preformed through frame box 222 and its proximal full flaps at an appropriate distance from the floor to provide a safe ground clearance of toy bear 200 for small riders. When the rear box liner is positioned in frame box 222 with bores aligned, axle 214 may be installed. Axle 214 may comprise a stationary sleeve 246, which is a cut length of a strong cardboard pipe tightly threaded through bores of box 222 and the box liner. With sleeve 246 driven in, the rear box liner becomes fixed in box 222. Then, two wheels 212 each having a short section of tubular shaft 248 attached may be slidably mounted into the sleeve 246.
However, instead of single front wheel 16, the second embodiment employs two wheels 216, which are identical to the rear wheel assembly 212 so that toy bear 200 provides more stable rides.
The opposite ends of side panels 224 of box 222 are provided with two lateral full flaps 252 generally extending in parallel for flexibly holding front wheels 216 supported on a supporting column 254. Between the two full flaps 252 are two regular flaps 256 folded inside box 222 to provide smooth edges and thicken the corresponding areas of frame box 222. The remaining box is a front box liner pushed into box 222 from a front opening 260. The front box liner (Support 58) may be a regular slotted container that is oriented to lie sideways in a size to fill another half of the interior of box 222 next to the rear box liner to provide a front rectangular compartment 262 for supporting column 254. The front box liner is pushed tightly to line the box 222 to double the vertical strength of toy bear 200. Equal length of cardboard tubes 276 may be used as dowel pins for latching box 222 and the front box liner together through appropriately formed bores in advance. Also threaded by pinning tubes 276 is supporting column 254 inside the front box liner.
Supporting column 254 may be made of two or three stacked sheets of bent fiberboard and has two parallel flexing arms 280. An axle 224 for front wheels 216 is fixedly mounted on full flaps 252 and supporting column 254. Extending from axle 224 is an upright handle 220 that may be connected on the axle 224 by a sleeve 221 and terminated at its top end with a horizontal grip bar 223. Two joined small boxes form an animal head 225 for mounting over grip bar 223 to support a cover 227, which may be made of a plush toy section combined with a seating mat to provide a soft riding surfaces with a warm feeling. The plush cover 227 may be comfortably padded and have a frictional rear surface 229 that contacts box 222 at its top 226 and sides 224 to provide a safer ride. Top side openings 231 are formed to let grip bar 223 protrude laterally.
Because of the inherent flexibility of the paper material, simply turning wheels 216 through handle 220 will result in a gentle directional change of the toy bear 200 without a dedicated steering mechanism.
If it is desired to provide wheels 216 with an option of tight turns, support column 254 may be modified to adopt known steering methods. For example, arms 280 may extend alternatively from top and bottom of support column 254 generally horizontally in order to have vertical holes formed through arms 280 in the center of toy bear 200 for rotationally threading a single handle bar to which front wheels 216 and grip bar 223 are connected at opposite ends thereof.
Handle 220 may be made of metal and include a pair of lower tube sections 240 welded by a double barrel joint 242 to provide a high torsional strength. Then, a pair of upper tube sections 245 with grip bar 223 may be pushed into joint 242 to complete the handle 220. With conventional toy ride-ons, the rider may grip the handle 220 to maneuver toy bear 200 and drive it by pushing the floor by legs. Optional footrests 247 may be plugged in lower pinning tube 276.
FIG. 6 is a third embodiment where the wagon foundation of FIG. 2 embodiment may be easily modified into other transportation toys such as an airplane 300 with optional add-ons.
Airplane 300 may use the same type of three regular slotted containers as in the wagon 10 of the first embodiment. Airplane 300 is provided with a front landing gear 312 made of two wheels on an axle 314 and a rear landing gear 316 on an axle 318 to which an elongated handle 320 is optionally connected for an assistant to push or pull the airplane 300. Airplane 300 comprises the largest single part that is an outer fuselage frame box 322. Box 322 may have sleek exterior surfaces with decorative graphic printed to simulate certain model of airplane. In order to give convenient seating, a cushion 323 may be optionally attached to airplane 300 about its top center.
Airplane 300 is shipped in kit form to a recipient's place to assemble. The outer box 322 as used in shipping turns into a working fuselage, which becomes the principal part of airplane 300. The boxes of this embodiment of airplane 300 may employ the combinations of different type containers including the regular slotted containers, overlap slotted containers and telescope boxes with careful positioning of their flaps to enhance the structural rigidity of the toy ride. The outer box 322 may be a modified full-overlap slotted container of a relatively thin profile.
Preferably, airplane 300 has a latitudinal span twice longer than its width so that two box liners with regular square sides may fit inside box 322 side by side. In preparation for assembly, box 322 may have its four flaps at one end folded flat onto the inner surfaces thereof to reinforce box 322 against the rider's weight. Thus, four smooth folding lines of the flaps define a first rectangular opening 332.
In order to provide airplane 300 with a riding stability over longer product lifetime while keeping its lightweight, an upright first box support 334 may be press fitted into first opening 332 so that the support 334 reaches midway along the entire length of box 322 on which most body weight of the rider will fall. Box support 334 may be a regular slotted container with its entire top and bottom flaps kept closed after it is emptied of its load of the airplane components shipped therewith. Axle 314 may comprise a fixed sleeve (not shown) threaded through transverse bores at lower corners of outer box 322 and box support 334. Such sleeve also functions to secure both boxes 322, 334 together. Then, two wheels 312 each having a short section of tubular shaft attached may be rotatably mounted into the sleeve.
The remaining half of the interior space of fuselage box 322 may be reinforced using a second box support 358 pushed into box 322 in the opposite direction from the first support 334. The opposite end of box 322 is provided with two lateral full flaps 352 generally extending in parallel for flexibly holding rear landing gear 316 supported on a supporting column 354.
Two cardboard tubes 376 may penetrate throughout sidewalls of both boxes 322, 358 and supporting column 354 to join them together. Supporting column 354 has two flexing arms 380 distally located for supporting landing gear 316. Column 354 is partially inserted in second support 358 and locked therein by two pinning tubes 376. Axle 318 for landing gear 316 penetrates opposite stacks of arm 380 and full flap 352 and then clipped by handle 320 at its bifurcated lower ends. Because of the inherent flexibility of the paper material, simply turning landing gear 36 through handle 320 will result in a gentle directional change of the plane 300.
On the front side of outer box 322 there may be punched slots for fastening airplane add-ons, i.e. three lateral slots 361 near first opening 332 may extend through first support 334 inside for latching a crafted paper cowl 363 with three of four circumferentially located die-cut locks 365. The remaining bottom lock 366 may be inserted into a similar slot formed on the exposed wall area of first support 334. A front-end wall 367 of cowl 363 may have a bore (not shown) for mounting a paper tube shaft 369 of a propeller 371, which may be formed of wood or Styrofoam. A bolt 373 from the interior of cowl 363 can keep the shaft 369 in cowl 363.
A longitudinal top slot 375 combined with a couple of vertical sidewall slots 377 may be similarly formed through outer box 322 and first box support 334 for mating with a left wing 379, which is a thin elongated box, preferably shaped into a wedge. At the proximal end of wing 379, a major die-cut lock 381 may be shaped on a horizontal top flap to latch in top slot 375 of box 322 while two die-cut locks 383 made be formed out of the opposing bottom flap to extend vertically side by side and inserted in sidewall slots 377 of box 322. Opposite right wing 385 is correspondingly structured to mate with a right top slot 387 of box 322 and sidewall slots similar to slots 377.
At the end, a cut out paper fin 389 clips onto an open edge 360 of box 322 as a tail plane 391 is inserted through a side slit of fin 389.
Instead of the aircraft accessories of cowl 363, propeller 371, fin 389 and tail plane 391, adding a bow and stern part may be added to both ends of the vehicle to form a ship model.
The present invention not only applies to rideable toy products but also to residential toy buildings such as an in-house playhouse 500 shown in FIG. 7. Referring also to FIG. 8 wherein supporting paper components are selected for display, the invention is more clearly demonstrated to show how a simple set of shipping boxes can be expanded to structural foundation of the scale toys with which children can actively engage and play more. An outer shipping box 510 and a closely dimensioned inner box 512 may be regular slotted containers with identical end flaps 514, 516 that close with the temporary assistance of staples, die-cut locks and/or adhesive to make the respective boxes stacked one over the other. For the purpose of the present invention, eight closure flaps 518 and 520 in the respective sets for boxes 510, 512 all have cut corners in preparation for providing the necessary angled joints in building a slanted roof component 513 of house 500. Also formed are dowel holes 522 through appropriate points of the entire box walls to make instant joints between house components. Main support of playhouse 500 is provided by four telescope boxes 524, one of which is pulled up for clarity. Each box 524 comprises an inner tube 526 tightly inserted in an outer tube 528. Tubes 526, 528 are shown to have a rectangular shape in cross section but triangles, circles or other shapes may be incorporated.
Although not shown in FIG. 8 in the form of loose components, finished playhouse 500 of FIG. 7 includes add-ons to decorate the building frame principally of two joined roof sections 510, 512 and four erected corner columns 524. Added to the frame are four separate sidewalls made of fabric or plastic material. A largest sheet 530 finishes a front wall of house 500 with a cut out door 532 at one side. Door 532 may be fitted with a handle 534 with a closure having two attracting magnets or a hook and loop fastener 536. Reinforcements 538 may be attached to edges of door 532 and the surrounding areas to provide a visually prominent entrance to the house 500. The same form of sheet may be applied to set up the opposite rear wall. Both sidewalls may be set up by smaller sheets 540 with cut out windows 542 that simulate casement windows. A set of mating fasteners 544 may be attached to have the window 542 closed temporarily and then a matching set of wall fasteners 546 may be attached to sidewall 540 at a distance from window 542 so that opposite fasteners 544 of window 542 can swing out to mate with the counterpart fasteners 546 to keep window 542 open. A couple of triangular sheets 548 cover the opposite openings made by roof sections 510, 512 leaving shaped openings 550 for air circulation and observation.
This whole house 500 may stand firmly only by using a type of dowel pins 552 at appropriate locations throughout. First, two roof sections 510, 512 are joined at each set of overlapped flaps 518, 520. Triangular sheets 548 are attached to joined roof sections 510, 512 at the free end flaps 518 and 520 with a middle spine area 554 deflected into a matching angle to sheet 548. Overlapped flaps at 556 are nailed by dowel 552 threading sheet 548 also. At least one dowel is used to tack every flap 518, 520 to sheets 548.
Each of the four columns 524 is kept erected by at least four side dowels 552 threaded through overlapped junctions 557 between inner and outer tubes 526, 528. The roof assembly 510, 512, 548 that is light enough for handling by small children may be mounted on top of four columns 524. Next, end flaps 514 and 516 provide a top frame for attaching the largest front and rear sheets 530. At each corner of house 500, column 524 is also penetrated by the same dowel passing sheet 530 and end flap 514 or 516 to enhance the integrity of walls. Dowels 552 at the junction 557 of two tubes 526 and 528 may also hold proximate holes of sheet 530 as it is further attached at lower corners 558 to columns 524. Likewise, both side sheets 540 may be attached to the remaining sides of columns 524 to complete the house 500.
Besides the initial advantage of offering a useful economic toy line in accordance with the present invention, replacements or disposal of these toys will be beneficial to environment because the volume components of the box toys will be an excellent fiber material for recycling. Even the actual process of recycling the novel toys of the present invention is preinstalled on the outer toy bodies, which were the very shipping boxes in the first place. They can trace back to the recycling address as originally agreed upon unless an immediate collection is available in the neighborhood. The practical solutions of the present invention will nurture the children now and later by helping conserve natural resources and energy for their future.
Therefore, while the presently preferred forms of the shipping box transformed toys have been shown and described, and several modifications thereof discussed, persons skilled in this art will readily appreciate that various additional changes and modifications may be made without departing from the spirit of the invention, as defined and differentiated by the following claims.

Claims

1. A corrugated fiberboard construction toy incorporating a set of recyclable shipping boxes comprising:

an outer box that in its entirety forms a main part of the toy besides its temporary uses for shipping the toy to and from a toy user;

one or more inner boxes of corrugated fiberboard contained in the outer box during shipping and then deployed to mate with the outer box to provide a subassembly of the toy with a predetermined rigidity;

auxiliary forms of corrugated fiberboard for mating with the outer and inner boxes to selectively support the toy subassembly as it differentiates into a model figure or building for a child to actively play on or in;

a number of dowel fasteners for penetrating walls of the fiberboard to maintain the integrity of the toy; and

accessories for adding selective toy features to the outer and inner boxes to further simulate the building or vehicle the toy models after.

2. The corrugated fiberboard construction toy of claim 1, wherein each of the inner boxes is a regular slotted container.

3. The corrugated fiberboard construction toy of claim 1, wherein the toy is in a model kit of transportation means including land, air and sea vehicles.

4. The corrugated fiberboard construction toy of claim 1, wherein the toy is in a kit of an animal model on wheels.

5. The corrugated fiberboard construction toy of claim 1, wherein the toy is in a model house kit.

6. A corrugated fiberboard construction toy ride incorporating a set of recyclable shipping boxes comprising:

an outer box that in its entirety forms a main frame of the toy ride besides its temporary uses in shipping the toy ride to and from a toy user;

one or more inner boxes of corrugated fiberboard fully contained in the outer box during shipping and then deployed to mate with the outer box to provide a subassembly of the toy ride with an enough rigidity to support a child's weight, the inner boxes being a set of regular slotted containers oriented to have a group of flaps open sideways at one end of the toy ride and another group of closed flaps at the opposite end of the toy ride;

a steering means mounted on the open group of flaps via a supporting column of corrugated fiberboard with a number of dowel fasteners threaded through walls of the fiberboard and two opposite floor wheels on an axle mounted across the main frame near the opposite end of the toy ride and;

accessories for adding convenience and decoration to the toy ride to model after a man-made vehicle or animal figure to ride.

7. The corrugated fiberboard construction toy ride of claim 6, wherein the toy ride is a three wheeled wagon with the steering means including a single wheel centrally positioned on the supporting column and an elongated handle to provide a control grip of the wagon.

8. The corrugated fiberboard construction toy ride of claim 6, wherein the toy ride is a four wheeled animal figure with the steering means including two side wheels on a transverse axle through the supporting column and an elongated handle to provide a control grip of the animal figure.

9. The corrugated fiberboard construction toy ride of claim 6, wherein the accessories include an animal head skeleton of one or more corrugated fiberboard boxes mounted on the steering means and a comfort mat to cover the animal figure at least partially.

10. The corrugated fiberboard construction toy ride of claim 6, wherein the toy ride is an aircraft figure on landing gear of three wheels with the steering means including a single wheel centrally positioned on the supporting column and an elongated handle to provide a control grip of the aircraft figure and wherein the accessories include a tail plane on a fin mounted on the main frame near the single wheel, a cowl with a propeller at the opposite end of the main frame, and two side wings made of corrugated fiberboard boxes and having die-cut locks for attachment to the main frame.

11. A corrugated fiberboard construction toy building incorporating a set of recyclable shipping boxes comprising:

an outer box that in its entirety forms an exploded first roof section of the toy building besides its temporary uses in shipping the toy building to and from a toy user;

an inner box contained in the outer box during shipping and then exploded to join the first roof section to make an elongated roof component;

at least four telescope boxes contained in the inner box for making peripheral supporting columns with a number of threading dowels penetrating through walls of the fiberboard boxes;

flexible cover panels for forming walls attached by dowels to the roof components and supporting columns to complete a residential space inside the toy building.

12. The corrugated fiberboard construction toy building of claim 11, wherein the cover panels are made of plastic and adapted to cover four peripheral sides between the columns under the roof components leaving reclosable doors and windows.

13. The corrugated fiberboard construction toy building of claim 12, wherein the doors and windows are reclosable with using magnet attractions.

14. The corrugated fiberboard construction toy building of claim 12, wherein the doors and windows are reclosable with using hook and loop fasteners.

15. The corrugated fiberboard construction toy building of claim 11, wherein the cover panels are made of fabric and adapted to cover four peripheral sides between the columns under the roof components leaving reclosable doors and windows.

16. The corrugated fiberboard construction toy building of claim 15 wherein the doors and windows are reclosable with using magnet attractions.

17. The corrugated fiberboard construction toy building of claim 15, wherein the doors and windows are reclosable with using hook and loop fasteners.