Systems and methods for air conditioning ice chest with lid storage

Abstract

A portable air-conditioning ice chest system comprises an ice chest body comprising a main chamber configured to receive ice or cold water, an air vent configured to discharge air-conditioned air from the ice chest system, an air vent extension member selectively attachable to the air vent to direct air from the air vent through the air vent extension member, and a lid configured to provide selective access to the main chamber, the lid being configured to store the air vent extension member when the air vent extension member is disconnected from the air vent.

Description

CROSS-REFERENCE TO RELATED APPLICATIONS

[0001] This application is related to U.S. patent application Ser. No. ______, filed Apr. 22, 2005, entitled SYSTEMS AND METHOD FOR PORTABLE AIR CONDITIONING ICE CHEST WITH ATTACHMENT INTERFACE, and bearing Attorney Docket No. 57982.578US01, and related to U.S. patent application Ser. No. ______, filed Apr. 22, 2005, entitled SYSTEMS AND METHODS FOR PORTABLE AIR CONDITIONING ICE CHEST WITH FLAT TOP, and bearing Attorney Docket No. 57982.578US02, and related to U.S. patent application Ser. No. ______, filed Apr. 22, 2005, entitled SYSTEMS AND METHODS FOR PORTABLE AIR CONDITIONING ICE CHEST WITH AIR VANES IN DUCTING, and bearing Attorney Docket No. 57982.578US03, the entire disclosures of which are hereby incorporated herein by reference. This application is also related to U.S. Design patent application Ser. No. ______, filed Apr. 22, 2025, entitled COOLER, and bearing Attorney Docket No. 57982.579US01, the entire disclosure of which is hereby incorporated herein by reference.TECHNICAL FIELD

[0002] This disclosure relates generally to ice chests, and more specifically to air conditioning ice chest systems and methods.BACKGROUND

[0003] Refrigeration and cooling technologies have evolved over time, addressing various needs in food preservation and portable temperature management. Coolers, also known as ice chests, are used to keep items cold in a wide range of scenarios, including outdoor activities, travel, and situations where access to refrigeration is unavailable. Traditional coolers fail to accommodate the many issues and problems that arise when using coolers in such a wide range of scenarios for refrigeration or other uses.

[0004] There is a need and an increasing demand for coolers with functionalities that increase versatility, usability, and efficiency, among other things. The present disclosure seeks to address this increasing demand by providing air-conditioning ice chest systems and methods.SUMMARY

[0005] The present disclosure is set forth in various levels of detail and no limitation as to the scope of the claimed subject matter is intended by either the inclusion or non-inclusion of elements, components, or the like in this summary. In some instances, details that are not necessary for an understanding of the disclosure or that render other details difficult to perceive may have been omitted. Moreover, for the purposes of clarity, detailed descriptions of certain features will not be discussed when they would be apparent to those with skill in the art so as not to obscure the description of the present disclosure. The claimed subject matter is not necessarily limited to the arrangements illustrated herein, with the scope of the present disclosure is defined only by the appended claims.

[0006] Consistent with some examples, a portable air-conditioning ice chest system may comprise an ice chest body comprising a main chamber configured to receive ice or cold water; an air vent configured to discharge air-conditioned air from the ice chest system; an air vent extension member selectively attachable to the air vent to direct air from the air vent through the air vent extension member; and a lid configured to provide selective access to the main chamber, the lid being configured to store the air vent extension member when the air vent extension member is disconnected from the air vent.

[0007] In some examples, the lid may be configured to store the air vent extension member on a bottom side of the lid. The lid may comprise at least one retaining clip disposed on the bottom side of the lid. The at least one retaining clip may be configured to store the air vent extension member in frictional engagement to the bottom side of the lid. A bottom side of the lid may comprise a recess. The lid may be configured to store the air vent extension member in the recess in the bottom side of the lid.

[0008] In some examples, the lid comprises: a lid base; a lid cover; and a storage compartment between the lid cover and the lid base, the lid configured to store the air vent extension member in the storage compartment, wherein the lid cover is movable relative to the lid base for access to the storage compartment.

[0009] In some examples, the air vent may comprise a sensor configured to detect when the air vent extension member is attached to the air vent and to change operation of a cooling function when the sensor detects that the air vent extension member is attached to the air vent. The sensor may be a reed sensor. The air vent extension member may comprise a magnet to actuate the reed sensor. The sensor may be configured to change operation of the cooling function by causing a signal to a controller configured to turn on or off a pump. The pump may be associated with a misting nozzle at the air vent. The pump may be configured to operate to provide fluid to the misting nozzle. The air vent may be rectangular. The air vent extension member may comprise a rectangular adapter connectable to the air vent. The lid may pivotably attach to the ice chest body with a soft close hinge. The portable air-conditioning ice chest may further comprise a kickstand integrated with one of the lid and the ice chest body. The kickstand may be pivotable between a stow position and a lock position. The stow position may permit the lid to close and the lock position may prevent closure of the lid. The kickstand may include a ball joint allowing displacement between the stow position and the lock position.

[0010] Consistent with some examples, a portable air-conditioning ice chest system may comprise an ice chest body comprising a main chamber configured to receive ice or cold water; an air vent configured to discharge air-conditioned air from the ice chest system; an air vent extension member selectively attachable to the air vent to direct air from the air vent through the air vent extension member; and a sensor configured to detect when the air vent extension member is attached to the air vent.

[0011] In some examples, the sensor may be configured to change operation of a cooling function when the sensor detects that the air vent extension member is attached to the air vent. The sensor may be a reed sensor. The air vent extension member may comprise a magnet to actuate the reed sensor. The sensor may be configured to change operation of the cooling function by causing a signal to a controller configured to turn on or off a pump. The pump may be associated with a misting nozzle at the air vent. The pump may be configured to operate to provide fluid to the misting nozzle. The air vent may be rectangular. The air vent extension member may comprise a rectangular adapter connectable to the air vent. The sensor may be configured to change operation of the ice chest when the sensor detects that the air vent extension member is attached to the air vent.

[0012] Consistent with some examples, a portable air-conditioning ice chest system may comprise a lid; a body having a main chamber and an exterior shell, the body configured to cooperate with the lid to provide selective access to the main chamber, the body being insulated and configured for receipt of ice or water; an air conditioning system configured to utilize the ice or water to air condition air; and a horizontal telescoping handle movable between a retracted position and an extended position, the telescoping handle having a grip portion and arms, the arms being disposed within the exterior shell when the telescoping handle is in the retracted position.

[0013] In some examples, the arms may be disposed between the main chamber and the exterior shell when the telescoping handle is in the retracted position. A distal surface of the telescoping handle may be contoured to align substantially flush with the exterior shell when the telescoping handle is in the retracted position.

[0014] Additional features are set forth in part in the description that follows and will become apparent to those skilled in the art upon examination of the specification, claims, and drawings or may be learned by the practice of the disclosed subject matter. A further understanding of the nature and advantages of the present disclosure may be realized by reference to the remaining portions of the specification and the drawings, which forms a part of this disclosure.BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The description will be more fully understood with reference to the following figures in which components may not be drawn to scale.

[0016] FIG. 1 illustrates a perspective view of an ice chest, in accordance with examples of the present disclosure.

[0017] FIG. 2 illustrates an exploded view of an ice chest, in accordance with examples of the present disclosure.

[0018] FIG. 3 illustrates a perspective view of an ice chest with an opened lid cover, in accordance with examples of the present disclosure.

[0019] FIG. 4 illustrates a perspective view of an ice chest with an opened lid, in accordance with examples of the present disclosure.

[0020] FIG. 5 illustrates an ice chest including accessories, in accordance with examples of the present disclosure.

[0021] FIG. 6 illustrates a top view of an ice chest, in accordance with examples of the present disclosure.

[0022] FIG. 7 illustrates a perspective view of an ice chest, in accordance with examples of the present disclosure.

[0023] FIG. 8 illustrates a cross section of an ice chest, in accordance with examples of the present disclosure.

[0024] FIG. 9 illustrates a perspective view of an air conditioning system of an ice chest, in accordance with examples of the present disclosure.

[0025] FIG. 10 illustrates a cross section of components of an air conditioning system of an ice chest, in accordance with examples of the present disclosure.

[0026] FIG. 11 illustrates an exploded view of an air duct of an ice chest, in accordance with examples of the present disclosure.

[0027] FIG. 12 illustrates a schematic diagram of an ice chest, in accordance with examples of the present disclosure.

[0028] FIG. 13 illustrates a schematic diagram of an ice chest, in accordance with examples of the present disclosure.

[0029] FIG. 14 illustrates a cross section of an ice chest, in accordance with examples of the present disclosure.

[0030] FIG. 15 illustrates a bottom view of an accessory of an ice chest, in accordance with examples of the present disclosure.

[0031] Examples of the disclosure and their advantages are best understood by referring to the detailed description that follows. It is appreciated that like reference numerals may be used to identify like elements illustrated in one or more of the figures.DETAILED DESCRIPTION

[0032] One of skill in the art will understand that each of the various aspects and features of the disclosure may advantageously be used separately in some instances, or in combination with other aspects and features of the disclosure in other instances. Accordingly, individual aspects can be claimed separately or in combination with other aspects and features. Thus, the present disclosure is merely exemplary in nature and is in no way intended to limit the claimed disclosure or its applications or uses. It is to be understood that structural and / or logical changes may be made without departing from the spirit and scope of the present disclosure.

[0033] FIG. 1 shows an ice chest 100, according to some examples. The ice chest 100 may be portable and may include dual air conditioning capabilities. The ice chest 100 may include a body 102, a lid 104, a handle 106, a lid cover handle 108, a lid handle 109, wheel(s) 110, lifting handles 111, a utility hub 112, a battery storage compartment 114, electrical ports 116, 118, an air vent 120, and a control panel 122, among other things. The body 102 is configured to store items such as food, beverages, ice, and water, among other items. The lid 104 may be movably coupled to the body 102 in a manner allowing for selective access inside the body 102. For example, the lid 104 may be movably coupled to the body 102 via hinge(s) 124. In some examples, the body 102 is sized relative to the lid 104 such that the body 102 has an exposed upper rim 171 when the lid 104 is in a closed position. The air vent 120 may be an air outlet vent configured to discharge air or conditioned air from the ice chest 100.

[0034] In FIG. 1, the battery storage compartment 114 and the electrical ports 116, 118 are shown covered by covers. In FIG. 6 the battery storage compartment 114 and the electrical ports 116, 118 are shown with the covers fully removed. In FIG. 7 the battery storage compartment 114 and the electrical ports 116, 118 are shown with the covers partially opened.

[0035] Although not shown (to prevent an obstructed view of the utility hub 112), the utility hub 112 may include a cover itself, which prevents moisture from getting onto the utility hub or into the ice chest 101. The utility hub cover may act as an extension of the top surface 136 and increase the usable surface area of the ice chest 101 when the utility hub 112 is not in use or does not need to be accessed. The utility hub cover may be separate from the ice chest and may be press fit into the utility hub opening in the top surface In other examples, the utility hub cover is slidably or rotatably attached to the ice chest 101. The utility hub cover may slide into the lid 104 when not in use. For example, a first portion of the cover, when retracted, may slide under a first side of the top surface 136 and a second portion of the cover, when retracted, may slide under a second side of the top surface 136. Additionally, the air vent 120 may include a cover as well, to prevent moisture and rain from entering through the air vent 120.

[0036] In some examples, the air vent 120 is disposed on the utility hub 112 which is accessible through an access opening 125 defined in the lid 104. Similarly, any combination of the battery storage compartment 114, the electrical ports 116, 118, and the control panel 122 may be disposed on the utility hub 112 and accessible through the access opening 125. In some examples, the access opening 125 is defined in the lid cover 132. This allows the functionalities of the ice chest 100 to be controlled even when the lid cover 132 is opened. In some examples, the utility hub 112 and any components supported thereon are disposed lower than the top surface 136 of the lid 104. In this way, the functionalities of the ice chest 100 are accessible by a user from above the ice chest 100 without obstructing or interfering with the level / balance of any items placed on and across the top surface 136.

[0037] FIG. 2 shows an ice chest (e.g., the ice chest 100), according to some examples. The body 102 includes a main chamber 126 to keep items therein cool or warm. The main chamber 126 may be formed by a chamber portion 128 of the body 102. The chamber portion 128 may include a liner or insert. The body 102 may also include an exterior shell 130 surrounding the chamber portion 128. A drain plug 131 is insertable through the chamber portion 128 and the exterior shell 130 from within the main chamber 126 to selectively allow liquid to drain from the main chamber 126. The exterior shell 130 and the chamber portion 128 may be sized such that an insulative air gap exists between the exterior shell 130 and the chamber portion 128, thereby insulating the main chamber 126. In some implementations, foam or another insulator is disposed within the air gap. The body 102 may also include a handle housing 129. The handle housing 129 may be part of the chamber portion 128, the exterior shell 130, or may be separate from both. The handle housing 129 is described further below with respect to FIGS. 7 and 8.

[0038] The lid 104 may include a lid cover 132 and a lid base 134. The lid cover 132 includes the top surface 136 that may function as a table or surface for placing items or sitting on. In some examples, the top surface 136 is the highest surface of the lid 104. The top surface 136 may be flat and include a flat portion. The flat portion may extend in at least a major or minor reference axes direction across the lid 104 from one side to the other. It may be advantageous that the flat portion comprise about 50% or more of a top surface area of the lid 104. Similarly, it may be advantageous that the utility hub 112 comprise about 50% or less of the top surface area of the lid 104. In some examples the top surface 136 may be level to stabilize items placed on top of the lid 104 while in other examples the top surface 136 may be angled to cause any liquids on the top surface 136 to flow towards or away from other portions of the ice chest 100. The ice chest 100 may include one or more feet 137 for stability. The lid base 134 may house portions of an air conditioning system, as explained further below with respect to FIG. 9.

[0039] FIG. 3 shows an ice chest (e.g., the ice chest 100) with a lid cover (e.g., the lid cover 132) opened for access to a storage compartment 138, according to some examples. The storage compartment 138 may be located between the lid base 134 and the lid cover 132. In some examples, a storage compartment liner 140 is located between the lid cover 132 and the components of the air conditioning system housed by the lid base 134. The storage compartment liner 140 separates the storage compartment from components of the air conditioning system and provides a surface for stored items to rest on. As shown, the lid cover 132 may be movable relative to the lid base 134 to open and provide access to the storage compartment 138. The storage compartment 138 allows for items to be stored separately from the main chamber 126. In some examples, the storage compartment 138 is configured to store an air vent extension member 144 (described below with respect to FIG. 4), accessories (e.g., the accessories 166), or any other items. In some examples, the lid cover 132 can be moved with respect to the lid base 134, without disengaging the lid base 134 from the body 102. In this way, the storage compartment 138 can be accessed without exposing the main chamber 126 to the elements and heat outside of the ice chest 100. The lid cover 132 may rotate relative to the lid base 134 via one or more hinges 142. The hinges 142 may rotate about different axels than the hinge(s) 124, allowing for the lid cover 132 and the lid base 134 to move independently. It is understood that movement of the lid base 134 may result in movement of the lid cover 132, particularly if the lid cover 132 is secured to the lid base 134 or if the lid cover 132 is opened to a greater angle than the angle that the lid cover 132 is originally opened to. In some examples, the lid cover 132 and / or the lid base 134 are attached to the body 102 with soft close / dampening hinges. The soft closing and dampening hinges may use a spring mechanism that slows down the rate at which the lid 104 closes, reducing slamming and forceful contact.

[0040] FIG. 4 shows an ice chest (e.g., the ice chest 100) with a lid (e.g., the lid 104) opened for selective access to a main chamber (e.g., the main chamber 126), according to some examples. In that regard, the body 102 and the lid 104 cooperate to provide selective access to the main chamber 126. The lid 104 is shown storing the air vent extension member 144 (or extension duct) that is disconnected from the air vent 120. The air vent extension member 144 selectively attachable to the air vent 120 and usable to direct the conditioned air coming out of the air vent 120. In some examples a fastening clip 149 is disposed on the air vent 120 or the air vent attachment member 144 to secure the two together. The air vent extension member 144 (or extension duct) may include an adapter 146 releasably connectable to the air vent 120 and a flexible hose 148. The flexible hose 148 is releasably couplable to a distal support member 150. The air vent extension member 144 is shown releasably attached to the air vent 120 in FIG. 7. Users may point or direct the airflow out of the ice chest 100 in any direction using the air vent extension member 144.

[0041] The lid 104 may be configured to store the air vent extension member 144 in a plurality of ways. For example, as described with respect to FIG. 3, the air vent extension member 144 may be stored in the storage compartment 138. In some examples, as shown in FIG. 4, the air vent extension member 144 may be stored on a bottom side 152 of the lid 104. The air vent extension member 144 may be secured to the lid 104 using any type of fastening member or securement mechanism. For example, the air vent extension member 144 may be stored using clamps, magnets, suction cups, straps, rubber bands, elastic straps, threaded fasteners, tape, reusable adhesives, Velcro, snap-fit connections, press-fit, friction-fit, weight, compression forces, spring forces, pins, clips, temporary loops, brackets, or bungee cords, among other methods. In the example shown, the lid 104 includes at least one retaining arm or clip 154 disposed on the bottom side 152 of the lid 104. The one or more retaining clips 154 are shaped and positioned with respect to the bottom side 152 of the lid 104 to hold the air vent extension member 144 in frictional engagement to the bottom side 152 of the lid 104. In that regard, the retaining clips 154 may be semi-flexible to accommodate the diameter of the shape of the air vent extension member 144 while also applying a constant force against the air vent extension member 144 as the retaining clips 154 seek to return to their unflexed form. In some examples, the bottom side 152 of the lid 104 defines a garage or recess 156 shaped and sized to house the stored air vent extension member 144. The recess 156 and the retaining clips 154 may be shaped to allow the air vent extension member 144 to be inserted and removed from its stored position in one general direction.

[0042] In some examples, the ice chest 100 may include a kickstand 158. The kickstand 158 is configured to selectively hold open the lid 104. The kickstand 158 is shown secured to the bottom side 152 of the lid 104 and movable in a plurality of directions to be inserted into a hole 164 (see FIG. 5) in the body 102. The kickstand 158 may include a joint 160 and an arm 162. The joint 160 may be a ball joint (e.g., ball in socket joint) or other rotating mechanism that allows the arm 162 to move in one or more degrees of freedom. The kickstand 158 can be selectively moved between a use configuration where it holds the lid 104 open and a stored configuration where it is retained against the bottom side 152 of the lid 104 and out of the way. In some examples, the kickstand is housed within a channel 165 during storage. A grip recess 167 may extend into the bottom side 152 of the lid allow a user to more easily grip the kickstand 158 and pull the kickstand 158 out of the stored configuration. The grip recess 167 may be formed as part of the lid 104.

[0043] In some examples, a receiving member 161 is attached to the lid 104 and is configured to retain the joint 160 and the arm 162. The receiving member 161 may retain the joint 160 and the arm 162 using clips, fasteners, biased tabs, among other fastening mechanisms. The receiving member 160 may have a plurality of receiving locations 163. A first receiving location 163a may secure the joint 160 to the lid 104 during both the stored configuration and the use configuration. The receiving location 163b may secure the arm 162 to the lid 104 during the stored configuration to house the arm 162 in a channel 165. In some examples, the kickstand 158 may snap-fit into the channel 165 in the bottom side of the lid 104 to be stored or it may be secured to a clip or other fastening mechanism disposed on the bottom side 152. It is fully understood that the kickstand 158 could be stored anywhere on the body 102 of the ice chest when not in use. In such an arrangement, the joint 160 may instead be attached to the body 102 and the arm 162 may extend into a hole in the lid 104.

[0044] In some examples, the lid 104 may remain opened to a variety of positions using detent features. The lid 104 may open to a plurality of predetermined angles (e.g., 90 degrees, 100 degrees, 102 degrees, 105 degrees, 135 degrees, 180 degrees, etc.) with respect to the body 102. The lid detent features may be included on the lid 104, the body 102, or both. As the lid 104 is opened, the lid 104 may come into contact with or rest against indents or holes formed in the body 102. Similarly, the body 102 may come into contact with or rest against indents or holes from in the lid 104. The lid detent features may be disposed on portions of the lid 104 and body 102 surrounding an axle around which the lid 104 rotates. In other examples, a detent hinge is coupled to the lid 104 and the body 102 and configured to opened and hold the lid 104 in the variety of positions.

[0045] In some examples, one or more lights 231 (FIG. 12) are disposed on the lid 104 (e.g., on the bottom side 152, the top surface 136, or in the storage compartment 128) or on the body 102 (e.g., in the main chamber 126). The light 231 may activate automatically when the lid 104 is opened. The light 231 may be turned on / off and or dimmed using the control panel 122. In some examples, a light sensor may be included on the ice chest 100. The light sensor may be an optical sensor that can detect whether the ambient light is less than a threshold light value, and if so, the light may automatically turn on when the ice chest 100 is opened. Other types of sensors are understood as well such as passive infrared sensors, mechanical switches, reed switches, and hall effect sensors, among other types of sensors.

[0046] FIG. 5 shows an ice chest (e.g., the ice chest 100) including accessories 166. The ice chest 100 is configured to selectively secure the accessories 166a, 166b to the ice chest 100. In this example, the accessory 166a is a side table and the accessory 166b is a single cup holder. FIG. 4 shows a double couple holder accessory 166c. It is fully understood that the ice chest 100 can be configured to secure any type of accessory, for example, misters, elevated top tables, light rods, mosquito zappers, flags, baskets, pouches, bags, rod holders, tackle box inserts, handles, fans, solar panels, umbrellas, canopies, chair attachments, drink dispensers, phone holders, camera-supporting rods, and rain gauges, among other accessories.

[0047] The body 102 of the ice chest 100 includes at least one attachment interface 168 (e.g., 168a, 168b, 168c, 168d). It is understood that the attachment interface 168 may include one or more of the attachment interfaces 168a-d. Furthermore, there may be more or fewer of the attachment interfaces 168a-d than is shown. The attachment interfaces 168 may be located in the upper rim 171 of the body 102. In other examples, the attachment interfaces 168 are located on other portions of the body 102 or the lid 104. Because the attachment interfaces 168a-d are located on the body 102, they are usable even when the lid 104 is opened. The attachment interfaces 168 are configured to selectively secure one or more (e.g., 1, 2, 3, 4, 5 etc.) attachment portions 169 of the accessories 166 to the ice chest 100. The attachment portions 169 may include projecting tabs 170 that are friction or press-fit into the attachment interfaces 168. The one or more attachment interfaces 168 may comprise spaced apart openings that receive corresponding projecting tabs 170 of the accessory 166. The openings may be notches, channels, or other types of openings such as holes or contoured cavities. In this example, the openings are channels that are partially enclosed. In some implementations, the openings and the attachment portions 170 may couple via a tongue-and-groove style connection. For example, the openings may be shaped as a dovetail, u-shaped, v-shaped, trapezoidal, z-shaped, or square, among other shapes. For example, FIG. 6 shows the attachment interfaces 168 having a slight dove-tailed connection, where edges of the attachment interface 138 interfere with or prevent passage of the projecting tabs 170 laterally inward toward the utility hub 112. The dimensions of the shapes help to secure the accessory 166 in the opening. In that regard, the projecting tabs 170 of the accessories 166 may be slid in and out of the openings for temporary securement to the ice chest 101. In some examples, the channels of the attachment interfaces 168 are enclosed at a bottom end by an upwardly facing surface 172 of the body 102. A bottom surface 174 of the projecting tab 170 is engageable with the upwardly facing surface 172. The upwardly facing surface 172 serves to prevent the projecting tab 170 from moving downwards and to keep the accessory 166 stable.

[0048] In some examples, the attachment interface 168 is disposed on an inner side of the body 102. The attachment interfaces 168 on the inner side of the body 102 are aesthetically pleasing as they are hidden when the ice chest / cooler is viewed from the side and are not exposed to dirt, sand, and other debris from the environment around the ice chest 100. Additionally, when the lid 104 is shut, the lid 104 may provide additional support and stability for the accessories. In that regard, the lid 104 may fully enclose the channel such that the accessory 166 can only be removed in a vertical direction. In some examples, the accessories 166 cannot be removed from the attachment interfaces 168 in a vertical direction, so the lid 104 prevents the accessories 166 from being removed or dislodged from the attachment interfaces 168 until the lid 104 is opened. The attachment interfaces 168 in some examples do not rely on the lid 104 and are configured to secure the accessories 166 on their own.

[0049] The accessory 166a includes two spaced apart attachment portions 169 that attach to two attachment interfaces 168. The attachment portions 169 are configured to be inserted into the openings of the attachment interfaces 168 in the upper rim 171. In this regard, the attachment portions 169 are shaped for receipt in the openings. The accessories 166 may include any number of attachment portions 169 that attach to any number of attachment interfaces 168. Although the attachment interfaces 168 are shown on a left lateral side and a right lateral side of a body minor reference axis 175, it is fully understood that the attachment interfaces may be on any portion of the lid 104 of the body 102. In some examples, the attachment interfaces 168 are on a front side or a back side of a body major reference axis 177. It is also understood that the attachment interfaces 168 may not face inwardly and instead may face upwardly or outwardly. In some examples, the attachment interfaces 168 take other shapes or secure the attachment portions 169 via other methods as well. For example, the attachment interface 168 may be a hole / slot or circular indent enclosed on all but one side. In other examples, the attachment interface 168 may form any other shape and may include other geometries to attach to other attachment portions 169 of other accessories 166. In other examples, the attachment interface 168 may be any other fastening mechanism or securement device. For example, the attachment interface 168 may be magnetic, a threaded fastener, an adhesive, a mechanical fastener, an interlocking joint, Velcro, a suction cup, a clip, clamp, and any other attachment mechanism.

[0050] FIG. 6 shows an ice chest (e.g., the ice chest 100) from above and shows the spatial relationship of the attachment interfaces 168 relative to the rest of the ice chest 101. The ice chest 100 is shown having the attachment interfaces 168 located on the upper rim 171. The upper rim 171 at least partially surrounds an outer edge 176 of the lid 104. The attachment interfaces 168 are configured to secure accessories 166 to the lid 104 regardless of the position and configuration of the lid 104. For example, the attachment interfaces 168 function when the lid 104 is closed, partially open, open, and at any disposition in between. In this way, the attachment interfaces 168 and the lid 104 are functional independent of one another. Because the attachment interfaces are positioned radially outward of the outer edge 176 of the lid 104, opening and closing the lid does not affect the usefulness of the attachment interfaces 168.

[0051] As shown, the attachment interfaces 168 may include a plurality of walls. The plurality of walls may enclose at least 50 percent of each channel of each attachment interface 168. In this way, the attachment portions 169 of the accessories 166, once positioned in the channel, are biased to remain within the channel. It is understood though that the plurality of walls may enclose 50 or less than 50 percent of the channel as well.

[0052] The openings of the attachment interfaces 168 may be rectangular shaped and may have a minor reference axis 275 and a major reference axis 277, similar to the body minor reference axis 175 and the body major reference axis 177 of the body 102. It should be understood that rectangular includes substantially rectangular in the manner shown, even including sides with a shallow arc as shown. In some examples, the body major reference axis 177 and the body minor reference axis 175 are angled alpha (α) relative to one or more of the major reference axes 277 (e.g., 277a-d) and one or more of the minor reference axes 275 (e.g., 275a-d) of the openings. The angle α may be about 90 degrees or less (e.g., 85 degrees, 80 degrees, 70 degrees, 50 degrees, etc.) in some examples.

[0053] In some examples, the lid 104 may include at least one utility hub region and at least one working region. The utility hub region(s) and the working regions(s) may be defined by their width along the body major reference axis 177. Each utility hub region(s) and working regions(s) may extend across the depth of the lid 104 along the body minor reference axis 175 from a front (e.g., towards near the lid cover handle 109) to a back (e.g., towards the hinge 124) of the ice chest 100. The one or more utility hub regions may comprise the utility hub 112 and its associated components. The utility hub region may be centrally located about the body minor reference axis 175 extending along a midline of the ice chest 100. The vent 120 may be centrally located within the utility hub region. The one or more working regions may include flat areas on the top surface 136 of the lid 104 on which a user may passively or actively work. In some examples, a user may sit on or set items, food, or accessories on the working regions. In other examples, the user may use the one or more working regions to perform working tasks.

[0054] In the example shown in FIG. 6, the lid 104 includes one utility hub region and two working regions. The utility hub region is centrally disposed between the two working regions. The utility hub region may have a width along the body major reference axis 177 extending between a left lateral edge of the utility hub 112 to a right lateral edge of the utility hub 112. The utility hub region may have a length along the body minor reference axis 175 extending between a front edge of the top surface 136 of the lid 104 to a back edge of the top surface 136. In such an example, the an area of the utility hub region may be encompassed by the width of the utility hub region multiplied by the length of the utility hub region. It is understood that the utility hub region may be defined by the lateral edges of the vent 120 or other components within the utility hub.

[0055] A first working region may have a width along the body major reference axis 177 extending between a left lateral edge of the top surface 136 of the lid 104 to a left lateral edge of the utility hub 112. The first working region may have a length along the body minor reference axis 175 extending between a front edge of the top surface 136 of the lid 104 to a back edge of the top surface 136. In such example, an area of the first working region may be encompassed by the area of the top surface 136 disposed lateral to the utility hub 112 in a direction towards the attachment interfaces 168a and 168b. Such a working region may be referred to as a left working region.

[0056] A second working region may have a width along the body major reference axis 177 extending between a right lateral edge of the top surface 136 of the lid 104 to a right lateral edge of the utility hub 112. The second working region may have a length along the body minor reference axis 175 extending between a front edge of the top surface 136 of the lid 104 to a back edge of the top surface 136. In such example, an area of the second working region may be encompassed by the area of the top surface 136 disposed lateral to the utility hub 112 in a direction towards the attachment interfaces 168a and 168b. Such a working region may be referred to as a right working region.

[0057] The area encompassed by working regions may be larger than the area encompassed by the utility hub region. In that regard, the majority of the usable area above the lid 104 may be dedicated to the working regions. In some examples, the working regions makes up at least 40 percent of the area above the lid 104 (e.g., 40%, 45%, 50%, 60%, 75%, 90%, 95%, etc.)

[0058] In some examples, the portions the top surface 136 located within the width and the length of the utility hub region are excluded when calculating the area encompassed by the utility hub region. For example, the area of the utility hub region may be the area of the utility hub 112 while the area of the one or more working regions may be the area of the top surface 136 of the lid 104.

[0059] Turning now to FIG. 15, which shows an accessory (e.g., the accessory 166a) from a bottom direction. In some examples, the accessory 166a may include two attachment portions 169 comprising the projecting tabs 170. The attachment portions 169 may be located on a portion of an outer edge 238 of the accessory 166a shaped to align with the upper rim 171 of the body 102 and / or the outer edge 176 of the lid 104. The accessory 166a has an accessory major reference axis 377 and an accessory minor reference axis 375. When the accessory 166a is secured to the body 102, the accessory major reference axis 377 or the accessory minor reference axis 375 may be aligned with the body major reference axis 177 or the body minor reference axis 175. In some examples, the accessory 166a includes a first projecting tab 170a and a second projecting tab 170b. Each of the projecting tabs 170 may have a major reference axis 477 and a minor reference axis 475. In some examples, as shown in FIG. 15, each of the major reference axes 477 and / or the minor reference axes 475 may be non-parallel. In some examples, an intersecting angle beta (β) may range from about 100 degrees to 170 degrees (e.g., 110 degrees, 115 degrees, 120 degrees, 130 degrees, 140 degrees, 160 degrees, 170 degrees, etc.). The intersecting angle β may be measured on a side of the intersection at a lateral end of the body 102

[0060] FIG. 7 shows various functionalities of an ice chest (e.g., the ice chest 100), according to some examples. The battery storage compartment 114 and the electrical ports 116, 118 may be equipped with covers 178, 179, 181. The cover 178 is openable (e.g., rotatable, slidable) for selective access to the battery storage compartment 114 housing a battery 180. The covers 179 and 181 are also openable (e.g., rotatable, slidable) for selective access to the electrical ports 116, 118. Grip recesses may be included in the utility hub 112 for allowing a user to more easily grip and open each of the covers. The covers 179 and 181 may be integrated or manufactured together as one piece. When the covers 179 and 181 are manufactured as one component, they may include or be attached to a flap extending into a slot on the utility hub 112 at a location in between the electrical port 116 and 118, but each being individually rotatably to expose the respective electrical port. In some examples, the covers 178, 179, and 181 are parallel or substantially flush with the top surface 136 of the lid 104 when the covers are in a closed position. In some examples, the battery storage compartment 114 and the electrical ports 116, 118 are recessed with respect to the top surface 136 while in other examples level with the top surface 136.

[0061] The air vent extension member 144, which was previously discussed as being storable in the lid 104, is shown in a use configuration attached to the air vent 120. The air vent extension member 144 extends the air vent 120 to a location above the top surface 136 of the lid.

[0062] In some examples, the ice chest 100 includes an air inlet vent 182 and an air inlet plug 184. The air inlet vent 182 is configured to intake air from the environment into the ice chest 100 for conditioning the air. The air inlet plug 184 is removably couplable to the air inlet vent 182 to selectively plug the air inlet vent 182 and prevent air from being drawn into the ice chest 100. The air inlet plug 184 may seal the air inlet vent 182 when the air conditioning functionalities of the ice chest 100 are not being used and to prevent debris, moisture, and any unwanted items from entering the ice chest 100. The air inlet plug 184 may be pushed into the air inlet vent 182 from the outside or may be pulled from inside the ice chest 100 via arm(s) 186. In some examples the air inlet plug 184 is made of a flexible material such as rubber while in other examples the air inlet plug 184 may be made of plastic or a material similar to the material of the ice chest 100.

[0063] Also shown in FIG. 7 is the handle 106 in an extended configuration. The handle 106 may be a telescoping handle and usable to transport the ice chest 100 via the wheels 110. The handle 106 is movable between a retracted position and extended positions. In an extended position, users may lift the handle 106 to elevate a portion of the ice chest 101 off the ground, balancing the ice chest 101 on the wheels 110. In some examples, the handle 106 includes a grip portion 191 with a button 190 operable to release the handle 106 from the retracted position allow telescoping arms 192 to move relative to on another between a plurality of positions. The telescoping arms 192 may lock relative to one other via interlocking features 194 at the plurality of positions. In some examples, the interlocking features 194 may automatically lock to each other when the telescoping arms 192 are moved from position to position, and the button 190 may be usable to unlock the interlocking features 194 and allow the handle 106 to extend or retract to another position.

[0064] The handle 106 may be disposed within the exterior shell 130 when the handle 106 is in the retracted position. In some examples, the handle 106 is disposed between the main chamber 126 and the exterior shell 130 when the handle is in the retracted position. In this example, the handle 106 is housed in the handle housing 129. When in the retracted and stored position within the handle housing 129, the handle 106 is fully contained within the ice chest 101 and hidden from view, except for the grip portion 191, which is contoured to align substantially flush with the exterior shell 130. It is advantageous to house the handle 106 within the ice chest 101 so that the handle 106 and its moving components are protected from dirt, moisture, and human hands. Further, the handle 106 is hidden from view and aesthetically pleasing. In that regard, when the handle 106 is in the fully retracted position, a distal surface 188 of the handle 106 is contoured to align substantially flush with the contour of the exterior shell 130. In this way, the handle 106 may act as part of the body 102 itself.

[0065] FIG. 8 shows the ice chest (e.g., the ice chest 100) from a cross-section view at a vertical plane down the midline of the ice chest 100, according to some examples. The telescoping arms 192 are shown housed within the handle housing 129 and confined within the bounds of the exterior shell 130 and the chamber portion 128.

[0066] In some examples, air conditioning components of the air conditioning system, including the air vent 120, are disposed within the lid 104 or the body 102. The components or portions of the components may be lower than the top surface 136 of the lid 104. For example, a top portion 200 of the air vent 120 is disposed at a same or lower elevation than the top surface 136 of the lid 104. In some examples, the air vent 120 may be angled in a direction transverse to the top surface 136. This relationship between the air vent 120 and the top surface 136 allows conditioned air to be discharged upwardly and outwardly away from the ice chest 100, while positioned lower than the top surface 136. The air vent 120 may be angled at angle with respect to the top surface 136, for example about 90 degrees, 75 degrees, 65 degrees, 55 degrees, 50 degrees, 45 degrees, 30 degrees, 15 degrees, 5 degrees, about 0 degrees, etc.) Further details regarding the air conditioning system of the ice chest 100 will be discussed below with respect to FIG. 9.

[0067] FIG. 9 shows an air conditioning system 202 of an ice chest (e.g., the ice chest 100), according to some examples. The ice chest 100 in FIG. 9 is shown with the lid cover 132 removed, so components of the air conditioning system 202 can be seen. FIG. 12 shows components of an ice chest (e.g., the ice chest 100) schematically, according to some examples. The air conditioning system 202 is configured to cool air using ice or water in the body 102. The air conditioning system 202 is also configured to blow air through the air vent 120. Components of the air conditioning system 202 may be disposed in the lid 104. In some examples, the air conditioning system 202 may include the air vent 120, the battery 180, a heat exchanger 204, a fan 206, an air duct 208, an intake pump 210, an intake line 212, a return line 214, a spray pump 216, and a spray line 218.

[0068] The air conditioning system 202 may draw in cold water from the main chamber 126 via the intake pump 210 and the intake line 212 into the heat exchanger 204. Intake line 212 may extend into a lower portion of the main chamber 126. The intake pump 210 may be located in the lid 104 or in the main chamber 126. For example, the intake pump 210 may be located in a pump housing 221 shown in FIG. 4. The water travels through coils of the heat exchanger 204. Air is drawn into the ice chest 100 via the air inlet vent 182 into the main chamber 126 and into the lid 104 via one or more openings 222 in the bottom side 152 of the lid 104. The opening 222 is visible at least in FIGS. 5 and 14. The opening(s) 222 may be defined in a chassis 226 that forms the bottom side 152 of the lid 104 and / or holds components of the air conditioning system 202 inside the lid 104. Once the air has entered the lid 104, the fan 206 blows the air across the heat exchanger 204 and heat is transferred from the air to the heat exchanger 204 to condition and cool the air. The conditioned air is blown by the fan 206 through the air duct 208 and out the air vent 120. In some examples, the air may be further conditioned by combining the conditioned air with misted water via the spray line 218 and the spray line 218. In some examples, a portion of the water drawn in by the intake line 212 is diverted into the spray line 218 to be expelled through a nozzle 223 positioned near or in the air vent 120. The water in the heat exchanger 24 that is warmed by the air is returned to the main chamber 126 via the return line 214 or is discarded or used for another purpose. For example, as described with respect to FIG. 12, water that runs through the heat exchanger 204 may be directed to the spray line 218 to be misted into the conditioned air.

[0069] The battery 108 supplies power via electrical wiring 229 or wirelessly to the components of the system such as the intake pump 210, the heat exchanger 204, the fan 206, the spray pump 216 the control panel 122, the electrical ports 116, 118, the light 231, and a sensor 233.

[0070] In some examples, the sensor 233 is configured to detect when the air vent extension member 144 is attached to the air vent 120. Additionally, the sensor 233 may be configured to change operation of a cooling function when the sensor 233 detects that the air vent extension member 144 is attached to the air vent 120. When the sensor 233 detects detachment, it may send a signal to a controller to turn on or off the spray pump 218 configured to operate and provide fluid to the nozzle 233. When the sensor 233 detects detachment, it may automatically cause the nozzle 223 to close and cease misting. Similarly, when the sensor 233 detects attachment, it may automatically cause the nozzle 223 to open and begin misting. The sensor 233 may be a reed sensor, a hall effects sensor, or a mechanical switch, among other types of sensors. In some examples, the air vent extension member 144 comprises a magnet 235 that actuates the reed sensor. The reed sensor is activated when the magnet comes within a threshold distance from the reed sensor. The sensor 233 and the magnet 235 may be included at any locations on the air vent 120 and the air vent extension member 144. It is understood that in some examples the sensor 233 may be disposed on the air vent extension member 144 while the magnet is disposed in or on the air vent.

[0071] The control panel 122 is operable to control the functions of the ice chest 100 simultaneously or separately. Further details regarding portable multi-function air conditioning systems are described in Brinkman (U.S. Pat. No. 12,061,37, entitled “Systems and Methods for a Portable Multi-Function Air Conditioner”), which is incorporated by reference herein in its entirety.

[0072] FIG. 10 shows components of an air conditioning system (e.g., the air conditioning system 202) of an ice chest (e.g., the ice chest 100), according to some examples. The air duct 208 is fluidically coupled to the fan 206 and may be configured to convey conditioned air from the heat exchanger 204 to the air vent 120. Depending on the shape of the air duct 208 it may be advantageous that the air duct 208 comprises at least one airflow director 224. The air flow directors 224 are configured to diffuse the air or conditioned air evenly out the air vent 120, thereby directing air from the inside of the body 102 to the outside of the body 102. In that regard, the airflow directors 224 prevent the air from pooling towards one side or portion of the air vent 120 and from being discharged with an uneven pressure in the intended direction. The airflow directors 224 diffuse the air by conforming an airflow path 225 of the air to a contour or shape of the air duct 208. In that regard, the airflow directors 224 may be shaped to correspond with a contour or shape of the air duct 208 to direct air from inside the body 102 to the outside the body 102. In some examples, the airflow directors 224 may run substantially in parallel with the air duct 208 throughout a length of the air duct 208 from a proximal end 228 to a distal end 230. It is fully understood that the airflow directors 224 may be configured to purposefully direct the air in an uneven manner towards the air vent 120 based on the desired direction and distribution of discharged air.

[0073] In some examples, the air duct 208 may include a hole 227 for passage of the spray line 218 to the air vent 120. In other examples, the spray line 218 may pass through the whole duct 208 or may pass through a hole in the air vent 120 itself.

[0074] FIG. 11 shows an air duct (e.g., the air duct 208) of an ice chest (e.g., the ice chest 100), according to some examples. The air duct 208 may be formed by a plurality of pieces. A first portion 232 may be connectable to a second portion 234. Both portions may be manufactured via a molding process and snap-fit together. The first portion 232 may have first airflow directors (e.g., airflow directors 224a, 224b, and 224c) while the second portion 234 may have second airflow directors (e.g., airflow directors 224d, 224e, and 224f). The first and second airflow directors 224 may collectively span a diameter of the air duct 208 to direct the air. In some examples, the second airflow directors 224e-f matingly engage with the first airflow directors 224a-c. For example, the first airflow directors 224a-c may fit into a slot or groove in each of the second airflow directors 224e-f. The airflow directors 224 may be fixed in place relative to the air duct 208. In other examples, the airflow directors 224 are movable to selectively direct the air out the air vent 120 based on the orientation of the air vent 120 and the scenario (e.g., wind direction, purpose, environment) that the air is being used. As shown in FIG. 1, the air vent 120 may further diffuse the air via a grille 236. The grille 236 may be movable or fixed relative to the air vent 120.

[0075] FIG. 13 shows components of an ice chest 300 (e.g., the ice chest 100) schematically, according to some examples. The ice chest 300 may be similar to the ice chest 100, with possible differences and variations described below. In this example, the ice chest 100 utilizes the liquid that has passed through the heat exchanger 204 as a fluid supply for the misting function. In this way, the ice chest 300 may return less water or may not return any water to the main chamber 126 via a return line. The water that is sent through the heat exchanger 204 is likely to be warmer than the water that remains in the main chamber 126, so re-using the water from the heat exchanger 204 and discharging it from the system prevents the water in the main chamber 126 from being diluted and warmed. Furthermore, this example may require less tubing. After water is pumped by the intake 210 through the intake line 212 and the heat exchanger 204, the water can continue through to spray line 218, without returning to the main chamber 126. In some examples, the spray pump 218 pumps the water through the spray line 218 and out the nozzle 223. In other examples, the spray pump 218 is not needed at all and the intake pump 210 the pushes water through the heat exchanger 204 also pushes the water out the nozzle 223. In some examples, where the heat exchanger 204 is positioned between the fan 206 and the air duct 208, the water leaving the heat exchanger may travel in spray line 218 within the air duct 208, rather than outside of the air duct 208. In this way, the hole 227 may not be needed.

[0076] FIG. 14 shows a cross section of an ice chest (e.g., the ice chest 100), according to some examples. In particular, FIG. 14 shows possible airflow patterns (indicated by the arrows) throughout the system as the air conditioning process occurs. In some examples, air is pulled by the fan 206 into the system through the air inlet vent 182 when the air inlet plug 184 has been removed and is not blocking airflow. Due to the location of the air inlet vent 182 on a lateral side of the ice chest 100, the air is brought through and across the main chamber 126. As the air passes through the main chamber 126, the cold ice, water, and items in the ice chest 100 begin cooling the air. Air exits the main chamber 126 through one or more of the openings 122 in the lid 102. The fan then moves the air across and / or around the cold water-filled coils of the heat exchanger 204. In some examples, the air duct 208 directs the air based on its shape and the airflow directors 224 towards the air vent 120. The air may exit the system via the air vent 120, or, when the air vent extension member 144 is attached, the air can be directed by a user by bending the flexible hose 148 in the desired direction.

[0077] In the description, specific details have been set forth describing some examples. Numerous specific details are set forth in order to provide a thorough understanding of the examples. It will be apparent, however, to one skilled in the art that some examples may be practiced without some or all of these specific details. The specific examples disclosed herein are meant to be illustrative but not limiting. One skilled in the art may realize other elements that, although not specifically described here, are within the scope and the spirit of this disclosure.

[0078] Elements described in detail with reference to one example, example, implementation, or application optionally may be included, whenever practical, in other examples, implementations, or applications in which they are not specifically shown or described. For example, if an element is described in detail with reference to one example and is not described with reference to a second example, the element may nevertheless be claimed as included in the second example. Thus, to avoid unnecessary repetition in the foregoing description, one or more elements shown and described in association with one example, implementation, or application may be incorporated into other examples, implementations, or application unless specifically described otherwise, unless the one or more elements would make an example or implementation non-functional, or unless two or more of the elements provide conflicting functions. Similarly, it is understood that any particular element, including a system component or a method process, is optional and is not considered to be an essential feature of the present disclosure unless expressly stated otherwise.

[0079] All relative and directional references (including up, down, upper, lower, top, bottom, side, front, rear, and so forth) are given by way of example to aid the reader's understanding of the examples described herein. They are not requirements or limitations, particularly as to the position, orientation, or use unless specifically set forth in the claims. Connection references (e.g., attached, coupled, connected, joined, and the like) are to be construed broadly and may include intermediate members between a connection of elements and relative movement between elements. As such, connection references do not necessarily infer that two elements are directly connected and in fixed relation to each other, unless specifically set forth in the claims.

[0080] One or more elements in examples of this disclosure may be implemented in software to execute on one or more processors of a computer system such as a controller. When implemented in software, the elements of the examples of the present disclosure are essentially the code segments to perform the necessary tasks. The program or code segments can be stored in a processor readable storage medium or device that may have been downloaded by way of a computer data signal embodied in a carrier wave over a transmission medium or a communication link. The processor readable storage device may include any medium that can store information including an optical medium, semiconductor medium, and magnetic medium.

Claims

1. A portable air-conditioning ice chest system, comprising:an ice chest body comprising a main chamber configured to receive ice or cold water;an air vent configured to discharge air-conditioned air from the ice chest system;an air vent extension member selectively attachable to the air vent to direct air from the air vent through the air vent extension member; anda lid configured to provide selective access to the main chamber, the lid being configured to store the air vent extension member when the air vent extension member is disconnected from the air vent.

2. The portable air-conditioning ice chest system of claim 1, wherein the lid is configured to store the air vent extension member on a bottom side of the lid.

3. The portable air-conditioning ice chest system of claim 2, wherein the lid comprises at least one retaining clip disposed on the bottom side of the lid, the at least one retaining clip configured to store the air vent extension member in frictional engagement to the bottom side of the lid.

4. The portable air-conditioning ice chest system of claim 1, wherein a bottom side of the lid comprises a recess, the lid configured to store the air vent extension member in the recess in the bottom side of the lid.

5. The portable air-conditioning ice chest system of claim 1, wherein the lid comprises:a lid base;a lid cover; anda storage compartment between the lid cover and the lid base, the lid configured to store the air vent extension member in the storage compartment, wherein the lid cover is movable relative to the lid base for access to the storage compartment.

6. The portable air-conditioning ice chest system of claim 1, wherein the air vent comprises a sensor configured to detect when the air vent extension member is attached to the air vent and to change operation of a cooling function when the sensor detects that the air vent extension member is attached to the air vent.

7. The portable air-conditioning ice chest system of claim 6, wherein the sensor is a reed sensor, the air vent extension member comprising a magnet to actuate the reed sensor.

8. The portable air-conditioning ice chest system of claim 6, wherein the sensor is configured to change operation of the cooling function by causing a signal to a controller configured to turn on or off a pump.

9. The portable air-conditioning ice chest system of claim 8, wherein the pump is associated with a misting nozzle at the air vent, the pump configured to operate to provide fluid to the misting nozzle.

10. The portable air-conditioning ice chest system of claim 8, wherein the air vent is rectangular, and the air vent extension member comprises a rectangular adapter connectable to the air vent.

11. The portable air-conditioning ice chest system of claim 8, wherein the lid pivotably attaches to the ice chest body with a soft close hinge.

12. The portable air-conditioning ice chest system of claim 8, further comprising a kickstand integrated with one of the lid and the ice chest body, the kickstand being pivotable between a stow position and a lock position, the stow position permitting the lid to close and the lock position preventing closure of the lid.

13. The portable air-conditioning ice chest system of claim 12, wherein the kickstand includes a ball joint allowing displacement between the stow position and the lock position.

14. A portable air-conditioning ice chest system, comprising:an ice chest body comprising a main chamber configured to receive ice or cold water;an air vent configured to discharge air-conditioned air from the ice chest system;an air vent extension member selectively attachable to the air vent to direct air from the air vent through the air vent extension member; anda sensor configured to detect when the air vent extension member is attached to the air vent.

15. The portable air-conditioning ice chest system of claim 14, wherein the sensor is configured to change operation of a cooling function when the sensor detects that the air vent extension member is attached to the air vent.

16. The portable air-conditioning ice chest system of claim 15, wherein the sensor is a reed sensor, and wherein the air vent extension member comprises a magnet to actuate the reed sensor.

17. The portable air-conditioning ice chest system of claim 15, wherein the sensor is configured to change operation of the cooling function by causing a signal to a controller configured to turn on or off a pump.

18. The portable air-conditioning ice chest system of claim 17, wherein the pump is associated with a misting nozzle at the air vent, the pump configured to operate to provide fluid to the misting nozzle.

19. The portable air-conditioning ice chest system of claim 17, wherein the air vent is rectangular, and the air vent extension member comprises a rectangular adapter connectable to the air vent.

20. The portable air-conditioning ice chest system of claim 14, wherein the sensor is configured to change operation of the ice chest when the sensor detects that the air vent extension member is attached to the air vent.

21. A portable air-conditioning ice chest system, comprising:a lid;a body having a main chamber and an exterior shell, the body configured to cooperate with the lid to provide selective access to the main chamber, the body being insulated and configured for receipt of ice or water;an air conditioning system configured to utilize the ice or water to air condition air; anda horizontal telescoping handle movable between a retracted position and an extended position, the telescoping handle having a grip portion and arms, the arms being disposed within the exterior shell when the telescoping handle is in the retracted position.

22. The portable air-conditioning ice chest system of claim 21, wherein the arms are disposed between the main chamber and the exterior shell when the telescoping handle is in the retracted position.

23. The portable air-conditioning ice chest system of claim 21, wherein a distal surface of the telescoping handle is contoured to align substantially flush with the exterior shell when the telescoping handle is in the retracted position.

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