MODULAR PLAY CENTER

Abstract

A play center is described that is formed from multiple interconnected, modular polygonal decking components attached to and receiving water from one or more monopoles. The monopoles contain pressurized water and includes ports for distributing water to various water features distributed around the play center. Monoliths are attached to one or more sides of each of the decking components and are comprised of one or more panels and frame elements. The monoliths are removably connected to the decking components such that each monolith may be removed from one side of the decking and reconnected to another side of the decking, or be replaced with a different monolith. The play center also includes one or more elevated water control stations hidden within a monolith that allow for various adjustments to be made to the output of water to the water features of the play center.

Description

BACKGROUND

Field of the Invention

The present invention relates to an apparatus, system, and/or method for providing or operating play centers, for example at waterplay or other amusement locations. More particularly, the present invention relates to an apparatus, system, and/or method for providing or operating play centers that use mountable panels or monoliths with other water providing or dumping capabilities.

Description of Related Art

Play centers have become a popular form of entertainment and include both dry and wet variants. Dry play centers may be substantially free of fluid-based elements or components while wet play centers conventionally use various elements or components configured to spray or otherwise provide water in or to certain areas of the play center.

Assembly of standpipes and other components in conventional play centers can involve complex systems of manufacturing, identification labeling, shipping, etc. and may require significant coordination of the manufacturing delivery and installation efforts. Moreover, conventional play centers are generally fixed or rigid by the nature of their standardized layouts and are not easily customized. Ideally, an improved play center or play structure (e.g., either wet or dry) would address one or more of the above issues via novel component parts and/or assembly requirements that reduce or eliminate the problems associated with conventional structures. Moreover, as play centers and/or play structures are often installed in locations seeking to encourage customers to visit the location and/or associated locations (e.g., within a waterpark), new play or interactive elements having novel features are also ideally included as part of an improved play center so as to garner excitement and attention from customers.

SUMMARY

The present invention is related to an apparatus, system and/or method for providing play centers having modular decking components and mountable panels or monoliths in combination with water providing or dumping capabilities. In one embodiment, multiple polygonal decking plates can be coupled together to form a play center. Certain decking plates can be coupled directly together and others can be attached to each other by other components such as stairs, ramps, walkways and the like.

In some embodiments, a play center includes a monopole configured to distribute fluid to the play center; and a plurality of polygonal decking components elevated above the ground, the plurality of polygonal decking components comprising: a first polygonal decking component having a first plurality of sides; and a second polygonal decking component coupled to the first polygonal decking component and having a second plurality of sides different from the first plurality of sides. The plurality of polygonal decking components are supported above the ground at least in part by the monopole and two or more sides of the first plurality of sides have a first width that matches a second width of two or more sides of the second plurality of sides.

In still another embodiment, a play center disposed upon a surface may include a base segment, a leveling element connected with the base segment for adjusting a distance of the base segment from the surface, a frame connected with the base segment, a decking connected with the frame, a fluid delivery element configured to contain a volume of fluid and release such fluid via pivoting of the fluid delivery element, and a rotatable fluid dispersion element configured to receive at least a portion of the volume of fluid from the fluid delivery element.

BRIEF DESCRIPTION OF THE DRAWINGS

The features, objects, and advantages of the present invention will become more apparent from the detailed description set forth below when taken in conjunction with the drawings, wherein:

FIG. 1A shows a perspective view of a monolithic-based play center, according to one embodiment of the present invention;

FIG. 1B shows an exploded perspective view of a monolithic-based play center, such as a monolith-based play center the same as or similar to that of FIG. 1A, according to one embodiment of the present invention;

FIG. 1C shows a perspective view of a portion of a monolithic-based play center, such as a monolith-based play center the same as or similar to that of FIG. 1A, according to one embodiment of the present invention;

FIG. 2 shows a perspective view of a plurality of monoliths for use in a monolithic-based play center, according to one embodiment of the present invention;

FIG. 3A shows a cross-sectional side view and a front view of a monolith for use in a monolithic-based play center, according to one embodiment of the present invention;

FIG. 3B shows a bottom view of a portion of a monolithic-based play center using a monolith structure, such as a monolith the same as or similar to that of FIG. 3A, according to one embodiment of the present invention;

FIG. 4 shows a side schematic view of a monolith connected with a decking for use in a monolithic-based play center, according to one embodiment of the present invention;

FIG. 5A shows a side view of a monolith for a monolith-based play center connected with a plurality of ground angles, according to one embodiment of the present invention;

FIG. 5B shows a side schematic view of a possible connections associated with the monolith of FIG. 5A during assembly, according to one embodiment of the present invention;

FIG. 6 shows a fluid dump system for a play center, according to one embodiment of the present invention;

FIG. 7 shows a fluid dump system for a play center, according to one embodiment of the present invention;

FIG. 8 shows a fluid dump system for a play center, according to one embodiment of the present invention;

FIG. 9 shows a fluid dump system for a play center, according to one embodiment of the present invention;

FIG. 10 shows a fluid dump system for a play center, according to one embodiment of the present invention;

FIG. 11 shows a fluid dump system for a play center, according to one embodiment of the present invention; and

FIG. 12 shows a fluid dump system for a play center, according to one embodiment of the present invention.

FIGS. 13A and 13B show a perspective view and a side view, respectively, of an embodiment of the invention using a monopole for support and fluid delivery.

FIGS. 14A and 14B show a perspective view and a side view, respectively, of an embodiment of the invention using a monopole for support and fluid delivery.

FIGS. 14C-14D, show views of a sleeve joint usable with various ones of the monoliths depicted herein.

FIGS. 14E-14G shows examples of interchangeability of components between monoliths.

FIGS. 15A and 15B show perspective views of an exemplary embodiment of the invention including a connector piece for oversized components.

FIG. 15C shows an overhead view of the embodiment shown in FIGS. 15A and 15B.

FIGS. 15D and 15E show a perspective view of one aspect of the invention that incorporates a step between decks and/or walkways.

FIGS. 16A-16C show perspective views of various monoliths containing a flow control station.

FIGS. 17A-17B show a play center configuration utilizing an adjustable skirt.

FIG. 18A shows a polygonal decking component frame attached to a monopole.

FIG. 18B shows a monolith attached to one side of polygonal decking component frame shown in FIG. 18A.

FIG. 18C shows a perspective view of a polygonal decking component frame and illustrates in greater detail how the polygonal decking component frame is secured to a monopole.

FIG. 19 shows how a polygonal decking component with a hexagonal configuration can be attached to multiple different interchangeable monoliths and decking components.

FIGS. 20A-20F show various configurations where a play center is supported by a single monopole responsible for supporting the decking components and any guests as well as supplying fluid to the wet elements associated with the play center.

FIGS. 21A-21C show various configurations of three polygonal decking components coupled together in different ways.

FIGS. 22A-22F show exemplary play centers supported by two or more monopoles.

DETAILED DESCRIPTION

The detailed description of exemplary embodiments herein makes reference to the accompanying drawings and pictures, which show the exemplary embodiment by way of illustration and its best mode. While these exemplary embodiments are described in sufficient detail to enable those skilled in the art to practice the invention, it should be understood that other embodiments may be realized and that logical and mechanical changes may be made without departing from the spirit and scope of the invention. Thus, the detailed description herein is presented for purposes of illustration only and not of limitation. For example, the steps recited in any of the method or process descriptions may be executed in any order and are not limited to the order presented. Moreover, any of the functions or steps may be outsourced to or performed by one or more third parties. Furthermore, any reference to singular includes plural embodiments, and any reference to more than one component may include a singular embodiment.

FIG. 1A shows a perspective view of a monolithic-based play center 100. Although the play center 100 is illustrated as incorporating a variety of wet elements (e.g., water dumpers, sprayers, jets, etc.), in an alternative embodiment, additional fewer, and/or different wet or dry elements may be used. For example, in one embodiment, the play center 100 may be a dry play center that does not include any play elements or components that utilize fluids such as water.

The play center 100 is formed via one or more frames, such as frame 102 and frame 104, that may be made out of any of a variety of desired materials (e.g., steel, aluminum, carbon fiber, etc.) that is either formed as a single shape (e.g., rectangle) and/or may be formed via the connection (e.g., bolts, screws, welding, etc.) of smaller frame members (e.g., straight or curved bars) to form the frames 102, 104. For example, as explicitly illustrated in FIG. 1A, the frames 102, 104 are substantially rectangular in shape. As discussed in greater detail herein, the frames 102, 104 may be positioned at any of a variety of desired angles with respect to a floor or surface that the play center 100 is disposed upon.

Certain embodiments may not have the one or more frames 102, 104 explicitly fastened or connected with the floor or ground via a stable connector at all (e.g., the frame 102 and/or frame 104 may merely rest upon the floor, ground, or other surface). In some embodiments, the frames 102, 104 may be connected with the floor at a substantially 90-degree angle. In another embodiment, the frames 102, 104 may be connected with the floor at a greater than or less than 90-degree angle. In still further embodiments, the frames 102, 104 may be connected via one or more components that allow the frame 102 to have an adjustable angle (e.g., which may be adjusted and/or rotated and then fastened or otherwise locked or fixed in place to form a stabilized structure). In an alternative embodiment, the frame 102 and/or frame 104 may be connected with another base structure or segment that is in contact with a ground or flooring surface (e.g., concrete), for example, as illustrated and/or discussed in greater detail for FIGS. 1B and/or 1C.

As discussed in greater detail herein, the frame 102 may have other components, such as paneling 162, 164, and/or 146 that may or may not include other features or elements as part of or connected with the paneling (e.g., a translucent bubble or view-hole that encourages users to look there through as explicitly shown for paneling 164). This connection of paneling with frame elements form a “monolith” structure and multiple such monoliths may be used to create a modular play center as discussed in greater detail herein. The use of multiple frames or monoliths may be used to form a structure that other elements or surfaces can be connected with, as discussed in greater detail herein. The paneling 162 may be connected as part of a monolith and incorporate interactive elements, such as water sprayers, etc., configured to emit water to an area exterior to the paneling 162. The paneling 166 may not include any connection or capability for interactive elements thereon or there through and remain merely an external paneling for the monolith. In certain embodiments, such paneling (162, 164, 166) may provide desired functional features of the play center 100 (e.g., additional rigidity, additional surfaces for the connection of elements, such as water jets, etc.) with a variety of possible theming, color, and/or shapes or configurations.

For example, the play center 100 explicitly illustrated in FIG. 1A includes a first decking 160 connected with the frame 102, a second decking 170 connected with the frame 104, and a pathway 175 (e.g., walkway, staircase, etc.) that connects the first decking 160 and the second decking 170 and a staircase 110 so that users may travel thereon or there between. In this fashion, by using a plurality of one or more frames or monoliths with other elements or surfaces connected therewith, a larger play center or assembly can be formed that incorporate any of a variety of possible entertainment structures (stairs, ramps, walkways, slides, bridges, such as rope bridges, poles, balancing beams, monkey-bars, zip-lines, etc.). In certain embodiments, such interconnection of other elements or surfaces with the one or more frames, such as frame 102 and/or frame 104, or monoliths may allow for more easily customized and/or modular play centers be formed, when compared to conventional play centers.

The play center 100 also includes a variety of other interactive or play elements that may be connected with the one or more frames or monoliths and/or their connected elements or other surfaces, as described above. For example, in a wet play center that includes elements or components that interface with fluids, such as water, a first fluid component 106 (e.g., a water spout, water geyser, water gun, and/or water jet) may be connected or integrated with the one or more monoliths (e.g., frame 102 and/or paneling 102). The first interactive fluid component 106 may automatically spout or provide water (e.g., constantly and/or at predetermined intervals) and/or may be initiated with by users (e.g., a user may interface with a control that is connected with the jet 106, causing the jet 106 to either spout to stop spouting water and/or provide the water in a particular direction). In one embodiment, the first interactive fluid component 106 may be indirectly interacted with by a user (e.g., a user may interact with a separate interactive element or component 115 (e.g., a button, lever, switch, etc.) disposed on or associated with the play center 100 and a such interactive element or component 115 interfaces with the first interactive fluid component 106, either randomly or non-randomly, to aim and/or otherwise cause the disposal of water upon the user or an area, and/or cause some other operation of the play center 100. A second interactive fluid component 116 is also connected or integrated with one or more monoliths (e.g., frame 104) and may be the same or similar to the first interactive fluid component 106 (e.g., may be a water spout, geyser, gun, and/or jet). Other non-interactive fluid components, such as non-interactive fluid component 105, may additionally and/or alternatively be disposed around the play center 100 and may, for example, provide water that showers down onto users without requiring the users to interact with the non-interactive fluid component 105 itself, either directly or indirectly.

A fluid (e.g., water) dumping element 120 (e.g., bucket, cylinder, barrel, or other vessel configured to hold a volume of fluid and subsequently release the fluid) may be connected or positioned adjacent to one or more fluid run-off elements 130, as discussed in greater detail herein. The fluid dumping element 120 allows for water to build up or otherwise be contained within the fluid dumping element 102 and subsequently dump, pour, or otherwise provide all or a portion of the fluid within the fluid dumping element 102 onto the one or more fluid run-off elements 130. In another embodiment, the fluid dumping element 102 and/or other associated elements, for example as discussed in greater detail herein, need not be adjacent to the fluid run-off elements 130 (e.g., may be connected with, not connected with, incorporated into, positioned within proximity of, and/or the fluid dumping element 102 and fluid run-off elements 130 may be standalone without the other). The one or more fluid run-off elements 130 may provide additional features or characteristics to the runoff of fluid in order to splash, rain, or otherwise provide fluid onto users, the ground, and/or other portions of the play center positioned below.

A fluid encountering or dispersion element 132 may be disposed adjacent or integrated with the fluid run-off elements 130, for example, to encounter with fluid after the fluid has traveled or flowed along the fluid run-off elements 130. For example, in one embodiment, the fluid encountering element 132 may include one or more fins that are configured to rotate about an axis when a fluid, such as water, encounters one or more of the fins. The rotation of the fins in response to encountering the fluid may cause the fluid to spray or otherwise be splashed in an entertaining manner rather than merely running off of the fluid run-off elements 130 had no fluid encountering element 132 been disposed at the end of the fluid run-off elements. Although a particular fluid encountering element 132 having particular features (rotatable with fins, etc.) is explicitly shown in FIG. 1A, any of a variety of other elements or components may be positioned at an end of a fluid run-off element, or intermediate along a fluid run-off element, and/or adjacent to a fluid dumping element 120, in an alternative embodiment.

Although particular structures having particular shapes, configurations, sizes, and/or interconnections are specifically illustrated in FIG. 1A, any of a variety of possible structures or surfaces may be used in an alternative embodiment. For example, one or more slides, walkways, bridges, balancing beams, overhead bars, zip-lines, stairs, ramps, etc. may additionally and/or alternatively be used for an alternative play center and may be connected with the one or more frames or monoliths in an alternative embodiment. Any of a variety of various play centers, surfaces, components, and/or interactive elements may be included as part of an alternative play center, in any of a variety of configurations, positions, shapes, and/or combinations, either adjacent to one another and/or as standalone structures, surfaces, components, and/or interactive elements. Moreover, although the play center shown in FIG. 1A depicts monoliths (162, 166, etc.) that are tilted outward from the center of the decking, other arrangements are contemplated. For example, the monoliths may be oriented substantially vertically with respect to the decking, thereby eliminating the need for the corner joint pieces shown in FIG. 1A

FIG. 1B shows an exploded perspective view 180 of a monolithic-based play center, such as a monolith-based play center the same as or similar to that of FIG. 1A. Certain features of the play center may be the same as or similar to those discussed. The monolith-based play center shown in the exploded perspective view 180 illustrates one embodiment for connection of a first monolith 184 with a second monolith 186 and a third monolith 187, for example with a stabilizing and/or leveling system, as discussed in greater detail herein. The stabilizing and/or leveling system may aid in stabilizing the play center for use by one or more users and/or allow the play center to be constructed on surfaces (e.g., ground or flooring surfaces) that exhibit varying degrees of topography (e.g., are not completely flat).

The stabilizing and/or leveling system as illustrated in FIG. 1B includes a first base segment 182, a second base segment 183, and a third base segment 181. The first monolith 184 may be configured to connect (e.g., fixedly or adjustably, for example, via a connector configured to allow rotation and/or other movement) with the first base segment 182, the second monolith 186 may be configured to connect (e.g., fixedly or adjustably, for example, via a connector configured to allow rotation and/or other movement) with the second base segment 183, and the third monolith 187 may be configured to connect (e.g., fixedly or adjustably, for example, via a connector configured to allow rotation and/or other movement) with the third base segment 181. In an alternative embodiment, any of a number of base segments and/or monoliths may be used, in any of a variety of possible shapes or orientations.

As illustrated in the zoomed-in portion of FIG. 1B, a leveling component 190 (e.g., a rod, bar, or other elongated element) is configured to extend through one or both of the second base segment 183 and/or the third base segment 181. A first locking element 192 (e.g., a nut) is configured to at least partially surround the leveling component 190 (e.g., may rotate onto threads of the leveling component 190) such that, when in the desired position, abuts against or contacts a top surface of one or both of the second base segment 183 and/or the third base segment 181. Similarly, a second locking element 194 (e.g., a nut) is configured to at least partially surround the leveling component 190 (e.g., may rotate onto threads of the leveling component 190) such that, when in the desired position, abuts against or contacts a bottom surface of one or both of the second base segment 183 and/or the third base segment 181.

Thus, by adjusting the positioning of one or both of the first locking element 192 and/or the second locking element 194 along the length of the leveling component 190, a desired portion of the total length of the leveling component 190 will extend on either side (top and/or bottom) of one or both of the second base segment 183 and/or the third base segment 181. A stabilizing element 196 (which may be the same as or different from the first and/or second locking elements 192, 194 is disposed over or at an end of the leveling component 190 and, for example, configured to make contact with a ground or flooring surface, or other component connected with a ground or flooring surface (e.g., a bracket). By adjusting the positioning of the first locking element 192 and/or the second locking element 194, the height from the ground or flooring surface of one or both of the second base segment 183 and/or the third base segment 181 may be altered, for example, to accommodate topography of the ground or flooring surface.

As shown in FIG. 1B, multiple leveling components 190 and its associated locking and/or stabilizing elements (192, 194, 196) are disposed and connected with the base segments (182, 183, 181) such that the base segments (182, 183, 181) may accordingly have one or more of their heights from the ground or flooring surface adjusted independently. Thus, a ground or flooring surface with non-uniform topography may still result in a stable (e.g., horizontal or other desired orientation of base segments (182, 183, 181)) through adjustment of the multiple leveling components 190, as described above.

A support structure 185 (e.g., made of one or more support bars or components) is configured to engage with one or more of the base segments (182, 183, 181), for example, directly through bolts, screws or the like and/or indirectly through connection with one or more of the monoliths (184, 186, 187), such monoliths being connected with the one or more base segments (182, 183, 181). As illustrated, the base segments (182, 183, 181) and/or the support structure 185 may form the shape of a hexagon (e.g., may have corresponding shapes to one another), however, in an alternative embodiment, any of a variety of possible shapes and/or configurations may be used for the support structure 185 and/or the base segments (182, 183, 181). A first one or more stabilizing bars 188 may connect between the first monolith 184 and the second monolith 186. Likewise, a second one or more stabilizing bars 189 may connect between the second monolith 186 and the third monolith 187. Such stabilizing bars may aid in the structural rigidity of the play center. In alternative embodiments, greater or fewer no stabilizing bars) may be used.

As shown, a variety of possible monoliths and/or other play center components (staircases, slides, walkways, etc.) may be configured to connect along the edges or sides of the support structure 185 (e.g., along one or more of each of the 6-sides of the hexagon shape). Accordingly, the play center using such features may be modular in construction, such that different play center components and/or layout for the play center may be easily chosen and manufactured according to such choices simply by connecting such monoliths or play center components along the desired edges or sides. In this fashion, play centers can be easily and modularly designed and/or manufactured or constructed on-site, in conjunction with any of a variety of topographies of a ground or flooring surface by adjusting the stabilizing or leveling system accordingly.

FIG. 1C shows a perspective view 197 of a portion of a monolithic-based play center, such as a monolith-based play center the same as or similar to that of FIG. 1A. As discussed above, for example for FIG. 1B, one or more base segments of a play center may be adjustably positioned at a desired height above a ground or flooring surface. A cover 198 (e.g., having an adjustable height) for a monolith may be connected at a lower or bottom portion of the monolith in order to cover a gap that exists between a bottom edge of the monolith and/or the base structure due to the adjusted height.

FIG. 2 shows a perspective view 200 of a plurality of components (205, 210, 215, 220) that make up an exemplary monolith structure for use in a monolithic-based play center. Certain features of one or more of the plurality of components (205, 210, 215, 220) may be the same as or similar to those previously discussed (e.g., such monolith structures may be formed of a variety of potential materials and/or formed via connection of one or more paneling to a frame and/or may comprise merely a frame or merely paneling without the other).

The monolith structure may be composed of a first component 205 that includes a first side or surface (e.g., a side facing a decking 240) and a second side or surface (e.g., a side that is not facing the decking 240). The first side or surface may be spaced apart from the second side or surface (e.g., parallel to the first side or surface) such that there is a gap between the first side and the second side (e.g., to accommodate associated equipment that corresponds with the first component 205 such as piping or plumbing, mechanical equipment or connections, electrical equipment or connections, etc.). In certain embodiments, the first component 205 may be paneling such that there is no gap or cavity therein. Piping 230 is shown connected with portions (e.g., a mechanical connection of the monolith 205 that provides access to additional piping disposed within the gap of the first side and the second side of the first component 205 and/or with other fluid components connected with the first component 205). Water may be configured to flow from the piping 230 to the first component 205 in order to be communicated to any of a variety of additional elements or devices, such as water spinners, water geysers, water jets, etc. that are connected with the first component 205. A decking 240 may be connected with the first component 205, the decking permitting users to travel thereon in certain embodiments. Multiple monoliths may be connected to the decking 240 in certain embodiments in order to construct a desired play center. In one embodiment, piping 230 may be connected beneath and/or fastened to the decking 240 in order to provide a flow of water via the piping 230 to various components associated with the decking 240 (e.g., floor geysers) and/or to route the piping to other monoliths structures. In an alternative embodiment, rather than additional piping 230, fluids and/or electricity may be configured to flow through a frame of the first component 205 (or other components as discussed) itself.

A second component 210 may also be used in a play center, but formed differently than the first component 205 in that it forms a frame or structure with an interior opening or cavity that is bounded fully by the frame or structure. Similar to the first monolith 205, an interior cavity of the frame or structure may permit equipment, piping, or plumbing to be disposed therein (e.g., water piping to allow for a flow of water to be transmitted through the frame or structure to an output connection and/or output device located on some portion of the second monolith 210.) Second component 210 may be configured to abut against and/or be fixed to the first component 205.

A third component 215 may be similar to the second monolith 210, but instead of having its cavity being fully bounded by its frame or structure, the cavity is illustrated as only being partially bounded (e.g., the cavity is open at a bottom portion that rests on the floor or ground). The third component 215 also illustrates a possible water dumping or water sprinkling feature wherein a cascade of water may be permitted to travel down or along a portion (e.g., a top part) 216 of the third component 215. This portion for water cascading may be shaped so as to provide a visually interesting stream of flow of water and/or to provide a particular water cascading effect onto users or other components located beneath the water cascade. The third component 215 may be configured to abut against and/or be fixed to the second component 210. A fourth component 220 may be similar to the first monolith 205 and include one or more water elements (e.g., water spinners, controls, geysers, etc.) while also providing openings to allow water to spill there through. The fourth component 220 may be configured to abut against and/or be fixed to the third component 215. As previously discussed, a play center, such as play center 100, may be formed of one or more monoliths, the same as or similar to the construction shown in FIG. 2 alone or in conjunction with any of a variety of possible structures or components that may be interacted or used by a user (e.g., stairs, railings such as transparent railings, deckings such as transparent deckings, nettings, ropes, slides, etc.). In an alternative embodiment, greater or fewer components may be used in creating a monolith (e.g., a monolith may be formed using only a single frame and a single panel connected on one side of the frame, with or without any piping or other components (fluid, mechanical, electrical, etc.) disposed within open space of the frame.

FIG. 3A shows a cross-sectional, exploded side view and a front view of a monolith 300 for use in a monolithic-based play center. Certain features of the monolith 300 may be the same as or similar to those previously discussed. The monolith 300 may have an exterior frame 305 that substantially forms the outer perimeter or shape of the monolith 300. As seen by the cross-sectional side view (the left-most view of FIG. 3A) of the monolith 300, a first side or surface 315 may be disposed across an inner cavity from a second side or surface 316 such that the cavity may be used for placement of additional equipment (e.g., piping or plumbing 335). A piping or other fluid (e.g., water) supply 320 that is positioned outside of the monolith 300 may be connected with the piping or plumbing 335 via a connector 325 (e.g., a flex connector) that is located and/or fixed upon the first side or surface 315 of the monolith 300. Any of a variety of components configured to flow or otherwise interface with the fluid from the supply 320 may also or alternatively be connected with the monolith 300 and interface with the piping or plumbing 335.

As previously discussed, the monolith 300 may be connected with a ground or floor via a connector 310 (e.g., an adjustable connector that allows the monolith 300 to pivot or rotate with respect to the ground or floor before being locked into its desired position, such as via an additional or multiple additional clamps or brackets 311). Various connections for the attachment of other surfaces or parts (e.g., deckings) may be integrated or configured to be attached the monolith 300. One or more fluid delivery components (340, 342) may be connected with the piping or plumbing 335 in order to receive fluid from the fluid source 320. Likewise, an interactive element 330, for example, a button or other user-manipulatable element, may interface with the fluid source 320, piping or plumbing 335, and/or the one or more fluid delivery components (340, 342) or other components of the monolith 300 in order to control and/or cause fluid flow to either be emitted by the one or more fluid delivery components (340, 342) or not to be emitted by the one or more fluid delivery components (340, 342).

FIG. 3B shows a bottom view of a portion 350 of a monolithic-based play center using monolith structures, such as the monolith 300 of FIG. 3A. Certain features of the play center and/or monoliths may be the same as or similar to those previously discussed. For example, the portion 350 of the play center is shown and illustrated from a bottoms-up view that shows beneath a decking 360 connected with three monoliths (370, 372, 374) and has associated piping 365 for the transmittal of fluid (e.g., water) to components associated with each of the three monoliths (370, 372, 374). Such piping may be hidden from user view due to its placement on a bottom side of the decking 360. A fluid geyser or other component 380 disposed within or connected with the decking 360 may be configured to spout fluid from the piping 365 in an upward direction, for example automatically based upon time and/or in response to user interaction, for example based upon a foot pedal, button, and/or other activator. In alternative embodiments, various other equipment may be installed, for example, as previously discussed.

FIG. 4 shows a side schematic view of a portion of a play center 400 including a monolith 405 connected with a decking 425. Certain features of the play center 400 and/or the monolith 405 and/or the decking 425 may be the same as or similar to those previously discussed. For example, the monolith 405 may be connected with a ground or floor surface 410, for example via a rotatable or otherwise movable connection (e.g., one or more pivotable hinges) that may be further locked into a fixed or rigid orientation, either via the rotatable or otherwise movable connection itself or via additional parts (e.g., one or more fixed brackets, such as L-brackets). The decking 425 may be connected with a portion of the monolith 405, for example, in order to provide the decking 425 at a raised elevation supported by one or more monoliths 405 spaced at locations along the perimeter of the decking 425. Plumbing or pipes 520 may extend from the ground or floor surface 410 (e.g., may receive fluid via reservoirs, pumps, etc. located beneath the ground or floor surface 410) and are connected to an underside of the decking 425 and carry such water to the one or more monoliths 405, for example, to provide the fluid to components connected with the one or more monoliths 405, such as water spouts, etc. The monolith 405 may be formed in any of a variety of shapes, patterns, configurations, etc., such as hexagons as illustrated. Such shapes, patterns, and/or configurations may be formed as an integral part of the monolith 405 itself and/or may be formed by paneling in such shapes, patterns, and/or configurations that are attached to the monolith 405 structure.

In one example, the monolith 405 may be constructed via one or more frame components that surround all or a portion of a perimeter of the monolith 405. In certain embodiments, further side or surface materials may be connected with the one or more frame components to form the monolith 405 such that a cavity or gap exists between the side or surface materials, the same or similar as previously discussed. One or more interactive elements, such as a water gun 415, floor geyser 417, touch/spin turbine 419 (e.g. a button that includes spinning turbine contained within that engage or otherwise interact with water) or other fluid-based component may be connected with the monolith 405 and/or the decking 425 and be in communication with piping or plumbing 420 that resides within the cavity or gap between the side or surface materials of the monolith 405 and/or underneath the decking 425 (or otherwise disposed along the play center 400) that carries water to the interactive elements (415, 417, and/or 419).

With respect to the connection of monoliths to a floor, ground, or other surface, as previously discussed, FIG. 5A shows a side view 500 of a monolith 520 that is connected with a horizontal floor surface 505, in one embodiment illustrated at a top of FIG. 5A, and an angled floor surface 510, in another embodiment illustrated at a bottom of FIG. 5A. The monolith 520 may include features that are the same as or similar to those previously discussed. The monolith 520 may form a substantially 90-degree angle (e.g., angle 540) with the floor surface 505 and the monolith 520 may form a greater than 90-degree angle (e.g., angle 542) with the floor surface 510 due to the angle of the floor surface. In alternative embodiments, the monolith 520 may be permitted to be at any angle with respect to a floor, ground, or other surface (e.g., a monolith may be connected with a decking, as previously discussed), whether or not the ground, floor, or other surface is horizontal or angled, in varying embodiments.

For example, FIG. 5B shows a side schematic view 550 of possible connections associated with the monolith 520 of FIG. 5A during assembly. The monolith 520 may be connected to a ground or floor via an adjustable connector 580 that allows for both rotation 560 and/or spinning 565 of the monolith 520 with respect to the ground or floor 510 in one or more directions. Using such an adjustable connector may allow for creation of a play center that is easily customizable for a particular topography since monoliths can be positioned, rotated, and/or spun in a variety of possible orientations prior to fixing such orientation in place (e.g., using one or more stabilizing connectors 570 such as brackets, bolts, welds, etc.), for example to stabilize the monolith, and/or without requiring the cost or expense associated with making a floor or ground surface into a particular orientation prior to build.

The monolith 520 may include a block or portion of material 522, for example, disposed at a lower end of the monolith 520 (e.g., positioned in the cavity between two side or surface panels) that engages with the adjustable connector 580. The block may be used for increased stabilization or support of the monolith 520. Equipment, such as plumbing 585, may be configured to be disposed at least partially within the cavity or gap internal to the monolith. As discussed, any of a variety of other features may be part of the monoliths, such as drain holes, connection holes, vertical adjustments of a ground connection, pivot points of a ground connection, horizontal adjustments of a ground connection, and/or other possible clamps or connectors (e.g., quick connects) associated with the assembly or connection of the monolith to the ground or floor surface and/or other associated components.

Water dumping or provision capabilities may additionally or alternatively be used as part of a play center or standalone structure for user enjoyment. FIG. 6 shows a fluid dump system 600 for a play center. Certain features of the fluid dump system 600 and/or the play center may be the same as or similar to previous discussions. In certain embodiments, a fluid dump system, such as the fluid dump system 600 may be a standalone system that is not part of a larger play center.

The fluid dump system 600 may include a fluid delivery element 610, illustrated in FIG. 6 as a rotatable or tippable element (e.g., a bucket, cylinder, sphere, or any other shape that is capable containing a volume of fluid, such as water) that is configured to subsequently release all or a portion of a volume of fluid that is contained within the element 610 at various intervals. Although the element 610 is illustrated as a rotatable or tippable enclosure, in an alternative embodiment, the release of all or a portion of the volume of fluid within the structure may be by way of rotating, pivoting, or otherwise releasing, such as by the opening of a portion of a side of the enclosure. In still another embodiment, no element 610 may be desired, instead water may be directly provided from a water source (e.g., piping).

In FIG. 6, the element 610 may be mechanically driven (e.g., caused to tip when the amount of fluid causes the bucket to become unsteady or otherwise too heavy to remain upright and tip over). In another embodiment, the element 610 may be electrically driven (e.g., caused to tip in response to an electrical signal, such as a signal based upon a measured weight, time, height of fluid within the element 610, etc. that exceeds a particular or predetermined threshold.

The element 610 may be provided in any of a variety of shapes although an elongated cylinder is specifically illustrated in FIG. 6. The element 610 may release some or all of the volume of fluid onto a fluid flowing element 620 (e.g., a further surface or plurality of surfaces or elements) that is configured to have the volume of fluid from the tippable element 610 disposed thereon). In one embodiment, the fluid flowing element 620 may be a static surface or set of surfaces having a particular shape, configuration, and/or orientation (e.g., stairsteps, drainage or fluid flow cavities or pathways, etc.) such that fluid being dumped or provided from the element 610 thereon flows in a particular fashion along the static surface, for example, downward due to gravity.

In another embodiment, the fluid flowing element 620 may be a surface or set of surfaces that are capable of moving (e.g., pivotable surfaces, such as curved surfaces) that are configured to rotate, pivot, spin, or otherwise move when a flow of water is deposited thereon, swaying, rotating, or otherwise moving back and forth as water continues to drain and/or flow over such surfaces. Such a configuration may provide for spillage of water in an exciting and/or unpredictable and splashing format that can provide more entertainment to users of the play center.

At a bottom or lower portion of the fluid flowing element 620, a fluid encountering or dispersion element 650 may be disposed in order to provide a final surface (or set of surfaces), shape, or other component that causes a large splash of water to rain down upon users or other elements of the play center. For example as illustrated, the fluid encountering or dispersion element 650 may be in the form of one or more elongated fins that are rotatable when fluid encounters the one or more fins. The fins may rotate along an axis substantially perpendicular to the flow of fluid along the fluid flowing element 620, or, in an alternative embedment, may be rotate along an axis at any other angle (or substantially parallel) with such fluid flow.

In one embodiment, users of the play center may witness or otherwise be aware that the element 610 is being filled with a fluid, such as water. The filling of the element 610 may be accompanied by visual notification of filling, audible notification, such as a bell or other sound, and or any of a variety of other notifications (e.g., physical notifications such as a vibrating floor, surface, or other element or structure). In certain embodiments, a further notification may be provided to users of the play center at a predetermined time before the element 610 is due to tip and/or at a predetermined volume of fluid being within the element 610. For example, a bell or other sound may play in one embodiment when dumping of the water by the tippable element 610 is imminent.

In another example, some fluid from the element 610 (e.g., via an overflow hole 630, for example in the element 610) may provide the notification to users (e.g., once the element 610 has reached a certain volume such that fluid spills into an overflow hole of the element 610, other water dumping elements (may begin operation, thus indicating to users that the larger dumping of water from the element 610 is imminent. In still another example, fluid due to the overflow hole 630, similar to the description above, may instead be provided onto the fluid flowing element 620 such that users of the play center witness fluid upon the fluid flowing element 620, but at a lower volume, indicating that a larger volume of fluid is due to hit the fluid flowing element 620 imminently.

FIG. 7 shows a fluid dump system 700, for example, as part of a play center. The fluid dump system 700 and/or play center may include features that are the same as or similar to those previously discussed. For example, FIG. 7 illustrates a fluid delivery element 710, a fluid flowing element 720, and a fluid dispersion element 750. As shown, the fluid flowing element 720 may be comprised of a plurality of static steps or stairs that operates to cause fluid flowing on the fluid flowing element 720 to turbulently splash down the steps after the fluid is released from the fluid delivery element 710. The fluid dispersion element 750 may be in the form of a spiral or corkscrew, such that as fluid flows onto the fluid dispersion element 750 may cause the fluid dispersion element to rotate (if the fluid dispersion element 750 is rotatable), or otherwise cause fluid to fling, disperse or splash after it encounters the fluid dispersion element.

FIG. 8 shows a fluid dump system 800, for example, as part of a play center. The fluid dump system 800 and/or play center may include features that are the same as or similar to those previously discussed. For example, FIG. 8 illustrates a fluid delivery element 810 (e.g., a tippable bucket) and a fluid flowing element 820. As shown, the fluid flowing element 720 may be comprised of a generally flat surface (e.g., may include curved or angled sidewalls to aid in maintaining at least some of the flow of fluid there between). The fluid delivery element 810 provides fluid upon the static fluid flowing element 820 (e.g., a dump root). The static fluid flowing element 820 may be made of a variety of materials and/or have a variety of textures, flow patterns or pathways, made in a variety of shapes and/or colors (e.g., translucent or semi-translucent), etc.

FIG. 9 shows a fluid dump system 900, for example, as part of a play center. The fluid dump system 900 and/or play center may include features that are the same as or similar to those previously discussed. For example, FIG. 9 illustrates a fluid delivery element 910 (e.g., a tippable bucket) having a plurality of fluid delivery sources (911, 912) for filling the fluid delivery element 910 with fluid, a fluid flowing element 920, and a fluid dispersion element 950. As shown, the fluid flowing element 920 may be comprised of a generally flat surface (e.g., illustrated without any sidewalls such that fluid may freely flow off lateral edges of the fluid flowing element 920). The fluid delivery element 910 provides fluid upon the fluid flowing element 920 (e.g., a dump roof), which subsequently provides at least some of the fluid flowing upon the fluid flowing element 920 to the fluid dispersion element 950. As illustrated, in one embodiment, the fluid dispersion element 950 may be in the form of at least one fin that is rotatably mounted at an end of the fluid flowing element 920 that is opposite the end of the fluid flowing element 920 adjacent to the fluid delivery component. The fin may extend substantially the entire width 955 of the fluid flowing element 920. As previously discussed, the static fluid flowing element 920 may be made of a variety of materials and/or have a variety of textures, flow patterns or pathways, made in a variety of shapes and/or colors (e.g., translucent or semi-translucent), etc.

FIG. 10 shows a fluid dump system 1000, for example, as part of a play center. The fluid dump system 1000 and/or play center may include features that are the same as or similar to those previously discussed. For example, FIG. 10 illustrates a fluid delivery element 1010 (e.g., a tippable bucket) having a plurality of fluid delivery sources (1011, 1012) for filling the fluid delivery element 1010 with fluid and a plurality of fluid flowing elements 1020, for example, illustrated in FIG. 10 as a plurality of rotatable fin-based components configured to spin and rotate upon receiving fluid from the fluid delivery element 1010, the same as or similar to previous discussions. A first fluid dispersion element 1050 and a second fluid dispersion element 1055 (e.g., illustrated in the form of walls) encounter any fluid remaining after flowing down the fluid flowing elements 1020 and acts to disperse or splash such remaining fluid.

FIG. 11 shows a fluid dump system 1100, for example, as part of a play center. The fluid dump system 1100 and/or play center may include features that are the same as or similar to those previously discussed. For example, FIG. 11 illustrates a fluid delivery element 1110, a fluid flowing element 1120, and a fluid dispersion element 1150. As shown, the fluid flowing element 1120 may be comprised of a plurality of rotatable buckets that operate by rotating once fluid flows onto or into them and thus causing fluid flowing on the flowing element 1120 to turbulently splash down after the fluid is released from the fluid delivery element 1110. The fluid dispersion element 1150 may be in the form of wall that may cause any remaining fluid from the fluid flowing element 1120 to splash up and over the fluid dispersion element 1150.

FIG. 12 shows a fluid dump system 1200, for example, as part of a play center. The fluid dump system 1200 and/or play center may include features that are the same as or similar to those previously discussed. For example, FIG. 12 illustrates a fluid delivery element 1210, a fluid flowing element 1220, and a fluid dispersion element 1250. As shown, the fluid flowing element 1220 may be comprised of a plurality of rigid steps or stairs that operate to cause fluid flowing on the flowing element 1220 to turbulently splash down the steps after the fluid is released from the fluid delivery element 1210. The fluid dispersion element 1250 may be in the form of a curved (e.g. or other shape) surfaces that acts to cause a final splash of fluid after the fluid encounters the fluid dispersion element.

FIG. 12 also illustrates a second fluid flowing element 1230 and a fluid collection element 1240. The second fluid flowing element 1230 may be connected with the fluid delivery element 1210, for example, to begin flowing or pouring fluid from the fluid delivery element 1210 prior to the substantial release of fluid from the fluid delivery element 1210 onto the fluid flowing element 1220 (e.g., via connection with an overflow). Accordingly, in one embodiment, the flow of fluid via the second fluid flowing element 1230 into the fluid collection element 1240 may provide an indication to users that release of fluid from the fluid delivery element 1210 onto the fluid flowing element 1220 is imminent. Any of a variety and/or number of additional and/or alternative element may be coupled with a fluid delivery element, a fluid flowing element, and/or a fluid dispersion element (e.g., as discussed throughout) in order to provide additional water features, either at the same time, after in time, or prior in time, to the fluid being released from the fluid delivery element and onto the fluid flowing element.

FIG. 13A shows a perspective view of an alternative embodiment of a monolith-based play center 1300. FIG. 13B shows the same embodiment of a monolith-based play center from a side elevation view. Although the play center 1300 is illustrated as incorporating a variety of wet elements (e.g., water dumpers, sprayers, jets, etc.), in an alternative embodiment, additional, fewer, and/or different wet or dry elements may be used. For example, in one embodiment, the play center 1300 may be a dry play center that does not include any play elements or components that utilize fluids such as water.

The play center 1300 is formed via a central support pole (or monopole) 1301 that extends from the floor or surface that the play center 1300 is disposed upon. The monopole 1301, sometimes referred to as a standpipe, is preferably formed with an internal cavity sufficient to carry a fluid from the floor up to the various play elements disposed on the structure. A diameter of monopole 1301 as well as the other monopoles described herein can vary between about 10 and 36 inches. In some embodiments, water is carried within monopole 1301 by a water pipe having a diameter of between three and eight inches. Alternatively, the internal cavity may be used to convey electrical supply or other electrical wires to features of the play center. Such features might include lighting, RFID readers, scoring mechanisms, and the like. In another embodiment, the cavity may be employed for mechanical component connections such as pulleys, rods, levers, etc. A cavity may also be designed to have more than one conduit within, such as an electrical conduit and a water conduit both contained within the same cavity. In a wet play center, the internal cavity may be water charged, meaning it is filled with water. Alternatively, the water may be conveyed via piping (or conduits) disposed within the monopole 1301. The fluid pump system is connected to the monopole via a connection 1302 located near the floor of the play area. The water is conveyed upward via a pump system to play elements, such as the water gun 1303, water spout 1304, or water dump bucket 1305 shown in FIGS. 13A and 13B. In the embodiment shown in FIGS. 13A and 13B, the monopole 1301 continues upward beyond the decking 1360 and serves as a support structure for shade structures 1380 or additional water features. Alternatively, additional decking is supported at a height above decking 1360, so as to create a multi-level play center. In another alternative embodiment, the monopole 1301 terminates at the decking 1360 and does not continue upward beyond that point, such as in FIGS. 14A and 14B, described below.

The play center 1300 includes a decking 1360 connected to the monopole 1301. The decking 1360 may also have attached to it one or more monoliths, such as monoliths 1362, 1364, and 1366. The monolith of this embodiment is comprised of one or more panels and frame elements. The monoliths are removably connected to the decking 1360 via bolts, screws, or the like (as shown in FIG. 18C), such that each monolith may be removed from one side of the decking and reconnected to another side of the decking, or be replaced with a different monolith. For example, a broken monolith may be removed for repair and a working monolith replaced right away, thereby greatly reducing out-of-service time for the play center. Monoliths may also be removed and replaced to account for updated styles, color schemes, or the like. The modular nature of the monoliths allows the play center to be easily and quickly reconfigured as desired by the play center owner or operator.

Each monolith may incorporate interactive elements, such as water guns 1303, water spouts 1304, water dump buckets 1305, etc., configured to emit water to an area exterior to the monoliths 1362, 1364, 1366. As described in more detail below, the monoliths may incorporate piping or piping connectors such that the modular nature of the play center is not hindered by the addition of water features. Certain embodiments of the monolith, may not include any connection or capability for interactive elements thereon and remain merely an external paneling for the play center. The monolith may or may not include other features or elements as part of or connected with the paneling (e.g., a translucent bubble or view-hole that encourages users to look through as shown for paneling 1364, or water guns as shown in panel 1366).

Other structures may also be connected to the decking 1360, such as stairs 1368, bridges, ramps, walkways, slides, etc. (see FIG. 19) that can be used to connect one monopole/decking structure with one or more other such structures or to the ground, similar to that shown in FIG. 1A. In this fashion, by using a plurality of one or more monoliths with other elements or surfaces connected therewith, a larger play center or assembly can be formed that incorporate any of a variety of possible entertainment structures. In certain embodiments, such interconnection of other elements or surfaces with the one or more monoliths may allow for more easily customized and/or modular play centers be formed, when compared to conventional play centers.

In the embodiment shown in FIGS. 13A and 13B, the decking 1360 is located relatively high off the ground, approximately 8 feet above the ground in a preferred embodiment. Because guests would be able to freely move about below the decking 1360, the piping is preferably secured such that it cannot be readily accessed by unauthorized personnel. In one embodiment, the piping may be disposed on the bottom side of the decking, as described above in connection with FIGS. 1B, 3B and FIG. 4. Alternatively, the piping may be disposed within the decking 1360, and accessible by removable panels 1370 located on the top or bottom of the decking 1360. Although the figures show embodiments in which the decking is in a hexagonal shape, the decking may be in any other shape desired (e.g., rectangular, triangular, pentagonal, circular, ovoid, etc.) without sacrificing the modularity described herein.

FIGS. 14A and 14B show a perspective and side view of another embodiment of the monopole play center. Play center 1400 is illustrated as incorporating a variety of wet elements (e.g., water dumpers, sprayers, jets, etc.), in an alternative embodiment, additional, fewer, and/or different wet or dry elements may be used. For example, in one embodiment, the play center 1400 may be a dry play center that does not include any play elements or components that utilize fluids such as water.

The play center 1400 is formed via a central support pole (or monopole) 1401 that extends from the floor or surface that the play center 1400 is disposed upon. Although the monopole in FIGS. 14A and 14B terminates at the decking 1460, in alternative embodiments, the monopole may continue upward as shown in FIGS. 13A and 13B and FIGS. 20B-20D to support additional water features, shade structures, or additional decking structures above. The monopole 1401 is preferably formed with an internal cavity sufficient to carry a fluid from the floor up to the various play elements disposed on the structure. Alternatively, the internal cavity may be used to convey electrical supply or other electrical wires to features. Such features might include lighting, RFID readers, scoring mechanisms, pneumatically or electrically actuated water jets and the like. In another embodiment, the cavity may be employed for mechanical component connections such as pulleys, rods, levers, etc and/or pneumatic hosing. For example, pressurized water, pressurized air and lighting can all be actuated using piping or hosing running through the monopole to create a series of illuminated fountains in some embodiments. A cavity may also be designed to have more than one conduit within, such as an electrical conduit and a water conduit both contained within the same cavity. For example, the water conduit can be between three and eight inches in diameter while the electrical conduit can be smaller. In a wet play center, the internal cavity may alternatively be water charged, meaning it is filled with water. Alternatively, the water may be conveyed via piping disposed within the monopole 1401. The fluid pump system is connected to the monopole via a connection 1402 located near the floor of the play area. The water is conveyed upward via a pump system to play elements, such as the water gun 1403, water spout 1404, or water dump bucket 1405 shown in FIGS. 14A and 14B. Play elements such as the water gun 1403, water spout 1404, or water dump bucket 1405 shown in FIGS. 14A and 14B may be interchangeable through the use of a sleeve joint 1407, described in more detail below with respect to FIGS. 14C-14D.

The play center 1400 includes a decking 1460 connected to the monopole 1401. The decking 1460 may also have attached to it one or more monoliths, such as monoliths 1462, 1464, 1466, and 1468. The monolith of this embodiment is comprised of one or more panels and frame elements. The monoliths are removably connected to the decking 1460 via bolts, screws, or the like, (as shown in FIG. 18C) such that each monolith may be removed from one side of the decking and reconnected to another side of the decking, or be replaced with a different monolith. For example, a broken monolith may be removed for repair and a working monolith replaced right away, thereby greatly reducing out-of-service time for the play center. Monoliths may also be removed and replaced to account for updated styles, color schemes, or the like. The modular nature of the monoliths allows the play center to be easily and quickly reconfigured as desired by the play center owner or operator.

Each monolith may incorporate interactive elements, such as water guns 1403, water spouts 1404, water dump buckets 1405, etc., configured to emit water to an area exterior to the monoliths 1462, 1464, 1466. As described in more detail below, the monoliths may incorporate piping or piping connectors such that the modular nature of the play center is not hindered by the addition of water features. Certain embodiments of the monolith may not include any connection or capability for interactive elements thereon and remain merely an external paneling for the play center. The monolith may or may not include other features or elements as part of or connected with the paneling (e.g., a translucent bubble or view-hole that encourages users to look through as shown for panel 1464, or water guns as shown in panel 1466).

Other structures may also be connected to the decking 1460, such as stairs, bridges, ramps, walkways, slides, etc., (see FIG. 19) that can be used to connect one monopole/decking structure with one or more other such structures or to the ground, similar to that shown in FIG. 1A. In this fashion, by using a plurality of one or more monoliths with other elements or surfaces connected therewith, a larger play center or assembly can be formed that incorporate any of a variety of possible entertainment structures. In certain embodiments, such interconnection of other elements or surfaces with the one or more monoliths may allow for more easily customized and/or modular play centers be formed, when compared to conventional play centers.

The embodiment shown in FIGS. 14A and 14B is relatively low to the ground, such that guests cannot safely travel beneath the decking. In this embodiment, lower monoliths are employed as a shroud, hanging down from the decking to a point sufficiently close to the ground that guests cannot enter the interior space below the decking 1460 and behind the lower monoliths. Although it cannot be seen in the figures, it is contemplated that the lower monoliths would form a complete circuit around the base of the play center below the decking. In a preferred embodiment, the lower monoliths hang from the decking to approximately one inch above the ground. The lower monoliths are also preferably joined to each other at the lateral edges, or else the lateral edge of one lower monolith placed in sufficiently close proximity to the lateral edge of the next lower monolith that guests cannot enter the interior space. The lower monoliths may be removably connected to the decking 1460, or to a corresponding upper monolith, or to a neighboring lower monolith. As shown in FIGS. 14A and 14B, for example, lower monoliths 1476 and 1478 may connected to monolith 1466 and 1468, respectively, and/or to the decking 1460. Lower monolith 1475 has no corresponding upper monolith, and so may be connected on the lateral ends to lower monoliths 1476 and 1478. The modular nature of the monolith system also allows one or more of the lower monoliths to be readily removed for access to perform repairs, retrieve lost items, and the like.

Because the piping is not readily accessible by guests in the embodiment shown in FIGS. 14A and 14B, the piping may be left visible on the underside of the decking 1460, or removable lower panels may be used to hide the piping for aesthetic, safety, or other reasons, similar to the underside panels 1370 described above.

FIG. 14C shows a view of a single monolith according to one aspect of the invention. In this view, the sleeve joint 1407 is shown. Play elements such as the water gun 1403, water spout 1404, or water dump bucket 1405 shown in FIGS. 14A and 14B may be interchangeable through the use of a sleeve joint 1407, described in more detail below with respect to FIG. 14C. In this view, the water spout 1404 is shown in an exploded view depicting one embodiment of how the sleeve joint 1405 may work. The sleeve joint allows for the interchangeability of just one aspect of the monolith (the attached play element) without requiring the entire monolith to be changed out.

As shown in FIG. 14C, the frame of the monolith may include a conduit 1408 or cavity running along an edge of the monolith, whereby water may be transported from the water supply to the play element, such as through a hose or via water-charged conduit or cavity. At the sleeve joint 1407, the conduit 1408 and the wet/play element (e.g., spout 1404) meet and are removably joined together in a water-tight configuration. As shown here, the conduit 1408 has a rectangular cross-section that helps to ensure that the play element is seated properly for the water-tight connection and to ensure proper orientation of the play element on the structure. Alternatively, as shown in FIG. 14D, the sleeve joint may be located near the head of the play feature (e.g., spout 1304, 1404 or water dump bucket 1305, 1405), allowing for interchangeability of the play features by replacing only the head, rather than the entire head, conduit, arm 1409, and support features. Also as shown in FIG. 14D, a sleeve joint 1407 may optionally be located both near the head of the play feature and near the connection with the monolith, allowing for replacement of only the head, or only the arm 1409, or both.

FIGS. 14E-14G shows examples of interchangeability of components between monoliths. FIG. 14E shows a monolith 1420 configured with a hemispherically-shaped spray bar 1422. FIG. 14F shows a monolith 1430 configured with two spray nozzles 1432. FIG. 14G shows how a monolith can be reconfigured to include either the hemispherically-shaped spray bar 1422 shown in FIG. 14E or the spray nozzles 1432 shown in FIG. 14F. It should be appreciated that monoliths could be reconfigurable to include many other wet elements as well. FIG. 14G also shows how hemispherically shaped spray bar 1422 and spray nozzles 1432 include tubing 1434 that can be inserted into the framing members making up the monoliths to help route water efficiently within the frame and to the interchangeable wet elements. For example tubing 1434 could reach down to one or more valves incorporated within monolith 1420 or 1430 allowing for an amount of fluid/water being supplied to the wet element to be adjusted.

In the embodiments shown in the previous figures, each side of the decking has been the same length as every other side. This arrangement allows for easy interchangeability and configurability of the various component pieces. However, the invention can also accommodate larger or smaller components, as well as components that may be used to adapt to uneven surfaces or different deck heights between structures.

FIGS. 15A-15C show an exemplary embodiment that allows for an oversize component—in this case a slide component—to be attached to one side of the decking through the use of a connector piece 1501. The connector piece may be used to accommodate larger slide 1502 entrances (as one example) while maintain the aesthetics and configurability of the structure and minimizing new parts needed. In the embodiment shown in FIGS. 15A-15C, the connector piece 1501 is used with a structure that is relatively low to the ground. Additional support structures 1503 are used to provide support and stability. As best seen in FIG. 15B, the support structures 1503 in the embodiment shown are comprised of legs. However, the support structures may alternatively be comprised of a pole (either a monopole as described herein, or simply a large pole-shaped structure, as desired) a support or other suitable means of supporting the connector piece. When the decking and connector piece 1501 are used with higher deck heights, the use of a monopole under the connector piece 1501 may be preferable to maintain a consistent aesthetic, or to deliver additional water or electrical connections to the higher decks.

The play center described herein may be installed on an area that is not completely level (i.e., on a slope, or having different floor heights) or the deck heights may otherwise be set at slightly different heights for aesthetic or other reasons. In such a scenario, there is a need for patrons to be able to move between the various decks safely and easily. FIGS. 15D and 15E show an embodiment of the invention that includes step 1510 integrated into the deck 1505 that facilitates the use of adjacent decks or components (either immediately adjacent or connected via a walkway 1511) that are of different heights. As shown in FIG. 15D, this may be accomplished by the use of an integrated step or steps that provide for a smooth transition to a lower deck or walkway. The step in FIG. 15D, for example, may be used for a vertical difference between decks of 300 mm. Alternatively, an integrated step may be used to transition to a higher deck or walkway, as needed. FIG. 15E shows an alternative embodiment that facilitates a transition to a different-height deck or walkway, where the difference in height is less than that shown in FIG. 15D (150 mm, for example), and where a full step would not be practical. Thus, in FIG. 15E, a full step is not added but the deck is attached to walkway not in a flush manner, but slightly offset vertically. Although not shown in the figures, the steps and height transitions can also be angled and used to turn corners quicker than decks.

Using smaller transitions in height between decks allows for a better play experience as decks are closer in height and smaller distances apart, avoid lengthy staircases and allowing better interaction between the decks and patrons. By facilitating decks that are closer together, the invention also allows for a reduced overall footprint, a better feel of adventure as users need to go up and down small steps to explore and move around the structure.

Existing water play centers incorporate piping to pump water to various play features. However, a malfunction in the piping of pumping system of prior art play centers, often leads to prolonged shutdown of the play center while the problem is fixed by a technician. The piping and pumping systems of existing structures are typically accessed via an underground manifold, or via a throttle in a pump structure located some distance from the play center. Because of this, a malfunction in one aspect of the piping or pumping system requires a shutdown of the entire play center while repairs are conducted. Depending on the location of the repairs, it may also require water to be drained from an area, barricades to be erected, and perhaps scaffolding or a cherry picker brought in to access parts of the play center. This leads to inconvenience to guests and lost revenue to the park operator while maintenance is ongoing.

FIG. 16A shows a perspective view of a monolith 1600 having an access panel that when removed reveals valves for controlling the flow of fluid through piping in accordance with this invention. In this embodiment, monolith 1600 acts as both a guardrail to prevent guests from falling off the play center and also as a flow control station when access panel 1640 is removed. The monolith 1600 seen in FIG. 16A is shown at an angle as viewed from the exterior of the play center. FIG. 16A has a translucent front panel 1601 for ease of viewing the interior features of the monolith 1600, although in practice the front panel 1601 may be translucent, transparent, or opaque. A similar monolith can be seen in FIG. 13A as item 1366. The monolith incorporates piping 1610, 1620, 1630 for transportation of fluids to various features on the play center. Unlike the prior art play centers, the piping and pumping systems of the instant invention are readily accessible via an access panel 1640 located on the back side of the monolith 1600 that is removably attached via fasteners taking the form of screws, bolts or the like. Alternatively, the access panel 1640 may be connected via a hinge or similar structure that allows the access panel 1640 to be opened to provide access to the interior via a key or some similar secure means of accessing the flow control station.

In the embodiment shown in FIG. 16A, the monolith includes three sets of pipes 1610, 1620, and 1630, each of which is associated with a different play feature. For example, pipe 1610 may be associated with a water gun, while pipe 1620 is associated with a water spout, and pipe 1630 is associated with a water dump bucket. Each of the pipes is connected to a manifold (shown in FIG. 18A), then runs to the access panel monolith 1600, and from there to each associated water feature. By sending each of the pipes to the access panel monolith 1600, each of the pipes may be individually accessed, repaired, adjusted, or modified via the panel from the play center deck as needed while minimizing disruption to play center operation. In some cases, maintenance may be performed without shutting down the play center at all.

In the example shown and described here, piping 1610 directs water to a water gun located on the play center. In the event that the water pressure to the water gun is too low or too high, a maintenance worker can open panel 1640 to access the piping 1610 to adjust the water pressure leading to the water gun without affecting water pressure going to the other water features. By contrast prior art structures typically employ a single line for all water features on a given structure, such that modification of water pressure going to one feature would cause the water pressure to also be increased or decreased at all features. Additionally, because the maintenance is done at the site of the play center, the worker can easily run tests to confirm that the adjustments have been satisfactorily completed. While maintenance on the water gun is happening, operation of the water spout or water dump bucket, which are fed by piping 1620 and 1630, respectively, can continue without interruption. By contrast, this sort of maintenance using prior art water structure technology would likely require that substantial portions or an entirety of a play center be shut down while adjustments are made. And, because the maintenance is likely to be made at a site some distance from the play center, it would take additional time for the worker to confirm that the water pressure has been properly adjusted.

Monolith 1600 shown in FIG. 16A also maintains the modular advantage of the monolithic play center described herein. As seen in FIG. 16A each set of piping 1610, 1620, and 1630 includes an intake end (1611, 1621, 1631) and an output end (1612, 1622, 1632). Monolith 1600 can be removed from one side of the play area and replaced at another area, as described above. To do so, the intake and output ends of piping 1610-1630 are disconnected from the piping system running beneath and throughout the play center. The access panel 1640 may be opened and valves 1642 for each piping set closed during this process. Once the access panel monolith 1600 is reattached to the play center as described above, the intake valves (1611, 1621, 1631) and output valves (1612, 1622, 1632) may be reattached to the piping disposed beneath the play center. The underside piping may be flexible piping to allow the underside piping to be repositioned and attached to the access panel monolith at any side of the play center. In addition to allowing for shutting off water to various water features on the play center, valves 1642 can also be operable to modulate an amount of water being delivered to each water feature. This can be beneficial in numerous ways. For example, an amount or pressure of water being delivered by piping 1610-1630 to a particular water feature may be too high for one or more of the water features. In the case the water pressure is too high a corresponding valve 1642 can be partially closed to reduce the amount of water being delivered to a water feature. This might even be the case all water features are designed to accept the same amount of water but water pressure at one water feature can end up being higher due to its height relative to piping 1610-1630.

FIG. 16B shows a perspective view of an interior facing side of a monolith 1650 taking the form of a guardrail that also incorporates a flow control station. Access panel 1652 is shown removed to illustrate the accessibility removal of access panel 1652 provides to adjust valves 1654. In some embodiments, valves 1654 can take the form of ball valves or gate valves.

FIG. 16C shows a perspective view of an interior facing side of a monolith 1670 that incorporates a flow control station. Monolith 1670 can include a window region 1672 allowing a guest to see outside the play center. Monolith 1670 incorporates a narrow and elongated access panel 1674 that reduces its size and obviousness when compared with the access panels shown in FIGS. 16A-16B, thereby reducing the likelihood of an unauthorized person seeing and being tempted to tamper with it. Access panel 1674 can be removed by taking out fasteners attaching access panel 1674 to a periphery of window region 1672 of monolith 1670. Once access panel 1674 is removed, a maintenance worker can access valves 1676 by inserting a socket wrench into flow control cavity 1678 to manipulate valves 1676. It should be appreciated that valves 1676 are revealed for exemplary purposes only and when monolith 1670 is in installed in an operational configuration an outer facing surface would be covered to obscure their location and the portion of monolith defining flow control cavity 1678 would be located beneath a decking component as will be shown more clearly in subsequent figures and described below. This configuration as depicted also requires a short amount of piping be held within monolith 1670 as the piping is limited primarily to inlets and outlets positioned on opposing ends of a respective valve 1676.

Although the play center shown in FIGS. 1A, 1B, and 13A-14B depicts monoliths (1362, 1366, 1462, 1466, etc.) that are tilted outward from the center of the decking, other arrangements are contemplated. For example, the monoliths may be oriented substantially vertically with respect to the decking, thereby eliminating the need for the corner joint pieces shown in the figures.

Any of a variety of possible fluid dumping or other fluid providing systems may be used in an alternative embodiment. For example, such a system may include a roof or surface configured to carry water from an upper elevation (e.g., adjacent to a tippable element, such as a bucket) to a lower elevation. The roof or surface may be partially translucent and/or shaped in the form of a static, yet curved staircase. Formed or shaped roof or surface examples may include those created by thermoforming, vacuforming and other methods of post-production treatment which integrate a baffled surface (see 720, 1120, 1220). Exemplary materials for the splash roof and shaded roof features include polycarbonate sheets, translucent or transparent FRP, thermoformed polycarbonate. This has an added benefit in that the baffled surface(s) may optimize splash effect and reduce assembly time on site, strengthen and make the structure more durable, and allow for integration of color and texture for improved visual effects. At the lower elevation, any of a variety of shapes or other objects or element may be adjacent to the end of the roof or surface, such as one having features the same as or similar to those previously discussed. In various embodiments, any of a variety of fluid delivering components or fluid sources may be disposed upon or connected with or adjacent a fluid flowing element, such as those previously described, or otherwise connected with the play center (e.g., tippable cones, troughs having drainage holes, etc.) that react to water being disposed therein or thereon.

The play center described herein may be installed on an area that is not completely level (i.e., on a slope, or having different floor heights). Accordingly, maintaining the one inch gap between the ground and the bottom of the lower monoliths (as described in connection with FIGS. 14A and 14B, for example) is difficult with rigid frames, especially on sloped ground. Therefore, there is a need for a solution that allows the gap to be maintained, while also preventing patrons from accessing the space beneath the decking. FIGS. 17A and 17B illustrate an exemplary embodiment that incorporates a skirting that may be used to block the gap.

Because the ground may be sloped, a constant height skirt is not practical. Thus, the skirt must be capable of being custom fit to the needs and geography of the particular installation in which it is used. The invention depicted in FIG. 17A thus contemplates an adjustable skirting 1701 that can be trimmed to suit the ground condition. The skirting may be any suitable material that provides a secure barrier against patron access, while also allowing for adjustment or trimming. As contemplated by the invention, preferred materials may include fiberglass, plastic, or stainless steel.

FIG. 17B shows a cutaway perspective view of the system shown in FIG. 17A. As seen here, the skirting 1701 extends around the entirety of the lower portion of the play center. The skirting is secured via brackets 1702 secured to the underside of the play center and to the ground. In a preferred embodiment, slots 1703 disposed in the brackets 1702 accommodate changes in ground level. Although the embodiment shown in FIG. 17B appears to depict a level installation with a very small clearance between the ground and decking, a person of ordinary skill in the art would understand how the skirting 1701 could be cut to accommodate a sloped or uneven installation area. Likewise, it should be apparent that the sloped or uneven installation area can be accommodated by the use of the slots 1703 and brackets 1702.

FIG. 18A shows a polygonal decking component frame attached to a monopole. In particular polygonal decking component frame 1802 is shown attached to monopole 1804. In some embodiments, polygonal decking component frame 1802 can be attached to monopole 1804 by one or more brackets welded to an exterior of monopole 1804. FIG. 18A also shows how monopole 1804 includes a port that is attached to a manifold 1806 that supplies water to piping 1808 that delivers waters to valves 1676 incorporated into monolith 1670, which was previously described in the text accompanying FIG. 16C. Polygonal decking component frame includes additional piping 1810 that is configured to deliver water passing through valves 1676 to various water features supported by polygonal decking component frame 1802 and monopole 1804.

FIG. 18B shows a monolith 1670 attached to one side of polygonal decking component frame 1802. Attachment of monolith 1670 to polygonal decking component frame in this manner positions valves 1676 below a walking surface defined by decking placed atop polygonal decking frame 1802 and provides easy access for attaching piping 1808 to valves 1676. It should be noted that while monolith 1676 is shown attached to a side of polygonal decking frame closest to manifold 1806 that by increasing a length of piping 1808 monolith 1670 could be positioned on any side of polygonal decking component frame 1802. FIG. 18B also includes a close up view 1812 of valves 1676 showing that each includes a lever 1814 and an actuation member 1816 that can be twisted when valves 1676 are being adjusted using a socket wrench inserted through the opening revealed when access panel 1674 is removed. In some embodiments, the valves could include only actuation member 1816 as this would be the standard way of fine tuning the valve settings by maintenance personnel. By locating the valves 1676 in line of sight view to the various wet features of the play center a technician trying to fine tune flow to the various wet features can often tell visually when a proper amount of flow has been allocated to a particular wet feature.

FIG. 18C shows a perspective view of polygonal decking component frame 1802 and illustrates in greater detail how polygonal decking component frame 1802 is secured to monopole 1804. In particular, FIG. 18C more clearly shows brackets 1818 protruding radially from monopole 1804. Brackets 1818 would often be attached to monopole 1804 via a welding process. Decking support arms 1820 can extend at a 30-60 degree angle from brackets 1818 to an underside of polygonal decking component frame 1802 to help support weight carried by polygonal decking component frame 1802. FIG. 18C also shows how monolith frame 1820 can be attached to polygonal decking component frame 1802 using multiple fasteners 1822 that extend through fastener openings in monolith frame 1820 to secure monolith frame 1820 to one side of polygonal decking component frame 1802. Because monolith frame 1820 shares a common hole pattern with hole patterns arranged on each side of polygonal decking component frame 1802 it can be attached to any side of polygonal decking component frame 1802.

FIG. 19 shows a polygonal decking component 1900 with a hexagonal configuration. Polygonal decking component 1900 includes component frame 1902 covered by decking layer 1904. Both polygonal decking component frame 1902 and decking layer 1904 include a central opening 1906 to accommodate the passage of a monopole (not shown in FIG. 19). While decking layer 1904 is shown being formed from two different pieces it should be appreciated that decking layer can also be formed by an even larger number of sections or by a single piece decking layer. In some embodiments decking layer 1904 can include a removable central section configured to hide opening 1906 in configurations in which a monopole does not protrude and continue through polygonal decking component 1902. For example, the removable central section can be bolted to a polygonal decking component frame and can be removed by removing the bolts, thereby allowing for straightforward removal for configuring it for use with a standpipe extending through the polygonal decking component.

Decking layer can be formed of a sheet of fiberglass reinforced plastic (FRP). Because each side of polygonal decking component 1900 has the same width and a consistent fastener attachment point pattern, polygonal decking component 1900 can attach to any number of other different component types. FIG. 19 shows the following four different attachable components: a stairs component 1908; a window component 1910; a slide entry component 1912 and a polygonal decking component 1914. Stairs component 1908 is illustrated with four stairs but any number of stairs could be included and would be considered within the scope of the invention. Polygonal decking component 1914 can share similar features with polygonal decking component 1900. For example, while polygonal decking component 1914 is square its sides can be the same width as the sides of polygonal decking component 1900 thereby allowing for interchangeable attachment and consistent alignment of parts.

FIG. 20A-20F show various configurations where a play center is supported by a single monopole responsible for supporting the decking components and any guests as well as supplying fluid to the wet elements associated with the play center. FIG. 20A shows a play center 2000 supported by a monopole 2002. Base 2004 is responsible for providing lateral stability to monopole 2004. Base 2004 can also be configured to provide access to a water inlet for providing water to feed monopole 2004. Polygonal decking component 2006 is mounted to a top end of monopole 2002. In some embodiments polygonal decking component 2006 can include a polygonal decking component frame attached to monopole 2002 in a similar way to the attachment method shown in FIG. 18C. While polygonal decking component 2006 has a hexagonal shape it should be appreciated that a triangular, rectangular, pentagonal or other polygonal geometry would also be possible with this configuration.

FIG. 20B shows a stacked platform play center 2020 that includes a first polygonal decking component 2022 arranged at a distal end of monopole 2024 and a second polygonal decking component 2026 arranged near a base of monopole 2024. While two polygonal decking components with hexagonal geometries are shown again other shapes are possible and considered to be within the scope of the described invention. FIG. 20C shows a configuration where a first polygonal decking component 2042 is positioned part of the way up monopole 2044. A set of trapezoidal petals 2046 is attached near a distal end of monopole 2044. In some embodiments, trapezoidal pedals 2046 can take the form of a shading element and/or in some embodiments can also include one or more water features fed by a port located near the distal end of monopole 2044 that allows for a mist or set of waterfalls to be released upon guests standing atop polygonal decking component 2042. FIG. 20D shows another play center 2060 that includes a polygonal decking component 2062 near a base of monopole 2064 and a wet element taking the form of a tipping bucket component 2066 attached to a distal end of monopole 2064.

FIG. 20E shows a portion of another play center 2080 supported by a monopole 2082. In particular, play center 2080 includes multiple polygonal decking components 2084 joined together by multiple stairs components 2086 in a manner such that the joined components form a path that wraps around monopole 2082. A more conventional spiral staircase suffers from having a varying step depth where stair depth is wider toward the outside and narrower toward the inside of the stairway. This can result in users tripping and falling occasionally. In addition to being a modular system the depicted configuration does not suffer from this design issue as each set of stairs is uniform in depth and height, allowing for a consistent user experience. Stairs components 2086 and polygonal decking components 2084 can be joined together using nuts and bolts that take advantage of common hole patterns located on each of stairs components 2086 and polygonal decking components 2084. Attaching monoliths 2088 that take the form of guard rails can help improve safety of place center 2080. Play center 2080 can be supported by one or more support arms 2090 that extend from monopole 2082 and are secured to one or more polygonal decking components 2084 to provide firm support for multiple guests concurrently. In some embodiments, one or more wet elements can be affixed to play center 2080. Water from monopole 2082 can be used to feed wet elements such as sprayers or mist generators to cool guests while waiting in line and/or to allow for some element of excitement.

In some embodiments, a manifold can be attached as previously shown in FIG. 18A to a port on monopole 2082 in order to run lines to multiple wet elements located on play center 2080. These lines could be attached to and follow support arm(s) 2090 in order to be securely routed from monopole 2082 to one or polygonal decking components 2084. It should also be noted that while only triangular polygonal decking components 2084 are shown that a staircase could have a mix of polygonal decking components (that can include triangular and square polygonal decking components) in the event the stair case was meant to twist around two adjacent monopoles for example. For example, this would result in a mix of twisting and straight portions of an exemplary play center.

FIG. 20F shows another twisting stair configuration using a triangular polygonal decking component 2092 to alter a direction of travel between stairs components 2094 and 2096. FIG. 20F also illustrates how stairs component 2096 can hook into a hexagonal polygonal decking component 2098 to provide guests using stairs components 2094 and 2096 access to elevated polygonal decking component 2098.

FIG. 21A-21C show various configurations of three polygonal decking components coupled together in different ways. FIG. 21A, shows how polygonal decking components 2102-2106 can be attached in a manner so upward-facing surfaces of polygonal decking components 2102-2106 are flush and provide an easy walking surface for guests. FIG. 21B shows how polygonal decking component 2106 can be vertically offset below polygonal decking components 2102 and 2104. This can be achieved by the complementary hole patterns located on each of polygonal decking components 2102-2106 allowing for multiple vertical positions. For example, in a decking component in which four fasteners are used to secure decking components together vertical offsets could be enabled by a hole pattern that included at least six fastener opening arranged in two parallel rows. FIG. 21C shows a use case in which all three polygonal decking components 2102-2106 are vertically offset from one another to form a gradual upslope for an associated play center. In some embodiments, a vertical offset can be between five and twelve inches depending on a size and intended purpose of a particular polygonal decking component. Some configurations can also have more than one vertical offset possibility to improve the flexibility of the polygonal decking components for play center designers.

FIGS. 22A-22F show exemplary play centers supported by two or more monopoles. In particular, FIG. 22A shows a two monopole configuration 2200 in which polygonal decking components 2202 and 2204 having a hexagonal shape are disposed atop each of monopoles 2206 and 2208 as previously described in FIG. 20A. Polygonal decking components 2202 and 2204 are joined together by polygonal decking component 2210, which has a rectangular or square shape. This allows guests to easily move back and forth between polygonal decking components 2202 and 2204.

FIG. 22B shows a three monopole configuration 2220 in which polygonal decking components are attached to and vertically offset from one another. Monopoles 2222 and 2224 support polygonal decking components 2226 and 2228. Central monopole 2230 supports polygonal decking component 2232 having a triangular shape. In this configuration, changes in elevation are achieved through a combined use of vertically offset polygonal decking components and stairs component 2234.

FIGS. 22C-22D show play center configurations 2240 and 2260 where polygonal decking components set at different heights above the ground can be joined together by a bridge using multiple polygonal decking components. In FIG. 22C polygonal decking components 2242 and 2244 are joined together by a bridge section 2246 formed of three different polygonal decking components. In FIG. 22D polygonal decking components 2262 and 2264 are joined together by an inclined bridge section 2266 formed of three different polygonal decking components, where each of the three is vertically inclined with respect to the others to provide a gradual inclined geometry.

FIG. 22E shows a play center 2280 having two adjacent and vertically offset polygonal decking components 2282 and 2284 joined together by a stairs component 2286. FIG. 22F shows a play center 2290 that includes two stairs components 2292 and 2294 arranged in a parallel configuration and joined by polygonal decking components 2296 having a square geometry.

Although specific illustrations and embodiments have been discussed throughout, any of a variety of possible combinations and/or standalone elements may be used in alternative embodiments. Moreover, water dumping systems and/or components, and/or other elements or features of play centers discussed throughout the same as or similar to those discussed throughout may have their operation or capabilities varied based upon a number of further options or characteristics (e.g., time of day, user input, randomized, etc.). For example, if a play center is intended to have users below a certain age playing thereon between certain hours of the day, a dumping mechanism may be configured to fill and/or dump a reduced volume of water, in recognition of the fact that smaller children may be participating thereon at such hours. In such a fashion, features and/or the experience of an attraction may change or be modified (e.g., automatically and/or manually by an attraction operator) in accordance with such possible inputs. In another example, an attraction may sense and/or determine a number of current participants and/or a number of current participants within a particular area and vary one or more features in response thereto (e.g., lower an amount of water dumped if the number of participants in the attraction and/or within a particular area of the attraction is below a certain threshold). Any of a variety of possible outcomes and/or operation may be varied or customized based upon a variety of possible inputs in alternative embodiments.

In certain embodiments, water that is dumped and/or otherwise provided from an element of a play center may be configured to be recirculated and/or recycled and/or re-used back to such element, or another element. For example, if a dumping element causes water to be dumped onto a surface (e.g., a flooring or ground level) of a play center, such flooring may include drains, slots, and/or otherwise contain porous features or drainage lines that allow such water to be collected in a reservoir (e.g., positioned beneath the play center, such as beneath a flooring that the play center is connected with). One large, common reservoir may be used and/or multiple reservoirs may be used in alternative embodiments. Various pumps and/or piping and/or other fluid recirculating elements may be used to bring water from the reservoir(s) back to one or more elements of the play center.

As discussed, any of a variety of play centers (e.g., modular in nature) may be constructed in any of a variety of possible configurations and using any of a variety of possible traversal structures, such as slides or walkways, using the features described. Due to the connectible and manipulatable nature of monoliths and their connection with deckings and/or ground or other surfaces that may be placed in a variety of positions and/or orientations, and associated deckings that may attach to the monoliths, an easily configuration or modular play center may be created with a variety of desired orientations. Non-interactive structures that not for user traversal may also be created using the concepts discussed, such as an overhead structure containing colorful transparent, semi-transparent, or non-transparent materials that thereby filter overhead lighting (or block lighting to provide shade) from lamps or the sun for user enjoyment).

The previous description of the disclosed examples is provided to enable any person of ordinary skill in the art to make or use the disclosed methods and apparatus. Various modifications to these examples will be readily apparent to those skilled in the art, and the principles defined herein may be applied to other examples without departing from the spirit or scope of the disclosed method and apparatus. The described embodiments are to be considered in all respects only as illustrative and not restrictive and the scope of the invention is, therefore, indicated by the appended claims rather than by the foregoing description. All changes which come within the meaning and range of equivalency of the claims are to be embraced within their scope. Skilled artisans may implement the described functionality in varying ways for each particular application, but such implementation decisions should not be interpreted as causing a departure from the scope of the disclosed apparatus and methods. The steps of the method or algorithm may also be performed in an alternate order from those provided in the examples.

Claims

1. A play center, comprising: a monopole configured to distribute fluid to the play center; anda plurality of polygonal decking components elevated above the ground, the plurality of polygonal decking components comprising: a first polygonal decking component having a first plurality of sides; anda second polygonal decking component coupled to the first polygonal decking component and having a second plurality of sides different from the first plurality of sideswherein the plurality of polygonal decking components are supported above the ground at least in part by the monopole and wherein two or more sides of the first plurality of sides have a first width that matches a second width of two or more sides of the second plurality of sides.

2. The play center of claim 1, further comprising a plurality of monoliths, wherein a first one of the plurality of monoliths is attached to one of the two or more sides of the first plurality of sides and a second one of the plurality of monoliths is attached to one of the two or more sides of the second plurality of sides.

3. The play center of claim 2, wherein a first one of the plurality of monoliths is a guardrail and a second one of the plurality of monoliths is a slide entry component.

4. The play center of claim 1, further comprising a stairs component, wherein a first end of the stairs component is coupled directly the first polygonal decking component and a second end of the stairs component is coupled directly to the second polygonal decking component.

5. The play center of claim 4, further comprising a second stairs component and a third polygonal decking component, wherein a first end of the second stairs component is coupled directly to the third polygonal decking component and a second end of the second stairs component is coupled directly to the second polygonal decking component.

6. The play center of claim 5, wherein a portion of the play center that includes the first, second and third polygonal decking structures wraps at least partially around the monopole to form a twisting staircase.

7. The play center of claim 1, wherein the first polygonal decking component is coupled directly to the second polygonal decking component and wherein a first upward facing surface of a first decking layer of the first polygonal decking component is vertically offset from a second upward facing surface of a second decking layer of the second polygonal decking component.

8. The play center of claim 1, wherein a first one of the two or more sides of the first plurality of sides of the first polygonal decking component is coupled directly to a second one of the two or more sides of the second plurality of sides of the second polygonal decking component.

9. The play center of claim 2, further comprising a plurality of wet elements distributed across the play center, wherein the first one of the plurality of monoliths comprises a plurality of valves allowing for adjustment of a rate of flow of water from the monopole to two or more of the plurality of wet elements.

10. The play center of claim 9, wherein the two or more of the plurality of wet elements are in line of sight view from the first one of the plurality of monoliths.

11. The play center of claim 10, wherein a wet element of the two or more of the plurality of wet elements is a sprayer.

12. The play center of claim 9, further comprising a manifold attached to a port protruding from the monopole that is configured to provide pressurized water to the manifold, wherein the manifold is attached to a first length of piping extending between the manifold and a first valve of the plurality of valves and also attached to a second length of piping extending between the manifold and a second valve of the plurality of valves.

13. The play center of claim 12, wherein the first one of the plurality of monoliths comprises an access panel allowing for the plurality of access valves to be independently adjusted to fine tune water flow to particular ones of the plurality of wet elements.

14. The play center of claim 2, further comprising a plurality of wet elements distributed across the play center, wherein the first polygonal decking component comprises a plurality of valves allowing for adjustment of a rate of flow of water from the monopole to two or more of the plurality of wet elements and wherein the first polygonal decking component includes an access panel allowing access to the plurality of valves.

15. The play center of claim 2, wherein the first of the plurality of monoliths includes a first wet element that is interchangeable with a second wet element that is included with the second of the plurality of monoliths.

16. A play center comprising: a monopole configured to distribute fluid to the play center; anda plurality of polygonal decking components, comprising: a first polygonal decking component having a first plurality of sides; anda second polygonal decking component coupled directly to the first polygonal decking component and having a second plurality of sides different from the first plurality of sideswherein the plurality of polygonal decking components are supported above the ground at least in part by the monopole and wherein the sides of the first plurality of sides have a first width that matches a second width of the sides of the second plurality of sides.

17. The play center of claim 16, further comprising a plurality of monoliths, wherein a first one of the plurality of monoliths is attached to one of the sides of the first plurality of sides and a second one of the plurality of monoliths is attached to one side of the second plurality of sides.

18. The play center of claim 17, further comprising a plurality of wet elements distributed across the play center, wherein the first one of the plurality of monoliths comprises a plurality of valves allowing for adjustment of a rate of flow of water from the monopole to two or more of the plurality of wet elements.

19. The play center of claim 18, further comprising a manifold attached to a port protruding from the monopole that is configured to provide pressurized water to the manifold, wherein the manifold is attached to a first length of piping extending between the manifold and a first valve of the plurality of valves and also attached to a second length of piping extending between the manifold and a second valve of the plurality of valves.

20. The play center of claim 19, wherein the first one of the plurality of monoliths comprises an access panel allowing for the plurality of access valves to be independently adjusted to fine tune water flow to particular ones of the plurality of wet elements.