Patent Grant
12129101
The present disclosure relates generally to beverage insulators and party games, and more specifically to multi-insulator assemblies and party games.
Of the beverage insulation methods, not many are built in a way where the unit itself can support multiple beverage container sizes without modification to the device or even at all. Many beverage insulators are also large and not compact because they are made of metal and cannot be reduced to a smaller size. These factors limit the number of beverage insulators that can fit within a volume of space (e.g., a vehicle or a bag) and limit the range of beverage containers that fit inside the insulator.
In many instances where beverage insulators may be used, such as parties and gatherings, guests engage in games, such as tabletop games and yard games. Yard games often require additional equipment that must be brought to the party and collected at the end of the party. Tabletop games often require additional equipment or make use of existing materials, such as cups. In such cases, it is not uncommon for individuals to play tabletop games with the same cups from which they are drinking, which can often lead to unsanitary conditions. For example, the drinking game known as “flip cup” traditionally involves an individual drinking from a cup and then placing that same cup upside-down on a table and repeatedly attempting to flip it right side up. Not only does this action result in leftover beverage spilling onto the table, but also puts the rim of the cup in direct contact with the table, which may increase the risk of spreading infectious diseases.
There is a need for apparatuses and methods that cure these and other deficiencies.
In one aspect, a collapsible beverage insulator, includes a first end having a first opening, a second end having a second opening, a sidewall coupling the first end and the second end, the first end, the second end, and the sidewall defining an interior volume, the sidewall including at least one collapsible zone being moveable between a collapsed state and an expanded state, where movement of the at least one collapsible zone from the expanded state to the collapsed state decreases a volume of the interior volume.
In one aspect, a method of using a collapsible beverage insulator, includes providing a collapsible beverage insulator having a first end coupled to a second end by a sidewall, the first end having a first opening, the second end having a second opening, and the sidewall having at least one collapsible zone, placing a beverage at least partially within the collapsible beverage insulator to provide insulation between the beverage and an exterior environment, removing the beverage from the collapsible beverage insulator, employing the collapsible beverage insulator to play a game, where employing the collapsible beverage insulator to play a game includes moving the at least one collapsible zone between a collapsed state and an expanded state.
To easily identify the discussion of any particular element or act, the most significant digit or digits in a reference number refer to the figure number in which that element is first introduced.
Certain aspects and features of the present disclosure relate to a collapsible beverage insulator and methods of using the same. The collapsible beverage insulator can have one or more collapsible zones, each of which can move between a collapsed state and an expanded state, optionally including partially collapsed states in-between. The collapsible beverage insulator can have a first end with a first opening sized to receive common beverage containers. The collapsible zones can be manipulated to fit the collapsible beverage insulator to the beverage container being used. The collapsible beverage insulator can be separated from the beverage container to be used in games (e.g., tabletop or lawn games). The collapsible beverage insulator can be tossed and the way the collapsible beverage insulator lands (e.g., on an end, on a particular end, or on its side) and how the collapsible zones collapse can be used to determine points to be awarded to the player. The collapsible beverage insulator can include markings to facilitate certain gameplay, including indicators associated with different collapsible zones and hidden designs that are only readily visible when an associated collapsible zone is not in a collapsed state.
Certain aspects of the present disclosure relate to collapsible beverage insulators and methods of using the for tabletop and/or yard games that combine elements of strategy, skill, and excitement. Certain aspects of the present disclosure enable fun games that can be played by multiple players and in different versions. Such games can provide new and exciting challenges for tabletop and yard game enthusiasts.
Certain aspects of the present disclosure enable variations of games that make use of a collapsible beverage insulator that can be tossed into the air or otherwise maneuvered to cause the collapsible beverage insulator to land on a surface. As used herein, the term “toss” is intended to be inclusive of throwing, flipping, and dropping. As the collapsible beverage insulator lands, the force of landing can cause one or more collapsible zones (e.g., collapsible ribs) to collapse (e.g., partially or fully) depending on how high the collapsible beverage insulator was tossed and the position in which it lands. Players can earn points based on how and/or where the collapsible beverage insulator lands, as well as how the one or more collapsible zones collapse. For example, landing on a first end may award a player a point, with additional points awarded for each collapsible zone that collapses upon landing. In some cases, points and scoring can be reflected using a game board and/or score board. In some cases, players can race to achieve a set number of points and/or for a score token to reach a desired end zone. In some cases, a projectile can be used in combination with the collapsible beverage insulator allowing the projectile to be temporarily fit into the collapsible beverage insulator until one or more collapsible zones collapse, causing the projectile to be shot out of the collapsible beverage insulator. In some cases, such a projectile can be used for scoring or other gameplay.
As used herein, the term insulator, such as used with reference to a collapsible beverage insulator, can also be denoted a “caddy” or “sleeve.” Generally, a collapsible beverage insulator refers to a device used to both insulate a beverage (e.g., directly insulate and contain a beverage or insulate a beverage container) and play tabletop and/or yard games. As used herein, insulating a beverage need not fully insulate the beverage, such as how a traditional koozie may provide insulation to only the walls and bottom surface of a beverage can. A collapsible beverage insulator is generally a tube that is cylindrical, hourglass, or spherical in shape, although other shapes and/or combinations of shapes can be used. Generally a collapsible beverage insulator includes one or more collapsible zones (e.g., collapsible bellows) and one or more ends with openings (e.g., flanged flat gasket ends).
While various aspects and features of the present disclosure relate to a collapsible beverage insulator capable of playing certain tabletop and/or yard games as disclosed herein, in some cases, where appropriate, a collapsible sleeve can be used in place of a collapsible beverage insulator, in which case the collapsible sleeve may provide little or no insulation to a beverage. In other words, wherever used herein, as appropriate (e.g., where beverage insulation is not necessary or not desired), a collapsible beverage insulator can be replaced with a collapsible sleeve. Such a collapsible sleeve can also be referred to as a collapsible game piece or a collapsible game sleeve.
As used herein, the term collapsible zone can refer to a region of the collapsible beverage insulator that is able to move between an expanded state and a collapsed state, optionally including one or more partially collapsed states in-between. The collapsible zone can include segments that act as inner or outer joints that allow the sidewall of the collapsible beverage insulator to collapse. In some cases, such segments can be referred to as “bellows” or “ribs.” These segments can collapse on top of or within each other to move the collapsible zone into a collapsed state. A collapsible zone can be made from any suitable material, including the same material as the remainder of the sidewall In some cases, the collapsible zone is made from an elastomeric material, such as silicone. In some cases, at least portions of the collapsible zone (e.g., joints between adjacent segments) can be made of an elastomeric material.
As used herein, the term “spool” can refer to a secondary device generally having the shape of a spool (e.g., a wire spool) that can be inserted into an opening at an end of the collapsible beverage insulator. The spool can be used to partially or fully seal the opening, such as to permit air pressure to build within the collapsible beverage insulator when an opposite opening is occluded by an object (e.g., a projectile) and one or more collapsible zones collapse. For example, if the collapsible beverage insulator is used on a landing surface that is not smooth, use of a spool can help ensure a projectile fit to the collapsible beverage insulator is expelled as expected when a collapsible zone collapses. In cases where the landing surface is smooth, a spool may not be necessary, as the end of the collapsible beverage insulator may create a sufficient seal to allow pressure to build within the collapsible beverage insulator to expel the projectile. The spool can be held in the collapsible beverage insulator by an opening, and can optionally move freely in an axial direction with minimal pressure to let air in and out. When landing on a surface, one of the flanges of the spool can press up against the end of the collapsible beverage insulator to create an airtight seal, in turn pushing the projectile out of the other end. In some cases, an external face of a spool may be shaped in the form of a suction cup. The use of such a suction base can aid in landing the collapsible beverage insulator on its end and/or can aid in keeping the collapsible beverage insulator in an upright and steady position when used to insulate beverage containers. In some cases, a spool may have first and second flanges separated by a spool body, allowing two collapsible beverage insulators to be connected end-to-end to the same spool, thus axially coupling two collapsible beverage insulators together. In some cases, the aforementioned features of a spool, as appropriate, can be used instead with an alternate attachment mechanism instead of a spool. For example, an axial coupler can connect to a collapsible beverage insulator using a threaded connection, a snap fit connection, or the like.
As used herein, the term “projectile” can include a ball, a spherical object, a cubic object, r any other shaped object that can generally fit within an opening of an end of the collapsible beverage insulator to create an airtight or substantially airtight seal. The projectile can match the diameter and shape of an opening in an end of the collapsible beverage insulator. The projectile may optionally include small ribs, rings, indentations, or other features to help retain the object in place within the opening of the collapsible beverage insulator. The projectile can create an airtight (or sufficiently airtight) seal between the collapsible beverage insulator's internal volume and an exterior environment. Then, when air pressure within the internal volume of the collapsible beverage insulator increases past a threshold value (e.g., by collapsing one or more collapsible zones), the projectile can by expelled (e.g., shot out) from the collapsible beverage insulator. Examples of suitable projectiles include balls, ping pong balls, golf balls, cubes, dice, and the like. In an example, a die can be expelled from a collapsible beverage insulator and, upon coming to rest, can be read as a traditional hand-thrown die.
According to certain aspects of the present disclosure, the collapsible beverage insulator uses collapsible and expandable side walls (e.g., like an accordion) between flanged ends to let the collapsible beverage insulator collapse in a compact manner or expand to fit various size beverages using an airtight seal and may also be used for games. Certain aspects and features of the present disclosure relate to a sleeve with collapsible side walls and at least one flanged end, and can be used for games without necessarily being used as a beverage insulator.
Connection/Modular Insulation
The need to insulate beverages is very common and is generally done using single can beverage insulators or large coolers. Coolers can be cumbersome to insulate multiple drinks, and an individual insulator does not insulate multiple drinks. In some cases, a “beer sleeve” can be used, where cans are stacked on top of each other in a long sleeve used for insulation. The issue with such a product, however, is that once a beverage is removed for consumption, another product is needed to insulate the removed beverage, and the now-empty space within the “beer sleeve” can interfere with the insulation of the remaining beverages.
However, certain aspects and features of the present disclosure enable multiple collapsible beverage insulators to be axially connected to create a larger sleeve (e.g., a multi-insulator assembly) for insulating multiple beverages at once in a modular manner. In such embodiments, a user can simply remove a single collapsible beverage insulator from the larger sleeve to enjoy a beverage, thus leaving the removed beverage insulated in the removed collapsible beverage insulator and leaving the remaining beverages insulated in their respective collapsible beverage insulators. Collapsible beverage insulators can act as modular building blocks to create larger sleeves of any suitable size. In some cases, one or more end caps or couplers can be axially coupled to a collapsible beverage insulator or between collapsible beverage insulators and can include a sling, handle, or other similar element to facilitate carrying the larger sleeve.
Game in Hand
Many games played while drinking beverages socially are large or have many pieces to a set, such as corn hole, spike ball, or beer pong. Many of these games also result in unsanitary use of cups when playing games, such as “flip cup.”
However, certain aspects and features of the present disclosure enable enjoyable games to be played using the same collapsible beverage insulators used to keep beverages insulated. Thus, players can either use the collapsible beverage insulator from their own beverage or a collection of similar or identical collapsible beverage insulators can be provided to be used in games or as beverage insulators. In an example, when a player desires to play a game (e.g., when starting a game or when it is the player's turn), the player can simply slide the collapsible beverage insulator off the beverage container and use it to play against others in simple, yet adrenaline rushing games of tossing the collapsible beverage insulator in an attempt to land it in a fashion that would gain the player points (e.g., landing on a particular end, tossing sufficiently high to collapse multiple collapsible zones, and/or tossing sufficiently high to eject a projectile). In some cases, additional gaming elements, such as projectiles, game targets, score boards, and the like can be used to expand gameplay. In some cases, such additional gaming elements can be coupled to one or more collapsible beverage insulators when not in use (e.g., one or more projectiles, game board, game targets, score tokens, and the like may fit within an empty collapsible beverage insulator, such as one coupled to one or more collapsible beverage insulators insulating beverage containers).
Universal Beverage Insulator
Certain aspects and features of the present disclosure include a collapsible beverage insulator that is able to conform to different size beverages using at least one, and preferably multiple, collapsible zones and optionally flanged ends to create an airtight seal. In some cases, the entire collapsible beverage insulator or at least portions thereof can be made from an elastomeric insulating material, such as silicone or rubber, which can provide good insulation to beverages within the collapsible beverage insulator and can facilitate collapsing of collapsible zones. Other materials can be used. In some cases, the collapsible beverage insulator is formed monolithically, although that need not always be the case.
The shape of the collapsible beverage insulator is designed to collapse and expand to give the user a variety of options of air insulation across a beverage container. Since many beverage containers differ in size, traditionally a user would have different insulation sleeves for different beverage types (e.g., a standard beverage can, a slim can, a tall can, a bottle, and the like). However, certain aspects and features of the present disclosure provide a collapsible beverage insulator that can be expanded or collapsed by the user to make it taller or shorter to fit the different beverage containers. Further, the flanged ends (e.g., the ends of the collapsible beverage insulator having openings therein) being made of an elastomeric material can flex and stretch to accommodate different circumferences of containers.
Additionally, since the user is able to pick and choose which collapsible zones to expand or collapse, the user can adjust the center of gravity of the collapsible beverage insulator as desired. For example, if the user wanted to have more weight near the bottom of the beverage container, they could collapse collapsible zones near the bottom of the collapsible beverage insulator, which may beneficially make the collapsible beverage insulator more stable when resting on a surface. A user may instead choose to collapse different collapsible zones to more evenly distribute weight of the collapsible beverage insulator or for other reasons.
Additionally, a user may selectively collapse or expand different collapsible zones as a way to distinguish their collapsible beverage insulator from those of others. For example, for a collapsible beverage insulator having four collapsible zones, a total of sixteen different unique combinations of collapsed collapsible zones exist, allowing for sixteen different users to distinguish their collapsible beverage insulator based solely on collapsed collapsible zones. In some cases, additional distinguishing features can be used to further expand the number of unique combinations, such as color of collapsible beverage insulator, type of beverage in collapsible beverage insulator, additional elements coupled to the collapsible beverage insulator (e.g., a suction base), and the like.
Additionally, the ability for collapsible beverage insulators to fully collapse allows a large quantity of collapsible beverage insulators to occupy less space than they otherwise would, which can be especially desirable in various situations, such as occupying less room in a backpack or vehicle, or otherwise facilitating transport or storage of larger quantities of collapsible beverage insulators.
When used as an insulator, the collapsible beverage insulator can be collapsed as necessary to fit the height of the beverage container within. A first or top end of the collapsible beverage insulator can include a top or first opening through which the beverage container may be inserted into the collapsible beverage insulator. This first end can be made of an elastomeric material, thus flexing and stretching to fit the circumference of the beverage container. The second or bottom end can be with or without an opening (e.g., a second or bottom opening). When the second end includes a second opening, the second end can be shaped to engage a lower surface of the beverage container. In some cases, the second end can include a lip that extends into the collapsible beverage insulator to engage the lower concave surface of certain beverage containers (e.g., beverage cans). Thus, the collapsible beverage insulator is able to create an airtight seal or substantially airtight seal around the beverage container, thus trapping the volume of air adjacent the walls of the beverage container. The same way double pane windows are used in houses for insulation, this trapped volume of air acts to more efficiently insulate the beverage container by reducing heat loss due to convection. In some optional cases, one or more flanges can extend from the sidewall of the collapsible beverage insulator to contact the wall of the beverage container, such as at or between collapsible zones. These flanges can create airtight or substantially airtight seals, which can further reduce heat loss due to convection by separating the trapped volume of air between the collapsible beverage insulator and the beverage container into multiple component volumes of trapped air that are not in fluid communication (or have no substantial fluid communication) with one another. In some cases, the user can potentially push some air out and use the ends of the collapsible beverage insulator to create a negative pressure of insulation, which can further improve insulation.
In some embodiments, the collapsible beverage insulator may include an annular space (e.g., an annular space between an outer portion of the sidewall and an inner portion of the sidewall). This annular space can be filled in any suitable fashion, such as with a liquid, a gas, a fluid, a solid, or a vacuum. In some cases, the annular space can be filled to improve insulation. In some cases, the material (e.g., liquid, such as water) in the annular space can be heated or cooled to help keep the beverage hot or cold, respectively, for a longer amount of time. In some cases, the annular space can be filled with a weighted material (e.g., a liquid) to affect the weight and rotation of the collapsible beverage insulator when tossed or otherwise manipulated when playing a game with the collapsible beverage insulator. In some cases, material (e.g., water) in the annular space can be frozen, allowing it to melt over time, which can be used as an element of a game. In some cases, the annular space includes one or more sealable openings to permit access to the annular space, such as to add or remove filling material.
In some cases, the inner surface of the collapsible beverage insulator, such as at least the inner surface of the sidewall, can be made of or can include a reflective layer, which can provide additional insulation.
Devices Used for Games that May or May not Insulate Beverages
When the collapsible beverage insulator is separated from a beverage container, it can be used to flip/toss and potentially land on one end indicating a point or negative point for the person flipping/tossing the sleeve against other players.
The ability to collapse collapsible zones and have them remain collapsed until a user pulls the ends apart to expand the collapsed collapsible zones can improve the ability for a collapsible beverage insulator to land in a stable fashion when playing games. For example, when the collapsible beverage insulator is tossed and lands on a surface, energy that might otherwise have caused the collapsible beverage insulator to tip over or bounce away from the surface would instead cause one or more collapsible zones to collapse. This function also helps define point scoring and when landing, as the extent to which the collapsible zones are collapsed can be used to assign a score or otherwise affect gameplay. This type of collapsible zone that can remain collapsed is thus different than an elastic zone that can be compressed but will bounce back to its original shape. In some cases, a collapsible zone that remains collapsed until external force (e.g., a user pulling on the ends of the collapsible beverage insulator) is applied to expand the collapsible zone can be referred to as a retaining collapsible zone, whereas a temporarily collapsible zone that will revert to an expanded state without application of external force can be referred to as a reverting collapsible zone.
In some embodiments, reverting collapsible zones can be used. In such cases, the reverting collapsible zones can allow a collapsible beverage insulator to shoot projectiles upon landing as the collapsible zone collapses, even if the reverting collapsible zone does not remain collapsed after the projectile is expelled.
In some embodiments, the collapsible beverage insulator can include identifying marks (e.g., indicators or designs) on or near the various collapsible zones to help a user identify which collapsible zones have been collapsed. The indicator can be any suitable mark, such as a number, a letter, a shape, a color, or another identifying mark. The indicator can be placed on the valley or outer portion of the collapsible zone to indicate which collapsible zones have or have not collapsed. In some cases, certain indicators or designs can be placed on segments of the collapsible zone that are hidden when the collapsible zone is collapsed. These indicators or designs that become hidden when the collapsible zone is collapsed can be referred to as hidable design elements. In some case, such hidable design elements can be used in some games to help a user identify a variable number of points earned when playing games and collapsing. The user may pick a top or a bottom number that is exposed to identify a number of points, or may choose to add, multiply, divide, etc. to calculate a score. There may also be differing marks on the same collapsible zone to identify a different point meaning depending on which end lands facing up. When another mark is on the same collapsible zone, it can be useful for that mark to have a natural orientation to an end, so the user is able to distinguish it from another. For example, if the collapsible beverage insulator has numbers on each of the collapsible zones that start with 1 through 5 from the bottom to the top, and on the other side, there is a set of numbers on the same collapsible zones that start with 5 through 1 from the bottom to the top, the orientation of the numbers would look upside down to one another depending on whether the top of the collapsible beverage insulator is up or not. Flipping one set of numbers and adding an underline mark would help a user to reference the number that is upright instead of the number that is upside down. To help with this orientation of reading and interpreting, the mark may use arrows, an underline, or other common marks.
In some cases, hidable design elements or indicators can be used, optionally along with non-hidable design elements or indicators. Depending on which, if any, of the collapsible zones are collapsed, a number of possible combinations exist for any design elements or indicators remaining visible. In some cases, the particular combination remaining visible can inform a player how to take an action or generate a score.
In an example, a collapsible beverage insulator may have the indicators “1”, “2”, “3”, “4”, “5”, “6”, and “7” located at various places on the sidewall, including segments of collapsible zones. All indicators may be visible while all collapsible zones are expanded. The game may proceed by players tossing their collapsible beverage insulators with the goal of collapsing as many collapsible zones as possible while still landing on an end. If a collapsible beverage insulator lands on its side, the player may get no points. If the collapsible beverage insulator lands on its end, the player may receive 10 points for landing on an end, but then remove points based on the sum of the indicators remaining visible. The more collapsible zones that are collapsed, the fewer indicators will remain visible. In this example, a player may toss their collapsible beverage insulator such that it lands on its end and collapses a number of collapsible zones, leaving only the indicators “1” and “2” visible. This player would score 7 points (10 minus 3). In other examples, the indicators can be combined to spell words, spell sentences, or otherwise form logical combinations.
In another example, the indicators can be words, symbols, or phrases instructing the player to perform certain actions (e.g., tell a truth, perform a dare, have a drink, or the like). A game can be played where players toss their collapsible beverage insulators and the player must perform whichever indicator(s) remain visible. Thus, to avoid, performing actions, players can attempt to collapse as many collapsible zones as possible, thus hiding some or all of the indicators.
In some cases, users can use one or more indicators (e.g., a particular combination of visible indicators or a particular indicator associated with a particular collapsed zone) to look up an action to take. For example, a collapsible beverage insulator may use indicators that take the form segments of collapsible zones having different colors, and depending on how the collapsible beverage insulator is tossed, one or more colors will be selected. The user may then look up an action to take based on the one or more selected colors. For example, the user may find the selected color(s) on an instruction sheet, which may list an action to take associated with each color or combination of colors. In another example, a set of card decks can be provided (e.g., with the collapsible beverage insulator) such that each possible color or combination of colors can correspond to a particular deck. Thus, based on the selected color(s), the user would pick a card from the corresponding deck(s). For example, a user may toss their collapsible beverage insulator such that the colors blue and red are visible. The user can then pull a card from each of the red and blue decks.
In some embodiments, the collapsible beverage insulator may include differing colors of marks that correlate to an additional object for gameplay. For example, different inner segments of collapsible zones can have different color marks that are shown or hidden depending on if the collapsible zone is collapsed or expanded. When visible, the color can be correlated with a colored card that has text on it identifying a number of points or words to describe an action a user needs to take when the color is visible. Examples of such actions include answer a question truthfully, perform a dare, take a drink, and the like.
In another example, the collapsible beverage insulator may include a set of indicators that include multiple subsets of repeated indicators. A game may be played that involves tossing the collapsible beverage insulator and performing an action based on which of the subsets of repeated indicators contains the most visible indicators. For example, a collapsible beverage insulator may include three “truth” indicators and three “dare” indicators. If the toss ends up with one “truth” indicator and two “dare” indicators remaining visible, the player may be instructed to perform a “dare” action.
In some cases, the collapsible beverage insulator may include a set of indicators that include at least a subset of indicators that are hidden from view when the at least one collapsible zone is in the collapsed state. The collapsible beverage insulator may be able to exist in a number of different states of being collapsed based on how collapsed the collapsible beverage insulator may be. For each, or at least some of, the different states, the combination of indicators remaining visible can interact to form a cohesive design. For example,
In some embodiments, the surface of the collapsible beverage insulator, or at least a portion thereof, can be made of a non-porous material (e.g., silicone) such that it may be drawn and written on using non-permanent ink and remain easily erasable similar to a whiteboard. Thus, players can customize their collapsible beverage insulator with their own point scoring marks or action marks to customize their game. Such customization can be done within each expanding and collapsing collapsible zone, or across collapsible zones.
In some embodiments, the collapsible beverage insulator may have differing colors or indicators on each half of the collapsible beverage insulator. The color or indication such as a differing texture, etc. may be split down a vertical axis or a horizontal axis. This embodiment may make it easier for game variations to score differently based on a team or player associated with that identifier. For example, if the top half of the collapsible beverage insulator is a different color, then a player can claim that is “their side” indicating that when a collapsible beverage insulator is used in a game, that when their colored end faces up, points are awarded to that player. This concept extends to the other colored end for another player. Similarly, the divide of indication, color, etc. can be split down a vertical axis and be correlated to another identifier such as the mark on an inner or outer segment of a collapsible zone to indicate a player's scoring method or different game version. For example, the mark on the inner or outer segment of a collapsible zone may be a series of numbers 1 through 4 from top to bottom on the half of the collapsible beverage insulator that is blue. On the other half of the collapsible beverage insulator (e.g., red), another set of number marks 4 through 1 from top to bottom with a specific orientation, indicating that because the marks are on a different colored half of the collapsible beverage insulator, they are used in another form such as a player's claimed color.
In some embodiments, the opening (e.g., hole) on the bottom of the collapsible beverage insulator generally matches and is slightly smaller in diameter than a common ping pong ball (e.g., at or approximately 40 mm), although that need not always be the case. In this form, a ping pong ball can be inserted into the collapsible beverage insulator to be used as a projectile that can be propelled out of the collapsible beverage insulator due to an increase in internal air pressure when collapsing a collapsible zone. The diameter of the opening can be the same size or slightly smaller than the diameter of the ball to create sufficient pressure to retain the ball and eject the ball with the increase in air pressure attributable to collapsing of one or more collapsible zones. Similarly, the opening may be not significantly smaller than the diameter of the ball to avoid requiring too much force to eject the ball.
This opening can be include an internal lip that extends inward, such as at about 3-6 mm deep. This lip can have a thickness of about 1 to 2 mm thick. The lip may be of uniform thickness or may vary in thickness across the depth of the lip. The lip may have a mixture of thicknesses to provide a portion that engages and retains the ball (or other projectile) and a portion that directs and cradles the ball (or other projectile). An example of such a lip would be a lip that extends inward about 1 to 2 mm deep with a uniform thickness, then tapers off towards a point for creating a slant in the remainder of the lip. The about 1 to 2 mm of uniform thickness gives sufficient surface area to hold the ball in place when pressed slightly into the hole directly. The slanted portion of the lip can guide and cradle the ball in place of the opening when dropped in and not pressed into the opening directly because the slant is creating a shape that generally matches the difference in diameter across a sphere.
In some embodiments, the ball referenced as a projectile object does not have to be a common ping pong ball. The projectile can have a shape other than a sphere. For example, the projectile can be in the shape of a cube, such as a dice, with a corresponding square-shaped opening in the end of the collapsible beverage insulator. The relationship of the projectile and the opening shape and size can be set to ensure the projectile can be properly propelled as desired in response to collapsing of one or more collapsible zones. Similarly, the projectile and/or the opening may have small ridges, indents, or other elements that match one another to create a better hold or fit.
In some embodiments, each end of the collapsible beverage insulator can include an opening. In some cases, each opening is the same in size. In such cases, the same projectile can be used in both ends and/or two projectiles can be used at the same time. In some cases, two or more collapsible beverage insulators can be connected together to create a larger cavity of air for pressure when collapsing.
In some embodiments where there is an opening at both ends of the collapsible beverage insulator, the user can insert a projectile in either end. When the user tosses the collapsible beverage insulator and it lands on a smooth surface with the projectile on top, the flat surface in combination with the end of the collapsible beverage insulator can create an air seal and any collapsible zones that collapse can increase air pressure within the collapsible beverage insulator, resulting in ejection of the projectile.
In some embodiments, the projectile can move freely within the internal volume of the collapsible beverage insulator. When the collapsible beverage insulator is flipped, centrifugal force can move the projectile into an opening (e.g., guided by a tapered internal lip), where the projectile can be retained until it is ejected out through collapsing of one or more collapsible zones.
In some embodiments, the projectile can sit in an opening in an end of a collapsible beverage insulator where it can be manually pressed through the opening into the internal volume of the collapsible beverage insulator.
In some embodiments, when the projectile (e.g., ball, such as a ping pong ball) is pressed through an opening (optionally with a lip), the amount of force needed to overcome the friction of the opening's diameter and geometry of the opening and, if used, the lip combination, can be at or approximately 0.15-1.0 kgf. In other words, the opening can receive the projectile such that a force of at or approximately 0.15 to 1.0 kgf is needed to eject the projectile. In some cases, the amount of force is at or approximately 0.1 to 1.5 kgf. In some cases, the amount of force is at or approximately 2 kgf.
In addition, the geometry of the lip holding the projectile in place can flex to conform to the projectile, creating slightly more friction and holding pressure (similar to a pinch due to the opening's diameter becoming smaller) when being propelled out, helping guide the projectile out of the inner volume of the collapsible beverage insulator, resulting in the projectile being propelled at a higher rate of speed. In addition, the material on the end of the collapsible beverage insulator and where the opening and lip are located can be flexible to help create pressure and release when enough pressure is met. If this surface were not flexible, the projectile may not be able to flex out of the hole sufficiently and may not eject properly.
In some embodiments, the projectile can sit in the opening in an end of a collapsible beverage insulator where it cannot be pressed through the opening into the collapsible beverage insulator (e.g., because the opening is too small for the outer diameter of the projectile). In this embodiment, if an opening and projectile are used in both ends, when the collapsible beverage insulator lands, the projectile on the landing end can create an airtight seal for the opposing side's projectile to be ejected with pressure from the collapsing collapsible zones.
In some embodiments, the material of the collapsible beverage insulator can be flexible and the wall structure can be kept so the material can flex and compress in other directions. For example, when the collapsible beverage insulator lands, if it lands on its side or at an angle that is not directly on an end, a material can be selected such that the collapsible beverage insulator would still compress to force air out of an opening in an end and shoot the projectile. This flexibility in the wall structure and material can allow for the collapsible beverage insulator to compress in a direction that does not result in collapsing collapsible zones, but does create sufficient air pressure within the collapsible beverage insulator to eject the projectile at a sufficiently high rate of speed.
Because of the collapsing structure, the energy from the collapsible beverage insulator falling with gravity is absorbed by each collapsible zone on impact when it the collapsible beverage insulator lands on an end. When the collapsible beverage insulator makes first impact, the weight of the collapsible beverage insulator and material above the impact point continues to accelerate, causing the bottom collapsible zone to collapse, and continue collapsing collapsible zones up the structure. But because each collapsible zone is collapsed, and the remaining weight still accelerating is reduced by what is already collapsed, the weight and force needed to collapse each consecutive collapsible zone is increased exponentially. In other words, the amount of energy needed to collapse two collapsible zones may be substantially more than the amount of energy needed to collapse one collapsible zone, and similarly for any number of collapsible zones. Thus, for more collapsible zones to collapse, the collapsible beverage insulator may need to fall from an exponentially greater height, making it exponentially more difficult to do so, especially when playing games with the collapsible beverage insulator. Thus, in games where the more collapsible zones collapsed increases points, but landing accuracy is important, a high-risk and high-reward scenario is created whereby a player must decide whether or not to attempt to collapse more collapsible zones at the potential cost of landing accuracy. Such scenarios are not easily replicated in other games.
An example of the drop heights required to collapse each collapsible zone are as follows for a collapsible beverage insulator made from 65A durometer silicone and weighting 3.4 oz; 1 collapsible zone requires about a 6″ drop or about 1.44N of energy, 2 collapsible zones require about 13.5″ or about 3.8N force, 3 collapsible zones require a 32″ drop or about 7.68N force, and 4 collapsible zones require about a 60.5″ drop or about 14.5N force. These values can change depending on the durometer and material make up, diameter of the collapsible beverage insulator, among other factors, but the exponential amount of energy required when dropping for impact will remain. For example, the same collapsible beverage insulator made with 55A durometer material will require less height to collapse each collapsible zone, but will still need to be dropped from an exponentially higher point to collapse each consecutive collapsible zone.
In cases where the collapsible beverage insulator has an opening at each end, the collapsible beverage insulator will be able to collapse when landing on either end. If the collapsible beverage insulator only has one end with an opening, the collapsible beverage insulator can only efficiently collapse when it lands with the opening face up. Both embodiments of collapsible beverage insulators can be useful in playing games.
In some embodiments, the collapsible beverage insulator may not have an opening on the bottom end, which may take the form of a solid face, optionally with a suction cup extending downward. The suction cup base can be useful in making sure that when the user is using the collapsible beverage insulator as a game or as an insulator and places or lands the collapsible beverage insulator on a smooth surface, it adheres to the surface through suction.
In some embodiments, one or more of the ends does not have to be flat and can still use flanged gasket ends.
In some embodiments, the collapsible beverage insulator may have a suction cup flange on the top and the bottom. The ends of the collapsible beverage insulator may have gasket flanges in addition to cone shaped flanges extended downward from the end of the collapsible beverage insulator.
In some embodiments, both ends of the collapsible beverage insulator may have a suction cup flange and an opening on each end. The openings in each end may be the same or different sizes, as well as same or different shapes. The general idea is that the openings will complement the shape and size of the projectile if used.
In some embodiments of the collapsible beverage insulator that have a hole on the top or bottom, a secondary spool device can be inserted into both holes individually to create an airtight seal when coming in contact with a surface with downward pressure. This device is a spool-like shape that consists of an upper plate (e.g., upper flange), a vertical core (e.g., spool body), and a lower plate (e.g., lower flange). The vertical core has a smaller diameter than the diameter of the opening of the collapsible beverage insulator, thus allowing air in when the spool is able to move axially (e.g., when in a relaxed and not pressured position). The plates of the spool have a generally larger diameter than the opening and do not exceed the inner diameter of the collapsible beverage insulator sidewall. This spool device can be used in game variations to create the airtight seal when the collapsible beverage insulator lands on the end with the spool in it. Upon landing, the lower flange of the spool is forced against the end of the collapsible beverage insulator, thus creating an airtight (or substantially airtight) seal. In such cases, collapsing of a collapsible zone can create sufficient air pressure to push a projectile out of the opposing opening.
In some embodiments, the spool device may have a suction cup on one or both ends instead of the flat ends. This suction cup serves to create the airtight seal when pressed up against the collapsible beverage insulator's end as well as creating a suction attachment to a surface on the external face of the spool.
In some embodiments, the spool device may have a center opening or other shaped opening for receiving and retaining a projectile. This opening would generally match the shape of the projectile and create an airtight seal between the spool and projectile.
In some embodiments, the spool can use a collar that is threaded or snap-lock, etc. to pinch and squeeze the collapsible beverage insulator's gasket end and create an airtight seal. This collar and seal can be useful in connecting collapsible beverage insulators together to prevent the gasket from slipping out around the spool faces. This connection also creates an airtight seal for insulation. This spool and collar assembly can also be used in the collapsible beverage insulator when playing games on uneven surfaces. Users can insert this spool and collar in an airtight or non-airtight position to create a surface that the gasket presses against when landing, in turn, allowing the air in the internal volume of the collapsible beverage insulator to push a projectile out of the other side when collapsing. The added weight to an end where this spool is used can also aid in the flipping and changes of the collapsible beverage insulator landing on that end.
In some embodiments, the collapsible zones can partially collapse across the length and/or height of the collapsible beverage insulator. Doing so can change the direction of the opening with the projectile, which can make the projectile eject in different directions.
In some embodiments, the device may include alternate versions of the collapsible zones for yard games as well as the connection methods for transportation. These embodiments do not require an airtight seal and insulation of a beverage. Most other yard games involve a ball, disc, bag, or some other common shape as an object to toss. This yard game can use a unique shape for the distinct purposes of collapsibility along with a spring force that creates a sense of randomness that you do not see in other common objects or games.
Methods of Use for Simple Game Variations
Certain aspects and features of the present disclosure can enable various game variations to be played. The main elements of most game variations make use of the collapsible beverage insulator's ability to collapse upon impact. Such collapsing action can be leveraged for point scoring (e.g., via markings associated with collapsible zones), can be used to expel projectiles, or can be otherwise used in a game.
In some game variations, a point is scored when the player flipping/tossing the collapsible beverage insulator lands the collapsible beverage insulator on an end (e.g., not on its side). In some advanced variations, different ends of the collapsible beverage insulator can result in different outcomes when facing up or facing down. For example, a first player or team can be associated with a first end, whereas a second player or team can be associated with a second end. If the first end lands face up, points can be added to the first player or team, however if the second end lands face up, points may be added to the second player or team or deducted from the first player or team. In some variations, no points are given or deducted when the collapsible beverage insulator does not land on one of the ends.
In some game variations, if the collapsible beverage insulator lands with sufficient force to collapse one or more collapsible zones, the collapsible zone(s) collapsed can affect scoring or gameplay. For example, a number of collapsible zones collapsed can be added to the number of points associated with the collapsible beverage insulator landing on an end (e.g., added and/or deducted, depending on the gameplay variation). Thus, there may be an incentive to toss the collapsible beverage insulator higher with the goal of achieving more points, however doing so may require more skill to ensure the collapsible beverage insulator lands on an end (or a desired end, such as to avoid losing extra points). In some variations, partially collapsed collapsible zones may indicate another variable set of points. In some variations, partially collapsed collapsible zones that result in the collapsible beverage insulator leaning in a direction may indicate another variable set of points.
In some cases, ends of the collapsible beverage insulator can be weighted to help guide the collapsible beverage insulator to land on an end rather than its sidewall. Additionally, since silicone has a significant elastic response, the shape of the collapsible zones can provide a natural “spring” response, which can provide a sense of “randomness” and counteract the weighted ends when the collapsible beverage insulator is tossed and lands on a surface. Such a rebound effect can make the landing on one end harder unless there is enough pressure to collapse collapsible zones, this requiring more skill to achieve consistent results.
In some game variations, the collapsible beverage insulator can be used in place of a beverage container for “flip cup” style drinking games, thus avoiding various drawbacks with using drinking containers (e.g., contamination concerns, spilled liquids, cleanliness concerns, and the like). The collapsible beverage insulator can be used to hold the beverage container while drinking, then the player can take it off of the beverage container to flip/toss it for points on their team.
In some game variations, the collapsible beverage insulator may be rolled to a destination or landing zone for points. In some cases, collapsible zones can be intentionally collapsed or expanded by the player to selectively control the directionality of the roll, thus providing an additional degree of strategy and skill to the game.
In some game variations, partial collapsing of collapsible zones can create a directional indication of an collapsible beverage insulator that has been tossed and has landed on one end. This directional indication can be used for various gameplay purposes, such as scoring points.
In some game variations, the ability to connect multiple collapsible beverage insulators together axially can be leveraged for “wizard staff” style drinking games where a number of a player's consumed beverages is indicated by a number of collapsible beverage insulators coupled to the collapsible beverage insulator currently in use by the player for the player's active beverage.
In some game variations, players can be instructed to take actions instead of awarding or deducting of points, such as answering questions truthfully, performing dares, taking sips or drinks, or the like. In some game variations, additional drinks, tokens, or coupons may be earned instead of points.
In some game variations, points can be represented by collapsible zones being expanded instead of being collapsed. In some cases, one or more collapsible beverage insulators can be used to keep score of another game (e.g., foosball), such as by manually collapsing or expanding one or more collapsible zones. For example, each goal in foosball may result in collapsing another collapsible zone, with a winner being announced once all of that player's collapsible zones have been collapsed.
In an example of a game variation, the gameplay may include scoring a point if the player lands a collapsible beverage insulator on end in the landing zone. In some cases, the player must land the collapsible beverage insulator with a specific end facing up to gain points. In some cases, if the player lands the collapsible beverage insulator with their specific end facing down, points are deducted from the player. In some cases, additional points are added for each collapsible zone that has been collapsed. In some cases, additional points are added if the collapsible beverage insulator lands around a target pole. Scoring can occur on the fly or at the end of a round of multiple tosses (e.g., using cancellation scoring). In some cases, players can knock already landed collapsible beverage insulators out of the landing zone or off of an end to affect scoring. Any suitable end point can be used. In an example, the game can end by the first person to reach at last 21 points and surpass the opponent(s) by at least 2 points.
Certain aspects of the present disclosure enable advanced strategies, which can greatly improve the gameplay experience. If an opponent has a collapsible beverage insulator in scoring position, it may be wise for a player to toss theirs in a way that knocks the opponent's off their end or bumps it out of the landing zone. If a player knocks another player's collapsible beverage insulator, moving it to a position where the player's identifying end is face up, the player will get the additional point.
These illustrative examples are given to introduce the reader to the general subject matter discussed here and are not intended to limit the scope of the disclosed concepts. The following sections describe various additional features and examples with reference to the drawings in which like numerals indicate like elements, and directional descriptions are used to describe the illustrative embodiments but, like the illustrative embodiments, should not be used to limit the present disclosure. The elements included in the illustrations herein may not be drawn to scale.
The collapsible beverage insulator 100 includes a sidewall 128 coupling a first end 102 to a second end 104. As depicted in
The first end 102 has an outer surface upon which a first end design element 108 can be located. The first end design element 108 can be any suitable design element, such as a brand name or logo, gameplay instructions, a player indicator, and the like.
The first end 102 has a first opening 106. The first opening 106 can be a hole that is circular in shape or otherwise shaped as disclosed in further detail herein. The first opening 106 can be sized to accept a beverage container, such as a beverage can. The first end 102 can be made from an elastomeric material, thus enabling the first opening 106 to flex and stretch to accommodate different circumferences of beverage containers.
As described in further detail herein, the collapsible beverage insulator 100 can include a number of collapsible zones. As depicted in
Optional indicators 110, 112, 114, 116, 118 can be located on the sidewall 128 at locations associated with each of the collapsible zones 120, 122, 124, 126, respectively. Thus, as one or more of the collapsible zones 120, 122, 124, 126 are collapsed during use, the indicators 110, 112, 114, 116, 118 can be used to easily identify how many collapsible zones 120, 122, 124, 126 are collapsed and/or how many points are to be scored.
As depicted in
The collapsible beverage insulator 200 is depicted in
In some case, collapsible beverage insulator 200 can be the same as collapsible beverage insulator 100 of
The sidewall 328 of the collapsible beverage insulator 300 can include multiple collapsible zones 320, 322, 324, 326. Each collapsible zone 320, 322, 324, 326 can be made of multiple segments also known as wall portions. As depicted in
When in an expanded state, as depicted in
Each of the indicators 510, 512, 514, 516, 518 can indicate a score associated with a number of collapsed zones. In some cases, indicators 510, 512, 514, 516, 518 can include text or images that are oriented in an upright fashion when a particular end of the collapsible beverage insulator 500 is facing up. In some cases, alternate text or images can be included that are oriented in an upright fashion when an opposite end of the collapsible beverage insulator 500 is facing up.
For example, first indicator 510 shows a “5” when the collapsible beverage insulator 500 is in an upright orientation as depicted in
When viewed from the top, the first end 702 is seen, with its first opening 706. Since the first opening 706 is larger in diameter than the second opening 744, the second opening 744 can be seen through the 706. Additionally, the lip 742 at the edge of the second opening 744, described in further detail herein, is seen through the first opening 706.
In some examples, the second opening 744 can be smaller than an outer diameter of a common beverage container (e.g., less than two inches in diameter). In some examples, the second opening 744 can be larger than at or approximately (e.g., just less than) the diameter of a projectile (e.g., greater than at or approximately 1.5 inches for a standard ping pong ball).
When viewed from the bottom, the second end 804 is seen, with its second opening 844. However, since the second opening 844 is smaller in diameter than the first opening, the first opening is not visible.
The sidewall 928 of the collapsible beverage insulator 900 can include multiple collapsible zones, each of which can be made of multiple segments (e.g., wall portions). As depicted in
When in an expanded state, as depicted in
The wall thicknesses and general geometry of the collapsible beverage insulator is established to accomplish a collapsing nature while maintaining structural integrity and shape. The collapsible beverage insulator design is comprised of a series of wall portions. In an embodiment, where a first wall portion 941 is about 3 mm thick, has a top end with a thin wall, second wall portion 934, about 0.5 mm thick that has an angled wall, third wall portion 936, extending upward and inward that is about 2.3 mm thick, with an upper segment, fourth wall portion 937, that is about 0.6 mm thick that extends vertically into fifth wall portion 938 that is about 2 mm thick that extends into an angled up and outward sixth wall portion 940 that is about 2.5 mm thick. The combination of the wall thicknesses and angled wall shapes give the structure the ability to collapse at the thin points by flexing and using the thicker walls to remain stable. When collapsed, the angled third wall portion 936 and sixth wall portion 940, as well as fifth wall portion 938, nests inside of the first wall portion 941. This relationship of wall thicknesses creates a series of ratios that are geometrically sound for collapsing and maintaining structural integrity. In some cases, wall thicknesses are within 5%, 10%, or 15% of the provided values. In some cases, other wall thicknesses can be used. In some cases, additional or fewer segments (e.g., wall portions) can be used.
The following exemplary ratios correspond to the relative thicknesses of the respective joining walls according to some implementations of the present disclosure.
In some implementations of the present disclosure, the ratio between first wall portion 941 and second wall portion 934 is between about 0.1 and about 0.2. In some implementations of the present disclosure, the ratio between first wall portion 941 and second wall portion 934 is between about 0.13 and about 0.18. In some implementations of the present disclosure, the ratio between first wall portion 941 and second wall portion 934 is between about 0.16 and about 0.17. In some implementations of the present disclosure, the ratio between first wall portion 941 and second wall portion 934 is about 0.166.
In some implementations of the present disclosure, the ratio between second wall portion 934 and third wall portion 936 is between about 0.15 and about 0.27. In some implementations of the present disclosure, the ratio between second wall portion 934 and third wall portion 936 is between about 0.2 and about 0.24. In some implementations of the present disclosure, the ratio between second wall portion 934 and third wall portion 936 is between about 0.21 and about 0.22. In some implementations of the present disclosure, the ratio between second wall portion 934 and third wall portion 936 is about 0.217.
In some implementations of the present disclosure, the ratio between third wall portion 936 and fourth wall portion 937 is between about 0.2 and about 0.32. In some implementations of the present disclosure, the ratio between third wall portion 936 and fourth wall portion 937 is between about 0.24 and about 0.28. In some implementations of the present disclosure, the ratio between third wall portion 936 and fourth wall portion 937 is between about 0.25 and about 0.27. In some implementations of the present disclosure, the ratio between third wall portion 936 and fourth wall portion 937 is about 0.261.
In some implementations of the present disclosure, the ratio between fourth wall portion 937 and fifth wall portion 938 is between about 0.2 and about 0.4. In some implementations of the present disclosure, the ratio between fourth wall portion 937 and fifth wall portion 938 is between about 0.28 and about 0.32. In some implementations of the present disclosure, the ratio between fourth wall portion 937 and fifth wall portion 938 is between about 0.29 and about 0.31. In some implementations of the present disclosure, the ratio between fourth wall portion 937 and fifth wall portion 938 is about 0.3.
In some implementations of the present disclosure, the ratio between fifth wall portion 938 and sixth wall portion 940 is between about 0.75 and about 1.75. In some implementations of the present disclosure, the ratio between fifth wall portion 938 and sixth wall portion 940 is between about 1.0 and about 1.50. In some implementations of the present disclosure, the ratio between fifth wall portion 938 and sixth wall portion 940 is between about 1.2 and about 1.3. In some implementations of the present disclosure, the ratio between fifth wall portion 938 and sixth wall portion 940 is about 1.25.
In some embodiments, the wall angles can differ to create a different shape such as an hourglass, or ball shape. In some implementations, the shapes use a combination of thicker and thinner conjoining walls to aid in flexing material at the thin points for collapsing purposes.
In some embodiments, the walls are made of a mixture of different materials that create rigidity in the upright walls and flexibility in the angled walls or thin portions for folding. An example of this could be plastic or metal being used in the upright walls (e.g., first wall portion 941 and/or fifth wall portion 938) and silicone or rubber on the angled portions (e.g., third wall portion 936, fourth wall portion 937, and/or sixth wall portion 940) that flex to allow for folding into a collapsed position.
In some embodiments, the number of collapsible zones can be as few as 1. The number of collapsible zones have no top limit (e.g., 2, 3, 4, 5, 6, 10, 25, or any suitable number).
In some embodiments there may be additional gasket-like flanges (not shown) that extend from the vertical or horizontal walls of the collapsible beverage insulator inward (e.g., to about a radius of 52 mm). The beverage container can stretch the flanges and create smaller portions of insulation. These flanges can also be used to help support and center the beverage container within the collapsible beverage insulator. This creates rings of insulation rather than one large area of insulation across the beverage container. In some embodiments, the flanges do not have to create an airtight seal and can be used to help stabilize the beverage container inside the sleeve. This may be done by an internal flange extending inward that does not create an airtight seal, such as by the inclusion of holes or other additional openings or not being circular in shape.
Collapsible beverage insulator 900 also includes a second opening 944 at the second end 904 that includes a lip 942. As described in further detail herein, the lip 942 can extend from the edge of the second opening 944 towards a center of the collapsible beverage insulator 900. In some cases, the lip 942 can be slightly angled to increase in diameter as it approaches the center of the collapsible beverage insulator 900 to create a funnel-like shape into which a projectile can be fit.
Collapsible beverage insulator 1000 includes a sidewall 1028 that includes a number of collapsible zones, each of which can include a first wall portion 1041, a second wall portion 1034, a third wall portion 1036, a fourth wall portion 1037, a fifth wall portion 1038, and a sixth wall portion 1040.
Collapsible beverage insulator 1000 can further include a second end 1004 having a second opening 1044. The second opening 1044 can include a lip 1042 extending therefrom.
A beverage can 1146 is depicted as being received by the collapsible beverage insulator 1100. To achieve a desired length of the collapsible beverage insulator 1100 to fit the beverage can 1146, some of the collapsible zones 1120, 1122, 1124, 1126 have been collapsed and some remain expanded. For example, first collapsible zone 1120 and second collapsible zone 1122 remain in expanded states while third collapsible zone 1124 and fourth collapsible zone 1126 are in collapsed states. This arrangement of collapsed and expanded collapsible zones permits beverage can 1146 to rest comfortably within collapsible beverage insulator 1100 while leaving sufficient portions of the beverage can 1146 out of the collapsible beverage insulator 1100 to facilitate drinking from the beverage can 1146. Additionally, by collapsing the two collapsible zones 1124, 1126 closest to the base of the beverage can 1146, the center of gravity of the collapsible beverage insulator 1100 is able to remain closer to the base of the beverage can 1146 (e.g., closer than if other collapsible zones were collapsed).
As depicted in
When the beverage can 1346 is placed within the collapsible beverage insulator 1300, the lower rim 1354 of the beverage can 1346 can make contact with the inner surface 1352 of the second end 1304. In some cases, this contact is sufficient to create a desired seal with the second end 1304. In some cases, however, the second end 1304 includes a lip 1342 that extends towards the center of the collapsible beverage insulator 1300. This lip 1342 can be shaped to engage a lower concave surface 1356 of the beverage can 1346. As a result, lip 1342 can create an airtight or substantially airtight seal with beverage can 1346, thus establishing a sealed inner volume within the collapsible beverage insulator 1300. In some cases, instead of engaging a lower concave surface 1356, lip 1342 can be configured to contact a lower rim 1354 of the beverage can 1346, such as by extending radially outwards.
Additionally, in some cases, a collapsible beverage insulator 1300 can include an annular volume 1350 located within the sidewall 1328. In such cases, the sidewall 1328 can include an outer wall and an inner wall between which the annular volume 1350 can be located. In some cases, an access port or other opening (e.g., a removably sealable opening) can provide access to the annular volume 1350, such as to fill the annular volume 1350 with a fluid or to remove a fluid therefrom. The annular volume 1350 can be configured and used in various ways, such as described in further detail herein.
While the collapsible beverage insulator can work as an individual device, it may also be connected to one or more additional collapsible beverage insulators to create a higher volume insulating sleeve (e.g., the multi-insulator assembly 1460) that can hold multiple beverages. Each collapsible beverage insulator can be connected to another through methods of magnets, threaded attachment, snap lock, spool, and the like. In some cases a collapsible beverage insulator can be directly coupled to another collapsible beverage insulator. In some cases, a collapsible beverage insulator can be coupled to another collapsible beverage insulator via an axial coupler. The connection can be strong enough to hold the weight of many collapsible beverage insulators connected together with weighted beverages inside. A sling or similar component (e.g., handle) can be attached to the ends of the entire connected multi-insulator assembly 1460 to use for carrying on one's shoulder or back, like a sling pack, to transport many beverages while keeping the beverages insulated. When a person is ready to enjoy a beverage, they can simply detach any one of the collapsible beverage insulators that make up the longer multi-insulator assembly 1460. In doing so, they will be taking a section out of the entire build of the multi-insulator assembly 1460 and will have a beverage ready to drink with insulation already attached. When the user is done with that beverage, they can again, simply re-attach that individual collapsible beverage insulator to the larger multi-insulator assembly 1460 for transportation to recycle, play a game, etc.
The attachment methods of each collapsible beverage insulator serve as a new way to create insulation across many beverages. Traditionally, a cooler is used where all beverages are insulated in the same cavity. That cavity cannot be adjusted for the number of beverages you want to insulate (e.g., sized down when only a few beverages are needed or sized up when additional beverages are needed). This creates wasted space for transportation and insulation. By creating a modular attachable and detachable multi-insulator assembly 1460 where one can attach individual collapsible beverage insulators together, one can optimize the amount of weight carried and space used for insulation. This arrangement also stops the user from interfering with the insulation of another beverage. For example, each time a cooler lid is opened, all beverages in that container are exposed to heat transfer and the cool air within the cooler and surrounding the various beverages in the cooler is permitted to at least partially escape. With individually insulated beverages as described with reference to a multi-insulator assembly 1460, a user can detach a single or multiple beverages without disturbing the insulation of other beverages.
The use of a collapsible beverage insulator that can be expanded to a length greater than that of the beverage container within or contracted to a length smaller than that of the beverage container within may be beneficial to the overall use of the multi-insulator assembly 1460. For example, when being coupled to a multi-insulator assembly 1460, the collapsible beverage insulator may be expanded sufficiently to allow a beverage container to fit entirely within the collapsible beverage insulator while permitting sufficient room to couple the collapsible beverage insulator to an end piece or another collapsible beverage insulator. Thereafter, when it is desired to consume the beverage, the collapsible beverage insulator can be removed from the multi-insulator assembly 1460 and can be partially collapsed to alter the length of the collapsible beverage insulator to make it easier to drink from the beverage container.
In other configurations where the user may not need to expand each collapsible beverage insulator beyond the length of a beverage container, collapsible beverage insulators can be connected together using other techniques, such as techniques that are built into the collapsible beverage insulator ends where they connect to each other while still holding the beverage container, or another device may be used to connect them. The connection method may vary using a fastening method of a screw, snap, lock, pressure, magnet, spool, spool and collar, and the like. In this case, the user can still remove a single beverage section of the entire multi-insulator assembly 1460 with the insulation for that beverage still intact and not interfere with the other beverage's insulation. This configuration may or may not require collapsible beverage insulators that can expand and collapse, rather just the ability to connect and disconnect many individually insulated beverages from one another using any suitable fastening method.
In some embodiments, the connection method uses a spool or spool and collar to connect gasket ends of collapsible beverage insulators together. This connection method can use a collar to thread down and pinch a gasket end together creating an airtight seal as well as a strong hold, preventing the gasket from stretching around the face of a spool device.
The connection device may also contain a liquid within to freeze or heat up to help retain heat or lack of when connected to the collapsible beverage insulator. This connection device can act the same way or a similar way as a freezer pack works in a cooler.
The use of connection points at the ends of the collapsible beverage insulators can enable additional features, such as for holding a beverage in place. For example, one may want to removably adhere the beverage container to a surface so it does not get knocked over. A flat mat with an adhering surface on one side can be attached to the object (e.g., target surface) and on the opposing side can use the common collapsible beverage insulator connection point. The collapsible beverage insulator can then be connected to that connection point, making a holder for the beverage. An alternative is to make a direct connection point into whatever object to which you expect to attach the collapsible beverage insulator. An example of this could be in a table. Instead of making the table with a common cup holder, you would build the object with a relatively flat surface and the connection point where the collapsible beverage insulator can connect using the common connection method.
In some implementations of the present disclosure, the connection method of the spool and collar or other connection methods can serve to create a way to conceal a beverage from visibility and disguise it as a water bottle. The spool and collar can be in the shape of a water bottle cap, where a user can unscrew, unsnap, etc. To open the spool or collar to the cavity of the sleeve where a user can drink from without disconnecting the spool/collar from the collapsible beverage insulator.
In some embodiments, the collapsible beverage insulator may be used as an insulator for other objects than a beverage, such as food, ice packs, etc.
In some embodiments, the collapsible beverage insulator is made of food grade materials that are also dishwasher safe.
Any suitable projectile 2294 can be used. As depicted in
The collapsible beverage insulator 2200 of
As seen in
In some cases, the lip 2342 can include an inclined surface 2343 that is inclined towards the second opening 2344. In such cases, a projectile 2394 located within the inner volume of the collapsible beverage insulator 2300 may be directed towards the center of the second opening 2344 (e.g., the center of an axial axis passing through the center of the second opening 2344) by force pushing the projectile 2394. Examples of how such force can be applied include manually (e.g., a user pressing the projectile 2394 in a direction from the first opening 2306 towards the second opening 2344), via gravitational (e.g., a projectile 2394 naturally falling onto the lip 2342 when the collapsible beverage insulator 2300 is oriented with the second end 2304 located below the first end 2302), or via centrifugal force (e.g., a projectile 2394 within the inner volume will naturally be pressed towards the second end 2304 when flipped end-over-end).
In some cases, the lip 2342 can be shaped to direct the projectile 2394 towards the second opening 2344, but can provide sufficient resistance to the projectile 2394 to stop the projectile 2394 from exiting the second opening 2344 until a threshold force has been applied. Such a threshold force can be greater than expected gravitational or centrifugal forces from general handling of the collapsible beverage insulator 2300, but less than the amount of force applied to a projectile 2394 retained at the second opening 2344 when a compression zone compresses (while the first opening 2306 is fully occluded or at least sufficiently occluded).
As depicted in
A game can be played wherein a collapsible beverage insulator 2500 is tossed at a game target surface 2598. The game target surface 2598 can define a surface upon which the collapsible beverage insulator 2500 must land for the player to score points. In some cases, one or more game target poles 2596 can be used in conjunction with the game target surface 2598 (e.g., within the game target surface 2598 or along edges or corners of the game target surface 2598). The game target poles 2596 can be targets around which the player attempts to toss their collapsible beverage insulator 2500 to score additional points or otherwise affect gameplay.
In some embodiments, using additional items like stakes (e.g., target poles) and rope to create a landing area may be used. An objective of the game can be to toss your collapsible beverage insulator 2500 into the air with at least one flipping/tossing rotation and land your collapsible beverage insulator 2500 in the landing zone (e.g., on the game target surface 2598), or over one of the stakes (e.g., game target poles 2596), optionally on one end with enough force to collapse the device. If playing with identifying ends, the goal can include specifically requiring your identifying end to land facing up. Points may only be awarded if the scoring landing position is done within the landing area. By using a landing area and multiple of the collapsible beverage insulators 2500, the game can follow suit with other games such as cornhole, horseshoes, etc. while bringing the new element of the collapsibility into the game. In some variations, additional elements of defensive strategies can be added by allowing players to knock already landed collapsible beverage insulators 2500 out of the landing area to affect scoring.
In some embodiments, a mat can be used that can be a landing zone with identifying numbers or marks to indicate points. The mat may look like a target with a series of layered circles or may be a target with individual circles in different places around the mat.
In some embodiments, the game mat may include stakes or an object that stands up around which the collapsible beverage insulator 2500 can land to earn points.
The game target 2601 can be in the form of a target (e.g., a round target or other shaped target) with multiple scoring zones. The game target 2601 can be similar to an archery target or darts target, although other target styles can be used. The game target 2601 can be made of any suitable material or combination of materials, such as cloth, canvas, silicon, wood, rubber, or the like.
Certain games can be played by causing a projectile 2694 to be ejected from a collapsible beverage insulator 2600 towards the game target 2601. The goal of the game can be to hit the game target 2601, hit a particular scoring zone within the game target 2601, cause the projectile 2694 to stay on the game target 2601 or a scoring zone thereof, or the like. In some cases, the game target 2601 can be a relatively large target with respect to the collapsible beverage insulator 2600, allowing the collapsible beverage insulator 2600 to land within the confines of the game target 2601 and eject the projectile 2694 out onto another portion of the game target 2601, although this need not always be the case. In some cases, scoring can be based on both a landing location of the collapsible beverage insulator 2600 and a landing location of the projectile 2694.
The projectile 2694 can be caused to be ejected by any suitable technique, such as collapsing of a collapsible zone or deformation of a deformable sidewall while the end opposite the projectile 2694 is occluded. In some cases, collapsing of a collapsible zone or deformation of a deformable sidewall can be accomplished by tossing, flipping, or dropping the collapsible beverage insulator 2600. In other cases, a user may hold the collapsible beverage insulator 2600 and manually manipulate it, such as by slapping the end of the collapsible beverage insulator 2600 opposite the projectile 2694, pushing the two ends of the collapsible beverage insulator 2600 together, or squeezing the collapsible beverage insulator 2600.
As depicted in
In some cases, the projectile 2694 and/or game target 2601 can be treated or otherwise configured to facilitate attachment of the projectile 2694 to the game target 2601. For example, in some cases the projectile 2694 and game target 2601 can include corresponding hook and loop elements (e.g., the game target 2601 can be made of a loop material and the projectile 2694 can include bands of hook material capable of removably attaching to the loop material). In another example, the projectile 2694 can include one or more pointed ends (e.g., a dart tip) capable of becoming temporarily embedded within the game target 2601 (e.g., by piercing a surface of the game target 2601 or by fitting within recesses designed to receive the one or more pointed ends, such as holes of a plastic or soft tip dart board). Other attachment techniques can include the use of magnets or magnetic elements, adhesives (e.g., repositionable adhesives), static electricity forces, or the like.
In some cases, the game target 2601 can be positioned horizontally with respect to the ground, however that need not always be the case. In some cases, the game target 2601 can be positioned non-horizontally with respect to the ground, such as at or approximately vertically (e.g., hung on a wall or door).
In some cases, a receptacle can be used in addition to, instead of, or as a game target 2601. Such a receptacle can be any container suitable for receiving a projectile 2694 and temporarily retaining the projectile 2694. Examples of suitable receptacles include cups, bowls, bags, additional collapsible beverage insulators 2600, and the like.
In some cases, a movable target can be used in addition to, instead of, or as a game target 2601. The game target 2601 can be any object that can be moved when hit by the projectile 2694. Examples of movable targets include blocks, rods, sticks, or other objects placed to fall or be moved away in response to being hit by the projectile 2694. In an example game, users may take turns flipping their collapsible beverage insulator 2600 to try and eject a projectile 2694 and knock over a block balancing on its edge (e.g., a domino standing on its short edge).
In some cases, a body-borne target can be used in addition to, instead of, or as a game target 2601. The body-borne target can be any suitable target that is worn by, held by, or otherwise borne by a user. Examples of body-borne targets include gloves, paddles, bats, clothing, accessories, and the like. In some cases, the body-borne target and/or projectile 2694 can be configured to temporarily couple to one another, such as described above with reference to game targets 2601, For example, a projectile 2694 with hook elements can temporarily attach to a paddle having a loop element surface upon contacting the paddle.
The score board 2701 can include a number of zones in which a score token 2795 can be placed. The score token 2795 can begin at a central location, after which points scored by tossing a collapsible beverage insulator can be used to move the score token 2795 towards an end zone (e.g., first end zone 2797A or second end zone 2797B). For example, a first player, upon scoring points, may move the score token 2795 towards the second end zone 2797B. If the score token 2795 moves onto the second end zone 2797B, the game may conclude with the first player as the winner. Likewise, the second player may be attempting to score points to push the score token 2795 to the first end zone 2797A.
Some embodiments of the game may use a game mat (e.g., score board 2701) to reflect points. The game mat can consist of a generally grid shape with an end zone on each end that differs from the rest of the grid. The mat can also have a center space that differs from the rest of the grid to help identify a starting position for the score token 2795. The grid is used to reflect the movement of a piece (e.g., the score token 2795) across the mat towards an opponent's end zone based on points scored using the collapsible beverage insulator. In this embodiment, the score token 2795 starts in the middle and for each point scored, players can move the score token 2795 toward the opponent, one space at a time per point, until it reaches an endzone.
At block 2902, one or more collapsible beverage insulators can be provided.
At block 2904, a collapsible beverage insulator is placed around a beverage container. Placing the collapsible beverage insulator around the beverage container can include opening the beverage container to begin consuming the beverage therein. The collapsible beverage insulator can provide insulation to the beverage container.
At block 2906, the collapsible beverage insulator is separated from the beverage container, such as by removing the beverage container from the collapsible beverage insulator.
At block 2908, the collapsible beverage insulator that was previously insulating the beverage container at block 2904 is used in the playing of a game.
Using the collapsible beverage insulator at block 2908 to play a game can include using the insulator in any of the various fashions as disclosed in further detail herein.
In an example, using the collapsible beverage insulator at block 2908 includes expanding the collapsible zones of the collapsible beverage insulator and tossing the collapsible beverage insulator to cause the collapsible beverage insulator to land on a surface. In some cases, the collapsible beverage insulator landing causes one or more collapsible zones to compress.
In another example, using the collapsible beverage insulator at block 2908 includes rolling the collapsible beverage insulator, such as towards a target. In some cases, prior to rolling the collapsible beverage insulator, a player can manually expand or collapse one or more of the collapsible zones to impart a directionality to the rolling.
Other examples of gameplay can be performed, such as described herein. In some cases, the beverage container from block 2904 or another beverage container can be placed within the collapsible beverage insulator after completion of block 2908 (e.g., after completion of a game or completion of a turn in a game).
In an example of a game variation, the game may be called and proceed as Standard Flip Lines.
In an example of another game variation, the game may be called and proceed as Caddy Flip Battle-Battle Flip.
In an example of another game variation, the game may be called and proceed as 2v2 Caddy Flip Battle-Battle Flip.
In an example of another game variation, the game may be called and proceed as 2v2 Caddy Flip Battle-Battle Flip Cross.
In an example of another game variation, the game may be called and proceed as Free for All Caddy Flip Battle.
In an example of another game variation, the game may be called and proceed as Free for All Caddy Flip Battle Cross.
In an example of another game variation, the game may be called and proceed as Caddy Die.
In an example of another game variation, the game may be called and proceed as Caddy Pop Die.
In an example of another game variation, the game may be called and proceed as Caddy Toss.
In an example of another game variation, the game may be called and proceed as Caddy Pop Circle.
In an example of another game variation, the game may be called and proceed as Caddy Pop Die.
In an example of another game variation, the game may be called and proceed as Caddy Stack.
In any game variation, the use of marks or marks with an orientation, on inner or outer segments of collapsible zones may be used to help a user determine scores and points.
In any game variation, the use of differing identifying colors, ends, sides, etc. may be used to help a user determine scores, team, and points.
In any game variation, the use of the projectile may be used to add another element to the game.
In any game variation, the use of a spool device may be used to help with an airtight seal when landing the collapsible beverage insulator regardless of the landing surface.
In any game variation, the use of a spool with a suction cup bottom may be used to help create a relatively sturdy hold as compared to a flat or non-flat end of a collapsible beverage insulator. This suction cup can also create the ability for the collapsible beverage insulator to land on a surface that is vertical, slanted, or not horizontal.
In any game variation, the use of a specified landing zone may be used to give players a specific point to aim for and reward with points, etc.
In any game variation, the use of points can instead be recognized as “drinks” that need to be taken or passed out from a beverage.
In any game variation, the player tossing the collapsible beverage insulator has an opportunity to toss it higher to help increase the number of points they can score. Because the collapsible beverage insulator needs increased force when landing to collapse additional collapsible zones as well as create more pressure for the projectile to shoot further and faster, making it harder for an opponent to catch, the player will want to toss the collapsible beverage insulator higher. This process also comes with higher risk because with a high toss, it is significantly harder to control the flips and intentionally land it on an end, let alone the correct end if playing with colored ends. This makes the effort high risk but high reward.
Various gameplay variations are described herein. In some cases, modified versions of these gameplay variations can be achieved by modifying, removing, or adding rules, such as changing a score needed to win. In some cases, rules from any gameplay variation disclosed herein may be combined with rules from any other gameplay variation(s) disclosed herein to create new gameplay variations.
While process 2900 is described with various blocks in a particular order, in some cases process 2900 can include different blocks (e.g., fewer, more, or alternate blocks) and/or blocks in a different order. In an example where the collapsible beverage insulator is replaced with a collapsible sleeve, process 2900 can include providing a collapsible sleeve at block 2702, can not include block 2704 or block 2706, and can proceed with block 2708 by playing a game using the collapsible sleeve.
The foregoing description of the embodiments, including illustrated embodiments, has been presented only for the purpose of illustration and description and is not intended to be exhaustive or limiting to the precise forms disclosed. Numerous modifications, adaptations, and uses thereof will be apparent to those skilled in the art. Numerous changes to the disclosed embodiments can be made in accordance with the disclosure herein, without departing from the spirit or scope of the disclosure. Thus, the breadth and scope of the present disclosure should not be limited by any of the above described embodiments.
Although certain aspects and features of the present disclosure have been illustrated and described with respect to one or more implementations, equivalent alterations and modifications will occur or be known to others skilled in the art upon the reading and understanding of this specification and the annexed drawings. In addition, while a particular feature may have been disclosed with respect to only one of several implementations, such feature may be combined with one or more other features of the other implementations as may be desired and advantageous for any given or particular application.
One or more elements or aspects or steps, or any portion(s) thereof, from one or more of any of the claims below can be combined with one or more elements or aspects or steps, or any portion(s) thereof, from one or more of any of the other claims below or combinations thereof, to form one or more additional implementations and/or claims of the present disclosure.
The present application claims the benefit of U.S. Provisional Patent Application No. 63/382,037 filed Nov. 2, 2022 and entitled “BEVERAGE INSULATOR AND METHODS OF USING SAME,” and U.S. Provisional Application No. 63/507,731 filed Jun. 12, 2023 and entitled “BEVERAGE INSULATOR AND METHODS OF USING SAME,” the disclosures of which are incorporated herein by reference.
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| 20240140682 A1 | May 2024 | US |
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| 63507731 | Jun 2023 | US | |
| 63382037 | Nov 2022 | US |
