Gravity driven ice delivery system

Abstract

An ice delivery apparatus includes an inlet configured to be coupled to a conduit configured to deliver ice therein, to be coupled to an ice collection device configured to store ice therein, and to direct ice from the conduit into the ice collection device; and a sensor coupled to the inlet and configured to measure a level of ice inside the ice collection device and to facilitate control of ice from an ice source to the conduit by such measurement.

Description

[0001] Cross-reference to related applications

[0002] This application claims the benefit of U.S. Provisional Application No. 63 / 609,840, filed December 13, 2023, which is expressly incorporated herein by reference in its entirety. Technical Field

[0003] This disclosure relates to ice delivery systems. More specifically, this disclosure relates to gravity-driven systems for delivering ice from an ice source (e.g., an ice maker) to an ice collection device (e.g., an ice storage bin or a beverage dispenser). Background Technology

[0004] Ice makers, especially commercial types, produce and deliver ice for beverages and other uses. In some customer installations, the ice maker cannot be installed on top of the ice storage tank or dispenser to which it supplies ice. For example, there may not be enough space above the ice storage tank for the ice maker, or it may need to be kept clear so as not to obstruct customer access (for aesthetic and / or practical reasons, such as being able to talk to customers). Often, several times a day, establishment staff will find it necessary to manually fill buckets or other containers with ice from an ice maker located elsewhere and then move the ice to the ice storage tank. This repetitive, time-consuming work carries its own risks (e.g., slipping on often damp and / or greasy restaurant floors while carrying heavy ice containers, and / or workers bumping into each other in a fast-paced kitchen environment). Summary of the Invention

[0005] It should be understood that this overview is not a comprehensive summary of this disclosure. This overview is exemplary and not restrictive, and is neither intended to identify key or defining elements of this disclosure nor to limit its scope. The sole purpose of this overview is to explain and illustrate certain concepts of this disclosure as an introduction to the following full and extensive detailed description.

[0006] In one aspect, an ice conveying device is disclosed, comprising: an inlet configured to be connected to a conduit configured to convey ice therein, connected to an ice collecting device configured to store ice therein, and guiding ice from the conduit to the ice collecting device; and a sensor connected to the inlet and configured to measure the level of ice inside the ice collecting device, thereby facilitating control of the ice flowing to the conduit by an ice source.

[0007] In another aspect, a method for using an ice delivery system is disclosed, which includes: moving ice from an ice source to an ice collection device using only gravity; and, when activated, a sensor automatically stops the ice source from making ice.

[0008] In another aspect, an ice conveying device is disclosed, which includes: an inlet; and a sensor.

[0009] The various embodiments described in this disclosure may include additional systems, methods, features, and advantages that are not necessarily explicitly disclosed herein, but will be apparent to those skilled in the art upon review of the following detailed description and accompanying drawings. All such systems, methods, features, and advantages are intended to be included in this disclosure and protected by the appended claims. The features and advantages of these embodiments can be implemented and obtained by means of the systems, methods, and features specifically pointed out in the appended claims. These and other features will become more apparent from the following description and appended claims, or may be learned by practicing the exemplary implementations described below. Attached Figure Description

[0010] The accompanying drawings are incorporated in and form a part of this specification, illustrating several aspects of this disclosure and, together with the specification, explaining the various principles of this disclosure. The drawings are not necessarily drawn to scale. For purposes of consistency and clarity, corresponding features and components in the drawings may be identified by matching reference numerals.

[0011] Figures 1A to 10 These are various views of an ice conveying system according to one aspect of this disclosure, wherein ice is conveyed to an ice collecting device through the wall of the ice collecting device.

[0012] Figure 1A This is a front perspective view of an ice conveying system, which includes an ice maker, a chute, a conduit, an inlet including tank controls, and an ice collection device.

[0013] Figure 1B yes Figure 1A A front view of the ice maker and chute of the ice delivery system, with the front panel of the ice maker removed.

[0014] Figure 1C yes Figure 1A Detailed front-view, top-view perspective view of the ice maker and chute of the ice conveying system.

[0015] Figure 2A yes Figure 1A A bottom perspective view of the inclined groove.

[0016] Figure 2B yes Figure 1A A top perspective view of the inclined groove.

[0017] Figure 3 yes Figure 1A A perspective view of the duct.

[0018] Figure 4 yes Figure 1APartial sectional perspective view of the ice collection device, inlet, and storage tank controls of the ice conveying system.

[0019] Figure 5 yes Figure 4 A perspective view of the feed inlet.

[0020] Figure 6 yes Figure 4 A perspective view of an ice collection device, with openings defined in the walls of the device.

[0021] Figure 7 It is configured to generate Figure 6 A perspective view of the opening of the hole saw drill bit.

[0022] Figure 8A yes Figure 1A Rear perspective view of the feed inlet.

[0023] Figure 8B yes Figure 8A Front view of the feed inlet.

[0024] Figure 8C yes Figure 8A The edge of the feed inlet Figure 8A The cross-sectional view taken from line 8-8.

[0025] Figure 8D yes Figure 8A The edge of the feed inlet Figure 8A The perspective view of the section cut by line 8-8.

[0026] Figure 9A yes Figure 1A A bottom view of the tank sensor (more specifically, the ultrasonic tank sensor) of the ice delivery system.

[0027] Figure 9B yes Figure 9A Side view of the ultrasonic tank sensor.

[0028] Figure 10 yes Figure 1A The ice delivery system's chute, duct, and ice supply unit (ice plenum) along Figure 1A The cross-sectional view taken from line 10-10.

[0029] Figures 11 to 14 These are various views of an ice conveying system according to another aspect of this disclosure, wherein ice is conveyed to the ice collecting device through the wall of the ice collecting device.

[0030] Figure 11 This is a front perspective view of an ice conveying system according to another aspect of the present disclosure, the system including an ice maker, a chute, a conduit, an inlet including tank controls, and an ice collection device.

[0031] Figure 12 yes Figure 11 A side-view front perspective view of the feed inlet.

[0032] Figure 13A yes Figure 11 A front view perspective of the left side of the ice conveying system, showing the inlet fixed to the left side of the ice collection device.

[0033] Figure 13B yes Figure 11 A front view perspective detail of the right side of the ice conveying system, showing the inlet fixed to the right side of the ice collection device.

[0034] Figure 14 yes Figure 11 A perspective view of an ice collection device, with openings defined in the walls of the device.

[0035] Figures 15 to 19 These are various views of an ice conveying system according to another aspect of this disclosure, wherein ice is conveyed to the ice collecting device through the side wall of the ice collecting device.

[0036] Figure 15 This is a partial sectional front view of an ice conveying system according to another aspect of this disclosure, the system including an ice maker, a chute, a conduit, an inlet including tank controls, and an ice collection device.

[0037] Figure 16 yes Figure 15 A front perspective view of the first part of the feed inlet.

[0038] Figure 17 yes Figure 15 A partial sectional side perspective view of the second part of the feed inlet.

[0039] Figure 18 yes Figure 15 A side perspective view of the third part of the feed inlet.

[0040] Figure 19 yes Figure 15 A bottom perspective view of the inclined groove.

[0041] Figures 20 to 31 These are various views of an ice conveying system according to another aspect of this disclosure, wherein ice is conveyed to the ice collecting device through the side wall of the ice collecting device.

[0042] Figure 20 This is a front-view perspective view of an ice conveying system, which includes an ice maker, a chute, a conduit, an inlet with tank controls, and an ice collection device.

[0043] Figure 21A yes Figure 20 A top perspective view of the inclined groove.

[0044] Figure 21B yes Figure 20 A bottom perspective view of the inclined groove.

[0045] Figure 21C yes Figure 20 A top view of the inclined groove.

[0046] Figure 21D yes Figure 20 The front or side view of the sloping groove.

[0047] Figure 22 yes Figure 20 An internal top-down perspective view of a portion of the ice conveying system, including the conduit and inlet.

[0048] Figure 23 yes Figure 20 An exploded internal top perspective view of the ice conveying unit of an ice conveying system.

[0049] Figure 24 yes Figure 20 A top perspective detail of the outer portion of the first section of the ice conveying system's inlet, configured to connect to... Figure 20 The catheter.

[0050] Figure 25A yes Figure 20 Top internal perspective view of the third part of the ice conveying system's feed inlet.

[0051] Figure 25B yes Figure 20 A top-down internal perspective view of the second part of the ice conveying system's inlet, on which the sensor portion of the thermostat tank control is assembled.

[0052] Figure 26 yes Figure 25B A perspective view of the thermostat tank controls.

[0053] Figure 27 yes Figure 20 An internal perspective view of the second part of the inlet of the ice conveying system.

[0054] Figure 28 yes Figure 20 An internal perspective view of the support or internal parts of the storage tank control electronic components.

[0055] Figure 29 yes Figure 24 The lower interior perspective view of the first part.

[0056] Figure 30 yes Figure 20 A top perspective view of the clamping fasteners or fixtures of the ice conveying system.

[0057] Figure 31 yes Figure 20 Side view of the mounting fasteners for the ice delivery system.

[0058] Figures 32 to 35 These are various views of an ice delivery system according to another aspect of this disclosure, wherein ice is delivered to the ice collection device via the rear top end.

[0059] Figure 32 This is a partial sectional front view of an ice conveying system according to another aspect of this disclosure, the system including an ice maker, a chute, a conduit, an inlet including tank controls, and an ice collection device.

[0060] Figure 33 yes Figure 32 Top perspective view of the storage tank control bracket of the ice delivery system.

[0061] Figure 34 yes Figure 32 Top perspective view of the feed inlet.

[0062] Figure 35 yes Figure 32 A top-down perspective view of the ice collection device.

[0063] Figures 36 to 39B These are various views of an ice conveying system according to another aspect of this disclosure, wherein ice is conveyed to the ice collecting device via the front top end.

[0064] Figure 36 This is a top-down front perspective view of an ice conveying system, which includes an ice source, chute, conduit, inlet with storage tank controls, and ice collection device.

[0065] Figure 37 yes Figure 36 Top-view front perspective view of the feed inlet.

[0066] Figure 38 yes Figure 36 A top-down front perspective view of the feed inlet, which is installed... Figure 36 On the top left corner of the ice collection device.

[0067] Figure 39A yes Figure 38 A detailed top-down front perspective view of the feed inlet, which is installed... Figure 36 On the top left corner of the ice collection device.

[0068] Figure 39B yes Figure 38 A detailed top-down front perspective view of the feed inlet, which is installed... Figure 36On the top right corner of the ice collection device.

[0069] Figures 40 to 51 These are various views of an ice conveying system according to another aspect of this disclosure, wherein ice is conveyed to an ice collecting device via a front top.

[0070] Figure 40 This is a top-down front perspective view of an ice conveying system, which includes a chute, a guide pipe, an inlet including tank controls, and an ice collection device.

[0071] Figure 41A This is an internal top-down perspective view of the ice conveying device, which includes... Figure 40 The feed inlet and storage tank controls.

[0072] Figure 41B This is an external top perspective view of the ice conveying device in Figure 41.

[0073] Figure 42 This is a detailed exterior top perspective view of the lower part of the ice conveying device in Figure 41.

[0074] Figure 43 It is along the ice conveying device in Figure 41 Figure 42 The cross-sectional view taken from line 43-43.

[0075] Figure 44 yes Figure 40 An exploded internal perspective view of the feed inlet.

[0076] Figure 45A yes Figure 40 An internal perspective view of the outer portion of the feed inlet.

[0077] Figure 45B yes Figure 40 A cross-sectional view of the second part of the feed inlet.

[0078] Figure 46A yes Figure 40 A front internal view of the inner part of the feed inlet.

[0079] Figure 46B yes Figure 40 A front view of the internal part of the feed inlet.

[0080] Figure 47 This is an external perspective view of the support frame of the ice conveying device in Figure 41.

[0081] Figure 48 yes Figure 47 The support along Figure 47 The cross-sectional view taken from section 48-48.

[0082] Figure 49 yes Figure 40A top-down perspective view of the storage tank controls.

[0083] Figure 50A yes Figure 49 A top-view perspective view of the tank controls, showing its sensor cone.

[0084] Figure 50B yes Figure 48 A side view of the tank control, showing its sensor cone.

[0085] Figure 51 yes Figure 40 Ice transport system along Figure 40 The front view section diagram taken from line 51-51. Detailed Implementation

[0086] This disclosure can be more readily understood by referring to the following detailed description, examples, drawings, and claims, and the description preceding and following them. However, before disclosing and describing the apparatus, system, and / or method of this application, it should be understood that, unless otherwise stated, this disclosure is not limited to the specific apparatus, system, and / or method disclosed, as these can certainly vary. It should also be understood that the terminology used herein is for the purpose of describing particular aspects only and is not intended to be limiting.

[0087] The following description is provided as a teaching to fully disclose the apparatus, system, and / or method of this application in its best, currently known aspects. Therefore, those skilled in the art will recognize and understand that many changes can be made to the various aspects described herein while still obtaining the beneficial results of this disclosure. It will also be apparent that some desirable benefits of this disclosure can be obtained by selecting some features of this disclosure without utilizing others. Therefore, those skilled in the art will recognize that many modifications and alterations can be made to this disclosure, which in some cases may even be desirable and part of this disclosure. Thus, the following description is provided as an explanation of the principles of this disclosure and not as a limitation thereof.

[0088] As used throughout, unless the context clearly indicates otherwise, the singular forms “a,” “an,” and “the” include plural referents. Thus, for example, unless the context clearly indicates otherwise, a number referring to a particular element may include two or more such elements. Furthermore, any element described herein may be a first such element, a second such element, and so on (e.g., first part and second part, even if only “part” is mentioned).

[0089] A range may be expressed herein as from “about” one particular value and / or to “about” another particular value. When such a range is expressed, the other side includes from one particular value and / or to another particular value. Similarly, when numerical values ​​are expressed as approximations, it will be understood, by using the prior “about” or “substantially”, that the particular value forms the other side. It will be further understood that the endpoints of each range are important both with respect to and independently of the other endpoint. In the context of shape, angle, direction, and orientation, unless otherwise stated, features that substantially define a particular shape define the shape, while ignoring local features that do not substantially change the shape. Furthermore, unless otherwise stated, the definition of a particular shape includes shapes that are substantially identical in shape.

[0090] For the purposes of this disclosure, material properties or dimensions measured on a specific measurement scale as approximately X or substantially X are measured within a range between X plus the industry standard tolerance for the specified measurement and X minus the industry standard tolerance for the specified measurement. Because tolerances can vary between different materials, processes, and models, the tolerance for a specific measurement of a particular part can fall within the tolerance range.

[0091] As used herein, the terms “optional” or “optionally” mean that an event or situation subsequently described may or may not occur, and the description includes both the scenario in which the event or situation occurs and the scenario in which it does not occur.

[0092] As used in this article, the word "or" refers to any single member of a particular list, and also includes any combination of members of that list. As used in this article, the phrase "at least one of A and B" means "only A, only B, or both A and B"; while the phrase "one of A and B" means "A or B".

[0093] As used herein, unless the context clearly indicates otherwise, the term "monolithic" in describing a component means a component formed as a single part of a single material without joints or seams. Unless otherwise stated herein, any structure disclosed in the drawings or written description may be monolithic, whether or not such an explicit description of the structure is included herein.

[0094] To simplify the description of the various components disclosed herein, reference may be made to the conventions of "left," "right," "front," "rear," "top," "bottom," "upper," "lower," "inner," "outer," "inboard," "outer," "horizontal," and / or "vertical." Unless otherwise stated, "front" describes the end of the ice delivery system closest to and occupied by the user of the system when approaching, for example, an ice collection device supplied by the system; "rear" is the end of the system opposite to or away from the front; "left" is the side to the left or facing left when facing forward; "right" is the side to the right or facing right when facing forward. "Horizontal" or "horizontally oriented" describes being in a plane extending from left to right and aligned with the horizon. "Vertical" or "vertically oriented" describes being in a plane at a 90-degree angle to the horizontal.

[0095] Ice delivery systems can also be used Figure 1A The XYZ coordinate axes are used for description. The X-axis can be referred to as the left-right or horizontal direction. The Z-axis is orthogonal to the X and Y axes. The Y-axis is orthogonal to the X (left-right) and Z (up-down) axes and can also be referred to as the front-back direction. Surfaces of structural elements parallel to the front-back direction can be called side surfaces.

[0096] In one aspect, this document discloses an ice delivery system and related methods, systems, apparatuses, and various devices. In one aspect, the ice delivery may include a feed port. In another aspect, the ice delivery may include bin control. The disclosed ice delivery system is easy to clean and requires minimal maintenance—has no moving parts—and can automatically deliver ice from an ice source (e.g., an ice maker) to an ice collection device (e.g., an ice storage tank or beverage dispenser) solely by gravity, without mechanical or manual intervention.

[0097] Figures 1A to 10 These are various views of an ice delivery system 50 according to one aspect of this disclosure, wherein ice (not shown) is delivered from an ice source 60 (e.g., an ice maker) to an ice collection device 70 (e.g., an ice storage tank or beverage dispenser) via a wall 75 of the ice collection device 70. More specifically, the wall 75 (which may be a side wall) may be oriented in a vertical or substantially vertical orientation (in some respects, substantially vertical means closer to a vertical orientation than a horizontal orientation). Figure 1AThis is a front perspective view of an ice conveying system 50, which may include an ice source 60, an ice collection device 70, and an ice conveying device 100. The ice conveying device 100 may include a chute 110. The ice conveying device 100 may include a conduit 120. The ice conveying device 100 may include an inlet 130. More specifically, the inlet 130 may include a tank control 150 (or the tank control 150 may be considered separate from the inlet 130).

[0098] As shown, the inlet 130 can be specifically mounted to the side wall 75 of the ice collection device 70, which can be a beverage dispenser and / or an ice dispenser as shown. While not strictly necessary, the chute 110 can be connected to an ice maker or ice source 60, and in some respects, can protrude beyond the bottom of the ice source 60, as shown. The ice source 60 itself can be attached to any location above the ice collection device 70. For example, and not limited to, the ice source 60 can be suspended from a wall or ceiling, or suspended from or on any raised structure. More specifically, the ice source 60 can be supported by an ice source support 1110 (e.g., in...). Figure 11 (As shown) It is suspended from the wall or ceiling, or from any elevated structure. In some aspects, as shown, the ice conduit or conduit 120 may be connected to the chute 110, which may be connected to the ice source 60, or even form part of the ice source 60. In some aspects, the conduit 120 may be directly attached to the top of the evaporator 63 or the ice supply manifold 65 of the ice source 60. More specifically, the conduit 120 may bypass the chute 110, or another adapter or portion of the ice source 60 may reduce the opening 68 at the bottom of the machine (in Figure 1C The dimensions of the conduit 120 (shown in the diagram) are designed to substantially match, and more specifically to surround or seal, the junction or connection between the conduit 120 and the ice source 60. More specifically, the chute 110 or other geometry of the system 50 or the ice source 60 may define a geometry in which a portion of the inner diameter of the ice source 60 transitions to the inner diameter of the ice delivery device 100 (more specifically, the conduit 120). The conduit 120 may define a first end 125 and a second end 126. In some aspects, as shown, the tank control 150 may be or may include an ultrasonic tank control.

[0099] Figure 1B yes Figure 1A A front view of the ice source 60 and the chute 110 of the ice conveying system 50, wherein the front panel 62 of the ice source 60 (in) Figure 1A(As shown in the image) is removed. Ice source 60 may be or may include an ice block source. More specifically, ice source 60 may produce or otherwise supply discrete ice blocks that may define an average diameter. In some aspects, the ice may define a constant or substantially constant diameter (within a range commensurate with the repeatability of the ice formation process). Ice source 60 itself may define an enclosure 61, which may include a front panel 62. Ice source 60 may include an evaporator 63. Ice source 60 may include a motor 64 that may drive an auger (not shown) positioned within the evaporator 63 and configured to rotate within the evaporator 63. Ice source 60 may include an ice supply manifold 65 that may be coupled to the evaporator 63 and may guide ice from the evaporator to separate ice supply plenums or elements 66 (in the image). Figure 1C and Figure 10 (As shown in the diagram), the cavity or component may be coupled to the chute 110 or define the chute 110 itself. The ice source 60 may include an extruder and a cutter (both not shown), which may be configured to produce ice cubes of a specific size and shape. The ice source 60 may include a compressor 67 and refrigerant tubing 69 for connecting components to the ice source, a portion of which may be configured to receive refrigerant as a heat transfer medium and may be in fluid communication with each other. For example, but not limited to, the ice source 60 may be or may include a Hoshizaki F-2001 modular ice maker for producing flaked ice.

[0100] Figure 1C yes Figure 1A A front-view top perspective detailed view of the ice source 60 and chute 110 of the ice delivery system 50. In some aspects, an instance of the tank control 150 may be coupled to the ice source 60. In some aspects, as described below, the tank control 150 or another instance thereof may be coupled to the ice collection device 70, or may be housed within the ice collection device 70.

[0101] Figure 2A yes Figure 1A A bottom perspective view of the inclined groove 110. Figure 2B This is a top perspective view, showing that the groove can define an axis 111, a top or first end 115, and a bottom or second end 116. As shown, the groove 110 can be tapered, and more specifically, the second end 116 can be smaller than the first end 115. More specifically, the groove 110, and more specifically, its tapered portion 230, can define a tapered shape or surface and its inner surface 211 (in... Figure 2B(shown in the diagram) and / or outer surface 212. In some aspects, the sidewalls of the chute 110 may be angled relative to the axis 111 at an angle 270°, and in some aspects, this angle may be measured to be 45 degrees or less. In some aspects, the angle 270° may be 30 degrees or less. In some aspects, such as Figure 19 As shown, angle 270 can be 20 degrees or less. In some aspects, angle 270 can be 30 degrees or less. In some aspects, groove 110 can define a smooth inner surface 211.

[0102] In some aspects, ridges (not shown) may extend radially inward from the inner surface 211 to reduce the tendency of ice to adhere to the inner surface 211 as it moves through the chute 110. The ridges may extend in the longitudinal direction or in a plane intersecting the axis 111 upward along the tapered portion 230 of the chute 110. More specifically, a plurality of ridges may be spaced at regular angular intervals around the circumference of the chute 110 and may define a height of at least 1 or 2 mm in a direction perpendicular to the inner surface. In some aspects, the ridges may be formed in the inner surfaces of other portions, such as, but not limited to, the inner surface of the outer portion 430 of the inlet 130. In some aspects, it is advantageous to convey drier ice with the ice conveying system 50, because wetter ice tends to adhere more readily to the various inner surfaces of the ice conveying device 100.

[0103] The chute 110 can be configured to collect ice into the conduit 120. Ends 115 and 116 can be configured to engage the ice source 60 and the conduit 120, respectively. The first end 115 of the chute 110 can be sized to accommodate a portion of the ice maker that connects the ice supply manifold 65 and / or ice supply element 66 to the chute 110. More specifically, the chute 110 may include a first connecting portion 240 located at or near the first end 115 and a second connecting portion 250 located at or near the second end 116. Each of the connecting portions 240 and 250 may extend from the tapered portion 230 and may define a cylindrical surface. In some aspects, as shown, the chute 110 may include a flange 220 that may be positioned on or near the first end 115 and may extend outwardly in a radial direction relative to the axis 111. In some respects, the first end 115 may define a flange, the diameter of which may be larger than the diameter of the second end 116. For example... Figure 10 As shown, the size of the second end 116 of the inclined groove 110 can be adjusted to accommodate the conduit 120 (in Figure 3 (As shown in the image)

[0104] Figure 3 yes Figure 1AA perspective view of conduit 120. Conduit 120 may be a pipe or tube or other structure defining a configuration for allowing ice source 60 (in) Figure 1A (Shown in the image) The wall through which ice manufactured or supplied passes. The conduit 120 may define an axis 301, an inner surface 311, and an outer surface 312. In some aspects, the conduit 120 may be flexible to follow any path required or desired by the user based on the relative positions of the ice source 60 and the ice collection device 70. More specifically, the conduit 120 may be or may include a polymeric material, such as, but not limited to, polyvinyl chloride tubing or similar materials, and may be food-grade. In some aspects, the conduit 120 may be braided or reinforced. The conduit 120 (more specifically, the inner surface 311) may define an aperture 318, which may define an inner diameter (ID) 371. The conduit 120 (more specifically, the outer surface 312) may define an outer diameter 372. In some aspects, the inner diameter 371 may be measured as 2.0 inches, and the outer diameter 372 may be measured as 2.5 inches. The wall thickness 315 may therefore be measured as 0.25 inches or at least 0.25 inches. The size of the conduit can be adjusted or otherwise configured to allow ice produced by the ice source 60 to pass through it. In some respects, the ice can be in the shape of so-called small cubes, which can be measured to have an average diameter of 10 to 15 millimeters, and can be irregular in shape (i.e., not spherical or some other strictly mathematically defined regular geometric shape). The conduit 120 (more specifically, its inner diameter 371) can be equal to or greater than 2.0 inches.

[0105] Figure 4 yes Figure 1AA partially sectional pre-perspective view of the ice collection device 70, inlet 130, and tank control 150 of the ice delivery system 50. In some aspects, an opening 78 may be defined in the ice collection device 70 (and / or inlet 130), which may be manufactured in a separate manufacturing facility or plant by designing one or more panels or housings of the ice collection device 70. The inlet 130 may be made of one or more components that may seal both sides of a passage through the wall 75 of the ice collection device 70, engage with each other, and limit or eliminate any edges from which ice may get stuck. The ice collection device 70 may also define a bin cavity 480 from which a user of the ice collection device 70 may remove or take away ice (e.g., for preparing chilled beverages for a customer). As shown, the inlet 130 may define a body 410, which may include an inside portion 420 and an outside portion 430. The tank control 150 may be coupled to or assembled to the inlet 130. More specifically, the tank control 150 can be coupled to the outer portion 430. As shown, one or both of the inner portion 420 and the outer portion 430 can be configured to rotate relative to each other and / or the ice collection device 70.

[0106] Figure 5 yes Figure 4 A perspective view of the feed inlet 130 and the tank control 150. As shown, one or more of the inner portion 420, the outer portion 430, or another portion of the feed inlet 130 can be aligned and assembled along the main axis 501, which can be aligned with the opening 78 (in Figure 6 (shown in) axis 601 (in) Figure 6 (As shown in the diagram) Alignment. In some respects, as shown, the second axis or axis 502 of the feed inlet 130, or a portion thereof, may be aligned with the main axis 501 at an angle of 87° (in the diagram). Figure 8B (as shown in the diagram) at an angle. In some respects, axis 502 or a portion of axis 502 may be angled relative to the second end 126 of catheter 120 (as shown in the diagram). Figure 1A (as shown in) or its axis 301 (in) Figure 3(As shown) at an angle 872 of 45 degrees or less. In some aspects, angle 872 may be 45 degrees or less. In some aspects, angle 872 may be 30 degrees or less. In some aspects, angle 872 may be 20 degrees or less. In some aspects, angle 872 may be 10 degrees or less. In some aspects, axis 502 or a portion thereof may be aligned with the second end 126 of conduit 120 or its axis 301 (i.e., angle 872 may be zero). As shown, tank control 150 may be received within a cavity 538 defined in inlet 130 (more specifically, its outer portion 430). Tank control 150 may be secured to inlet 130 with fastener 590.

[0107] The inner portion 420 of the inlet 130 may at least partially define an annular shape. The inner portion 420 may define a body 520, which may include a main portion 522 that may define a cylindrical shape and one or more cylindrical surfaces. The body 520 may further define a flange 524 that extends from and may be angled relative to the main portion 522, and may be configured to fix the position of the inner portion 420 relative to the ice collecting device 70, and / or seal the opening 78 that may be defined therein.

[0108] The outer portion 430 of the inlet 130 may at least partially define an annular shape. The outer portion 430 may define a body 530, which may include a main portion 532 defining a cylindrical shape and one or more cylindrical surfaces. The body 530 may further define a flange 534 extending from and angled relative to the main portion 532, and configured to fix the position of the outer portion 430 relative to the ice collection device 70, and / or seal the opening 78. The outer portion 430 may define a conduit element or conduit adapter 550 to which the conduit 120 may be more directly assembled, or more specifically, accommodated.

[0109] Figure 6 yes Figure 4 A perspective view of an ice collection device 70, wherein an opening 78 is defined in its wall 75. In some respects, the opening 78 can be manufactured or formed on-site—and in any case, after the assembly of the ice collection device 70. As shown, the opening 78 can be defined in a circular shape. The size of the opening 78 can be adjusted or the opening 78 can be otherwise configured to receive the inlet 130 and / or the conduit 120 (in...). Figure 1A (As shown in the diagram), they can define a common diameter. When installing the ice delivery system 50 (in... Figure 1AAs shown in the figure, the conduit 120 can be cut to a certain length based on the distance between the ice source 60 and the ice collection device 70 and the relative positioning of the ice source 60 with respect to the ice collection device 70.

[0110] Figure 7 This is a perspective view of tool 710, which can be configured to be used in ice collection device 70 (in... Figure 6 (as shown in the image) generated in Figure 6 The opening 78 is formed during the cutting operation using a tool 710. More specifically, the tool 710 can be or may include a hole saw or hole saw drill 710 (e.g., the hole saw shown), which can be of common sizes (e.g., defining an outer diameter 717 of 4'') and can be configured to adapt to any ice collection device 70 and any ice delivery system 50. The tool 710 may include a mounting shaft 720, a cutting section 730, and a pilot drill 740.

[0111] Figure 8A yes Figure 1A Rear perspective view of the feed inlet 130. Figure 8B This is a front view. As shown, the dimensions of cavity 538 can be adjusted or cavity 538 can be otherwise configured to accommodate tank controls 150 therein. Cavity 538 may include mounting holes 838, which can be configured to receive fasteners 590 (in...). Figure 5 As shown in the figure, the fastener can secure the tank control 150. As shown, a portion of the inlet 130 (more specifically, for example, its outer portion 430, such as, but not limited to, the body 530 and the conduit adapter 550) can be circular in shape.

[0112] Figure 8C yes Figure 8A A cross-sectional view of the feed inlet 130. Figure 8D This is a cross-sectional perspective view, along each... Figure 8A Line 8-8 is cut off. In some aspects, as shown, adjacent portions of the outer portion 430 may define a pointed intersection. In some aspects, the intersection may be replaced by a rounded or smooth shape and may define a radius R. In some aspects, the inlet 130, and even its outer portion 430, may be formed by a plurality of components that rotate relative to each other. The walls of the inlet 130 may be angled and / or the edges may be shaped to restrict or eliminate the collection or capture of moisture (e.g., from melting ice) or ice itself. Figure 8DAs shown, the bottom or inner end of the cavity 538 may define an opening 888 that allows a sensor (e.g., an ultrasonic sensor) of the tank control 150 to acquire the level or quantity of ice (more specifically, ice stored inside the ice collection device 70), thereby controlling the ice source 60 by turning it on and off as needed.

[0113] Figure 9A yes Figure 1A A bottom view of the tank control 150 (more specifically, the ultrasonic tank sensor 290) of the ice delivery system 50. Figure 9B This is a side view. The ultrasonic tank sensor 290 may include a lens 1430 through which ultrasonic pulses or signals can be emitted and received. The ultrasonic tank sensor 290 may include a body 1410. The ultrasonic tank sensor 290 may be secured by a single fastener (not shown) through a hole 1490 defined in a mounting flange 1420. The body 1410 may define an axis 1411, a first end 1415, and a second end 1416 remote from the first end 1415. The diameter 1470 of the body 1410 may be sized to fit within a cavity 538 and / or an opening 888, which may be defined in any of the various configurations disclosed herein (e.g., conduit 120 or inlet 130). A connector 1450 may connect the ultrasonic tank sensor 290 to an ice source 60 (in... Figure 1A (As shown in the figure), it is used to transmit the original ultrasonic pulse and its return signal via lead 1460. In various aspects, the tank control 150 may be as disclosed in U.S. Patent No. 11,255,588, issued February 22, 2022, the entire contents of which are incorporated herein by reference.

[0114] Figure 10 yes Figure 1A The ice conveying system 50 includes a chute 110, a conduit 120, and an ice supply element 66 along... Figure 1A The cross-sectional view is taken from line 10-10. As shown, the ice supply element 66 can be fitted inside the inclined groove 110, and the inclined groove can be fitted inside the conduit 120. Figure 1AAs shown, the conduit 120 can be fitted inside the inlet 130. More generally, the various connections between the multiple sections or elements of the ice conveying system 50 can be configured such that ice passing through it does not come into contact with edges or surfaces or any other physical bottlenecks or obstacles that would or could cause ice buildup or blockage, including the ice conveying system 50 over the entire distance between the chute 110 and the location where the ice enters the ice collection device 70. Except, for example, where the tapered portion of the chute 110 guides the ice into the first end 125 of the conduit 120, the diameter 1072 of the "downstream" component can generally be larger than the diameter 1071 of the "upstream" component, and the upstream component can generally be housed within the downstream component. In some aspects, such as Figure 13A As exemplarily shown, the downstream component can be housed within the upstream component, and the various edge shapes of the downstream component (e.g., rounded or chamfered) facilitate the smooth passage of ice.

[0115] Figures 11 to 14 These are various views of an ice conveying system 50 according to another aspect of this disclosure, wherein ice is conveyed to an ice collecting device 70 through a wall 75, which may again be a side wall, as shown. Figure 11 This is a front perspective view of an ice delivery system 50 according to another aspect of this disclosure, which may include an ice source 60, a chute 110, a conduit 120, and a storage tank control 150 (in... Figure 5 The ice conveying system 50 includes an inlet 130 (shown in the diagram) and an ice collection device 70. The ice conveying system 50 may include an ice source support 1110, which may be a bracket and can support the weight of the ice source 60. In some aspects, as shown, the ice source support 1110 may be oriented vertically. The ice source support 1110 may be fixed to a surrounding structure (e.g., a restaurant wall), and the ice source 60 may be fixed to the ice source support 1110.

[0116] Figure 12 yes Figure 11 A side front perspective view of the feed inlet 130. As shown, the feed inlet 130 may be defined in a rectangular or substantially rectangular shape. More specifically, Figure 13A yes Figure 11 A left-side front view of the ice conveying system 50, showing the inlet 130 fixed to the left side of the ice collecting device 70. Figure 13B yes Figure 11 The right-side front view of the ice conveying system 50 shows the inlet 130 fixed to the right side of the ice collecting device 70. The inlet 130 can thus be installed in any of a number of locations and orientations on the ice collecting device 70; only representative left-side and right-side installations are shown.

[0117] Figure 14 yes Figure 11A perspective view of an ice collecting device 70, in which an opening 78 is defined in the wall of the device. As shown, the ice collecting device 70 may define the opening 78 in a rectangular shape, which may be configured to accommodate a feed inlet 130.

[0118] Figures 15 to 19 These are various views of an ice conveying system 50 according to another aspect of this disclosure, wherein ice is once again conveyed to the ice collecting device 70 via the side wall 75 of the ice collecting device 70. Figure 15 This is a front view of an ice delivery system 50 according to another aspect of this disclosure. The system may include an ice source 60, a chute 110, a conduit 120, an inlet 130 including a tank control 150, and an ice collection device 70. In some aspects, as shown, a large portion of the chute 110, or the entire "funnel" or conical portion of the chute 110, may be housed within the ice source 60 and is also concealed within the ice source 60 (more specifically, the ice maker shown). The tank control 150 may be or may include a thermostat tank control, in which case its sensing portion 2630 (in...) Figure 26 (As shown) can come into contact with or become contact with the ice accumulating in the ice collection device 70, and can send a signal to shut off the ice source 60 when enough ice has accumulated, which can be based on predetermined settings. As shown, the conical or "funnel" portion of the chute can be positioned above the bottom of the ice maker and is also hidden inside the ice maker.

[0119] Figure 16 yes Figure 15 A front perspective view of the first portion of the outer portion 430 or the conduit portion 1630 of the inlet 130. A portion of the outer portion 430 can be secured around the conduit 120 using a groove 1680 defined in the outer portion 430, which can facilitate the contraction of the conduit adapter 550 (more generally, the outer portion 430) around the conduit 120. Mounting on the left or right side of the ice collection device 70 can be adapted by simply adjusting the orientation of the outer portion 430 and any other mating part. The locking feature 1650 may include a recess or protrusion that can be defined in the tube and can resist the hose clamp 3010 (in Figure 30 (As shown in the diagram) slides off or along the conduit 120. The positioning geometry 1660 may be a tab or other protrusion, or even a mark on the surface of the inlet 130, to indicate to the user the outer portion 430 to be used on the ice collection device 70 or on a separate portion of the inlet (e.g., but not limited to the second portion or the tank control portion or the tank control electronics portion 1730). Figure 17One or more corresponding visual indicators or markings (shown in) 1770 Figure 17 (As shown in the diagram) the aligned portion, this positioning pattern can act as a visual indicator of the correct or desired orientation of the outer portion 430 (more generally, the feed inlet 130). As shown, the axis 501 defined by the second end of the outer portion 430 (more generally, the feed inlet 130) can be angled relative to the axis 502 defined by the first end of the outer portion 430 (more generally, the feed inlet 130). In some aspects, such as Figure 8B and Figure 8C As shown, axis 502 can be considered as changing direction from the first end to the second end, and / or including a second portion (e.g., the portion defining the second end, which in some respects may be cylindrical and / or have a circular cross-section), which is at an angle relative to the first portion (e.g., the portion defining the first end, which in some respects may be cylindrical and / or have a circular cross-section).

[0120] Figure 17 yes Figure 15 A side perspective view of the tank control electronics portion 1730 of the feed inlet 130. The tank control electronics portion 1730 may include a housing or enclosure 1710 that can house the body 1750, associated electronics, and wiring connections of the tank control 150. As shown, the tank control 150 may be or may include a thermostatic tank control. One or more strain relief fittings 1790 may allow wiring to safely exit from the enclosure 1710 to the ice source 60 (in... Figure 1A (as shown in the diagram), and reduces stress that could damage connections inside the housing 1710. The housing 1710 may be grounded for safety and may have separate outlets for high and low voltage. As shown, the housing 1710 may accommodate a conduit portion 1630 via an attachment lug 1720 that extends (e.g., upward) from the housing 1710 and may define an opening 1728 therein to specifically accommodate the conduit portion 1630. A marking 1770 may be defined in or protrude from a portion of the tank control electronics portion 1730 (e.g., but not limited to, the attachment lug 1720). The tank control electronics portion 1730 may define a shoulder 1734 that may provide additional surfaces to contact and support the conduit portion 1630.

[0121] Figure 18 yes Figure 15A side perspective view of the inner portion 420 of the feed inlet 130. The inner portion 420 may be the tank control sensing portion 1830, which can be accommodated in the opening 78 in the ice collection device 70 (in Figure 6 As shown, the inner portion 420 can guide ice through an opening 1838 defined therein, which defines an axis 501. Additionally, as shown, the inner portion 420 can accommodate a temperature sensor portion or sensor portion 2630 (in...) Figure 26 (As shown in the diagram) The storage tank control electronics section 1730 (in the feed inlet 430) Figure 17 The housing 1710 (shown in the figure) is guided into the ice collection device 70. More specifically, as shown, the inner portion 420 may allow the sensor portion 2630 to pass through an opening 1888 defined therein, which may be adjacent to and offset from the opening 1838.

[0122] As shown, the tank control sensing portion 1830 may accommodate the pipe portion 1630 via an attachment lug 1820, which extends (e.g., upwardly) from a peripheral portion of the body 520 of the tank control sensing portion 1830 and may define corresponding openings 1838, 1888 therein to specifically accommodate the pipe portion 1630 and the sensor portion 2630. The tank control sensing portion 1830 may define a shoulder 1834, which may provide additional surfaces to contact and support the pipe portion 1630.

[0123] The tank control sensing portion 1830 may include a thermistor bracket or a bracket portion 1850 that can hold the thermostat sensor portion 2630 in a desired position. The bracket portion 1850 (more generally, the tank control sensing portion 1830) may include or define various features to maintain the precise position of the sensor portion 2630 and / or protect the sensor portion 2630 from damage. For example, and not limited to, the bracket portion 1850 may include lugs 1852, 1854, and 1856, each of which may define one or more openings or recesses 1858. In some aspects, the bracket portion 1850 may include a lug, ring, or retainer 1840 that can hold at least a portion of the sensor portion 2630. As shown, the retainer 1840 may extend upward from the lower portion of the bracket portion 1850 and may define a cavity 1848 that can accommodate the sensor portion 2630. In some respects, the ice diverter portion 1860 can be extended to prevent ice from traveling upwards. In some respects, such as... Figure 25AAs shown, the ice deflector section 1860 is absent. As shown, the inclined flange 1870 can define an overhang at the top of the support section 1850, which can cover or protect the sensor section 2630 from above, and more specifically, protect it from contact with objects above the inclined flange 1870. The support section 1850 can be integrally formed with the rest of the tank control sensing section 1830 to ensure proper positioning, or it can be formed separately. In some aspects, as shown, a left-hand version can be provided, which can be assembled to the internal left side wall or panel of the ice collection device 70. In some aspects, a right-hand version can be provided, which can be assembled to the internal right side wall or panel of the ice collection device 70.

[0124] Figure 19 yes Figure 15 A bottom perspective view of the sloping groove 110. The sloping groove 110 may include a flange body or a flange 1920, which may extend at or from the tapered portion 230, or near the second end 116 of the sloping groove 110, at least radially relative to the axis 111. The flange 1920 may engage an opening 68 in the bottom end of the ice source 60 or other receiving portion (in... Figure 1C As shown in the diagram. As described above, the second connecting portion 250 can engage the catheter 120 (in...). Figure 1A (As shown in the image).

[0125] Figures 20 to 31 These are various views of an ice conveying system 50 according to another aspect of this disclosure, wherein, again, ice is conveyed to the ice collecting device 70 through the side wall 75 of the ice collecting device 70. Figure 20 Specifically, this is a front-view top perspective view of an ice conveying system 50, which may include an ice source 60, a chute 110, a conduit 120, and a storage tank control 150 (in...). Figure 25B The feed inlet 130 and ice collection device 70 are shown in the diagram. Again, the tank control 150 may be or may include a thermostat tank control. In some aspects, as shown, the conduit 120 may be rigid, i.e., not intended to deform or change its shape during operation of the ice delivery device 100.

[0126] Figure 21A yes Figure 20 Top perspective view of the inclined groove 110, Figure 21B It is a perspective view taken from below. Figure 21C It is a top view. Figure 21D This is a front view or a side view. Again, the flange 1920 may be a tapered portion 230 or extend radially from another surrounding portion of the groove 110 near the second end 116 of the groove 110, and may engage the opening 68 in the bottom end or other portion of the ice source 60 (in... Figure 1C (As shown in the image).

[0127] Figure 22 yes Figure 20 An internal top-view perspective view of the ice conveying device 100 of the ice conveying system 50. Figure 23 This is an exploded internal top perspective view, showing the device including a conduit 120 and an inlet 130. The device 100 may include a bracket 2210 for securing the device 100 (more specifically, the outer portion 430 of the inlet 130) to the ice collecting device 70 (more specifically, its wall 75). As shown, the inlet or another portion of the device 100 may include instances of multiple brackets 2210 that may be symmetrically positioned around the device to facilitate assembly of the device to the left or right side of the ice collecting device 70 or some other location on the ice collecting device 70. In some aspects, as shown, the bracket 2210 may be integral or integrally formed with the inlet 130 or another portion of the device 100. The inlet 130 (more specifically, its outer portion 430) may include a lower section 2232 and an upper section 2234. Either or both of the lower portion 2232 and the upper portion 2234 may define an elbow 2270 to alter the direction and / or velocity of ice passing through the conduit 120 (more generally, device 100). In some respects, the lower portion 2232 and the upper portion 2234 may be separate components. In some respects, the lower portion 2232 and the upper portion 2234 may be integral or integrally formed with each other or with the inlet 130. Additionally, as shown, the housing 1710 may include an inner portion 2310 and an outer portion 2320. More specifically, the tank control 150 and other components, such as, but not limited to, a stress-relieving fitting 1790, may be secured to the inner portion 2310, and the inner portion 2310 may be partially or completely contained within the outer portion 2320.

[0128] Figure 24 yes Figure 20 A top-view perspective detail of the upper part 2234 of the outer portion 430 of the inlet 130 of the ice conveying system 50, which can again be configured to connect to... Figure 20 The conduit 120. Again, the diameter 1670 of the end 1615 of the outer portion 430 (specifically, the upper portion 2234 of the inlet 130) can be adjustable. More specifically, the groove 1680 can facilitate the opening of the upper portion 2234 to flexibly receive the conduit 120 and / or facilitate the fastening of the upper portion 2234 around the conduit 120 (e.g., using...). Figure 30(Hose clamp 3010 shown). The upper tube or upper end of the integrally formed tube and / or inlet can be secured around the ice conduit using a groove 1680, which allows the upper portion 2234 to contract around the conduit 120. The upper portion 2234 can be adapted for mounting on the left or right side of the ice collection device 70 using, for example, a bracket 2210 and any other features on both sides. More specifically, the bracket 2210 can define a groove 2218 through which fasteners can extend and secure the bracket 2210. In some aspects, the bracket 2210 may include reinforcing ribs 2410 to enhance the strength of the connection. Again, a locking feature 1650 can be defined in the upper portion 2234 (or in the lower portion 2232) and can prevent the hose clamp 3010 from slipping off or along the upper portion 2234.

[0129] Figure 25A yes Figure 20 An internal perspective view of the inner portion 420 of the inlet 130 of the ice conveying system 50 (more specifically, the ice conveying device 100). The support portion 1850 may be separate from or integrated with the inlet 130, and again, this support portion may be attached to the inner wall 75 of the ice collecting device 70. As shown, the support portion 1850 does not need to include an inclined overhang or "top cover" or inclined flange 1870 extending across the length of the support portion 1850 (in... Figure 18 (as shown in the diagram). However, a portion of the support portion 1850 (e.g., but not limited to, the retainer 1840 or its top 1846) may extend and cover the sensor portion 2630 of the tank control 150 (in the diagram). Figure 25B (as shown in the image) at least a portion of.

[0130] Figure 25B yes Figure 20 A top internal perspective view of the inner portion 420 of the inlet 130 of the ice conveying system 50 (more specifically, the ice conveying device 100), on which the sensor portion 2630 of the thermostat of the tank control 150 is mounted. A portion of the sensor portion 2630 may be protected or shielded by a sleeve 2510 to prevent it from being affected by ice inside the ice collection device 70. The sensor portion 2630 may extend through or around lugs 1852, 1854, 1856 (in... Figure 18 (as shown in the figure), thus it can be fixed to the bracket portion 1850.

[0131] Figure 26 yes Figure 25BA perspective view of the tank control 150, again, the controller may be or may include a thermostat tank control. The thermostat tank control 150 may be or may include a Robertshaw A-Series Ranco thermostat available from Itasca, Illinois. As shown, the thermostat tank control 150 may include an adjustment dial 2610, with the temperature setting (i.e., the temperature at which the thermostat is activated) adjustable.

[0132] Figure 27 yes Figure 20 An internal perspective view of the outer portion 430 of the inlet 130 of the ice delivery system 50 (more specifically, the ice delivery device 100). The housing 1710 can receive and house the body 1750 of the thermostat tank control 150 and its wiring. The housing being formed of multiple parts facilitates the removal of the tank control electronics portion 1730, allowing easier access to internal components and wiring. The housing 1710 (more specifically, the outer portion 2320) may include an external lug or lug 2740 that can engage with the outer portion 430 (in...) Figure 29 (As shown in the diagram) interacts with and facilitates the positioning of the outer portion 430, and can engage its flange 534. In some aspects, a notch or opening may be defined in the housing 1710 or the ice collecting device 70, and a lug 2740 may be defined in the outer portion 430. The housing 1710 (more specifically, the outer portion 2320) may include an inner lug or a lug 2750, which can engage with the inner portion 2310 (as shown in the diagram) and facilitates the positioning of the outer portion 430, and can engage its flange 534. Figure 28 (As shown in the diagram) interacts with and facilitates the positioning of the inner portion 2310. The housing 1710 (more specifically, the outer portion 2320) may define an opening 2780 that can interact with the inner portion 2310 (as shown in the diagram). Figure 28 (shown in the diagram) interacts and allows wiring to pass through the housing and reach the ice source 60. An opening (not shown) allows the sensor portion 2630 of the tank control 150 to pass through the wall 75 of the ice collection device 70 from the housing 1710 and into the tank cavity 480.

[0133] Figure 28 yes Figure 20An internal perspective view of the support or internal portion 2310 of the storage tank control electronics section 1730. In some aspects, either or both of the internal and external portions 2320 may comprise or be formed of polymer material in any desired shape, more specifically, with respective intersecting panels that may be angled relative to each other as shown. In some aspects, either or both of the internal and external portions 2320 may comprise or be formed of metallic material (e.g., sheet metal) in any desired shape, more specifically, with respective intersecting panels as shown. One or more openings 2880 may be defined in the internal portion 2310 and may accommodate stress-relieving fittings 1790 (in... Figure 17 (As shown in the image).

[0134] Figure 29 yes Figure 23 An internal perspective view of the lower portion 2232 of the outer portion 430 of the ice delivery device 100. The lower portion 2232 may define the body 530, more specifically, the main portion 532, the flange 534, and the conduit adapter 550. The lower portion 2232 may support the tank control electronics portion 1730, which is located at least partially on the outer side of the ice collection device 70. The lower portion 2232 may support the inner portion 420, which is located at least partially on the inner side of the ice collection device 70. The lower portion 2232 (more generally, the outer portion 430) may define a mating notch 2980, which can engage with the lug 2740 (in Figure 27 and Figure 45B (As shown in the diagram) Align and engage. When the lower portion 2232 is rotated to the desired orientation, the flange 534 can prevent axial movement of the lower portion 2232 relative to the tank control electronics portion 1730 or the inner portion 420 of the inlet 130.

[0135] Figure 30 yes Figure 20 A top perspective view of the clamping fastener or jig 3010 of the ice delivery system 50 (more specifically, the ice delivery device 100). The jig 3010 can be adjusted by rotating the fastener 3090, which engages an opening 3028 defined in the strap 3020, thereby increasing or decreasing the inner diameter of the jig 3010. The fastener 3090 can be a tool-free fastener (to facilitate quick cleaning and / or simplify adjustment), or it can be a tool-required fastener (to prevent unauthorized alteration).

[0136] Figure 31 yes Figure 20A side view of the mounting fasteners or fasteners 3110 of the ice delivery system 50 (more specifically, the ice delivery device 100). Fastener 3110 may include a head 3112 and a tail 3114, the tail extending from the head 3112. Mounting fasteners 3110 (e.g., thumbscrews) secure one or more parts of system 50 (more specifically, device 100) to the ice collection device 70. Mounting fasteners 3110 may be tool-free (to simplify adjustment) or tool-required (to prevent unauthorized alterations).

[0137] Figures 32 to 35 These are various views of an ice conveying system 50 according to another aspect of this disclosure, wherein ice is conveyed to the ice collecting device 70 via the rear top of the ice collecting device 70. Figure 32 This is a partial sectional front view of an ice conveying system 50 according to another aspect of this disclosure. The system may include an ice source 60, a chute 110, a conduit 120, an inlet 130 including a tank control 150, and an ice collecting device 70. More specifically, the inlet 130 (or more directly, the conduit 120) may be fixed to the top rear portion of the ice collecting device 70. Thus, the inlet 130 or the conduit 120 may extend through a horizontal surface or wall of the ice collecting device 70.

[0138] Figure 33 yes Figure 32A top perspective view of a tank control bracket 3300 of an ice delivery system. The tank control bracket 3300 may be separate from the inlet 130 and may be fixed to the inner top surface or other internal surface of the cavity 480 of the ice collection device 70. The tank control bracket 3300 may include a main panel 3310. The tank control bracket 3300 may include one or more side flanges 3320, each side flange extending from the main panel 3310 and angled relative to the main panel 3310. The tank control bracket 3300 may include one or more mounting flanges 3330, each mounting flange extending from the side flange of one or more side flanges 3320 and angled relative to the respective side flange 3320. The main panel 3310 may be angled relative to the mounting flanges at an angle 3370, thereby allowing the tank control 150 to be positioned facing an angled direction relative to the surface on which the tank control 150 is mounted. More specifically, as shown, the tank control 150 may be mounted at a fixed angle relative to a vertical orientation. The tank control bracket 3300 may define a cavity 3308 and a mounting opening 3318, the dimensions of which may be adjusted or otherwise configured to accommodate the tank control 150. The tank control bracket 3300 may define a mounting opening 3380, the dimensions of which may be adjusted or otherwise configured to accommodate a fastener (not shown) configured to attach the tank control bracket 3300 (more generally, the ice conveying device 100) to the ice collecting device 70.

[0139] Figure 34 yes Figure 32 A top perspective view of the inlet 130. The inlet 130 can be configured to receive the conduit 120 and guide ice into and through an opening in the top horizontal surface of the ice collection device 70. The inlet 130 can define a mounting opening 3480, the size of which can be adjusted and otherwise configured to receive a fastener (not shown) configured to attach the inlet 130 (more generally, the ice conveying device 100) to the ice collection device 70. As shown, axis 502 can be aligned with axis 501. More specifically, ice can be driven through the ice conveying device 100 without unnecessarily changing the direction of the ice.

[0140] Figure 35 yes Figure 32 A top perspective view of the ice collection device 70. As with other embodiments, the inlet opening 78 can be added at the factory or on-site and can be positioned to accommodate other structures on top of the ice collection device 70 (e.g., but not limited to, the inlet valve, the grille, and the various panels of the beverage dispenser shown).

[0141] Figures 36 to 39BThese are various views of an ice delivery system 50 according to another aspect of this disclosure, wherein ice is delivered to the ice collection device 70 via the front top end of the ice collection device 70. Figure 36 This is a top-down front perspective view of an ice conveying system 50, which includes an ice source 60, a chute 110, a conduit 120, an inlet 130 including a tank control 150, and an ice collection device 70. More specifically, the inlet 130 can be fixed to the top front corner of the ice collection device 70.

[0142] Figure 37 yes Figure 36 A top front perspective view of the inlet 130. The inlet 130 and the tank control bracket 3300 may be integrally formed (as shown) or may be formed separately from each other. The tank control bracket 3300 may incorporate any or all features of the inlet 130, or vice versa, as needed. Each of the inlet 130 and the tank control bracket 3300 may include one or more flanges or hooks 3710 that may engage adjacent walls 75 of the ice collection device 70. The tank control bracket 3300 may position the tank control 150 (e.g., an ultrasonic tank control) toward the location where ice is collected inside the tank (e.g., downward or at an angle to a vertical orientation). In some aspects, the tank control bracket 3300 may incorporate sheet metal elements comprising one or more intersecting panels. In some aspects, the tank control bracket 3300 may be shaped with desired features (e.g., with a polymer material).

[0143] Figure 38 yes Figure 36 A top-down front perspective view of the feed inlet 130, which is installed... Figure 36 The ice collection device 70 is located on the top front left corner. A flange or hook 3710 may fit over the front wall and / or side wall 75 of the ice collection device 70. No permanent modifications to the ice collection device 70 are required. In some aspects, the ice collection device 70 may include an access panel (not shown) or other removable panel above a portion of the tank cavity 480, in which case the access panel may securely accommodate the inlet 130 or the conduit 120.

[0144] Figure 39A yes Figure 38 Detailed top-down front perspective view of the feed inlet 130, the feed inlet is installed... Figure 36 On the top left corner of the ice collection device, Figure 39B yes Figure 38 Detailed top-down front perspective view of the feed inlet 130, the feed inlet is installed... Figure 36 The ice collection device is located on the top front right corner. The inlet 130 and tank control 150 can be oriented in any of a variety of orientations; exemplary left-side and right-side mountings are shown.

[0145] Figures 40 to 51 These are various views of an ice conveying system 50 according to another aspect of this disclosure. Figure 40 This is a top-down front perspective view of the ice delivery system 50, which includes an ice source 60 (in... Figure 1A (shown in the image), inclined groove 110 (in) Figure 1A (shown in the image), catheter 120 (in) Figure 1A The image shows a tank control 150, including an inlet 130 and an ice collection device 70. The tank control 150 may include an optical sensor. More specifically, the tank control 150 may include a low-power vertical-cavity surface-emitting laser (VCSEL) light source that can use infrared (IR) light.

[0146] Figure 41A This is an internal top perspective view of the ice conveying device 100. Figure 41B It is an external top-down perspective view; the device may include Figure 40 The inlet 130 and tank control 150 are included. Again, the inlet 130 may include an inner portion 420 and an outer portion 430. The inner portion 420 may include a tank control electronics portion 1730 and a tank control 150, the tank control being housed within the tank control electronics portion 1730. The outer portion 430 may include a collar 4110 and a conduit adapter 550. The ice delivery device 100 may further include an auxiliary bracket 4120.

[0147] Figure 42 This is a detailed external top perspective view of the lower portion of the ice conveying device 100 in Figure 41. The inner portion 420 of the inlet 130 may include a housing 1710 that can accommodate the tank control 150. More specifically, the inner portion 420 may define a cavity 4280 in which the tank control 150 can be inserted and protected, for example, from the risk of impact and moisture. As shown, the housing 1710 may be open on at least one side to facilitate the proper operation of the light emitting and receiving structures of the tank control 150. As shown, the tank control 150 may include a window 4250 through which light can be emitted and received by the corresponding light emitting and receiving structures. The outer portion 430 may be accommodated within one or both of the collar 4110 and the inner portion 420, and may engage with them.

[0148] Figure 43 The ice conveying device 100 in Figure 41 is along Figure 42The cross-sectional view is taken from line 43-43. The tank control 150 may include a body or housing 4310, which may include one or more flanges 4312 that help maintain the position of the tank control 150 within the housing 1710. In some aspects, as shown, the tank control 150 may be configured to slide into and out of cavities 4280 (more specifically, recesses 4380 of cavity 4280) of the housing 1710 for assembly and maintenance. The recesses 4380 may be formed at least partially by ribs 4350 of the housing 1710. The housing may further define a rear opening or opening 4308 that can accommodate and facilitate the passage of leads (not shown) or other wiring of the tank control 150. Leads or other wiring may terminate at quick-connect fittings or connectors 4360, which are used for quick engagement and disengagement with wires from ice source 60, and more generally for quick assembly and disassembly of ice delivery device 100.

[0149] Again, the outer portion 430 can define the engagement notch 2980 (in Figure 44 As shown in the diagram, the notch can be aligned and engaged with the lug 2740, which, as shown, can be defined in the collar 4110. When the outer portion 430 is rotated to the desired orientation, the flange 534 can prevent axial movement of the outer portion 430 relative to the collar 4110 and the tank control electronics portion 1730 (or more generally, the inner portion 420 of the inlet 130). In some aspects, as shown, the axis 501 of the inlet 130 can be aligned with a horizontal orientation. In some aspects, the axis 501 of the inlet 130 can be angled or tilted relative to a horizontal orientation.

[0150] Figure 44 yes Figure 40 An exploded internal perspective view of the body of the outer portion 430 of the feed inlet 130. As shown, the body 530 may be formed from multiple parts and then joined together to form a single body 530. More specifically, the body 530 may include two halves that do not need to be identical but may be molded (e.g., from a polymer material) and then joined together with an adhesive (not shown) or other fastening material. As shown, one half of the body 530 may include a support 2210 that may define a groove 2218.

[0151] Figure 45A yes Figure 40An internal perspective view of the outer portion 430 of the feed inlet 130. A collar 4110 may define an annular shape. The collar 4110 may define a body 4530, a main portion 4532, and a flange 4534, which may extend from the flange 4534. A lug 2740 may be formed in or extend from the flange 4534. The body 4530 (more specifically, its main portion 4532) may define a hole 4580, which may define an axis 4501. The axis 4501 may be coupled to an axis 501 (in... Figure 43 (As shown in the image) overlaps.

[0152] Figure 45B yes Figure 40 The outer part 430 of the feed inlet Figure 45A The cross-sectional view is taken at 45-45. The diameter of the hole 4580 can vary. More specifically, the hole 4580 can be defined with a minor diameter 4571, the size of which can be adjusted to accommodate the outer portion 430 of the feed inlet 130 or at least a portion of the outer portion 430. The hole 4580 can be further defined with a major diameter 4572, the size of which can be adjusted to accommodate the inner portion 430 of the feed inlet 130 or at least a portion of the inner portion 420 of the feed inlet 130.

[0153] Figure 46A yes Figure 40 A front internal view of the inner portion 420 of the feed inlet 130. Figure 46B This is a frontal external view. The diameter of the body 520 and its main portion 522 can vary. More specifically, the body 520 can define a smaller diameter 4671, the size of which can be adjusted to accommodate the opening 78 of the ice collecting device 70 (in...). Figure 4 (As shown in the diagram) and also within the main portion 532 of the body 530 of the outer portion 430 of the inlet 130. The body 520 and its main portion 522 can define a large diameter 4672, the size of which can be adjusted to be accommodated within the opening 78 of the ice collecting device 70.

[0154] Figure 47 This is an external perspective view of the support 4120 of the ice conveying device 100 in Figure 41. The support 4120 may define a main panel 4710. The support 4120 may define one or more side panels 4720, which may extend from the main panel 4710 and be angled relative to the main panel 4710. The support 4120 may define a groove 4718 therein. Other openings or recesses (not shown) may be defined in the support 4120 to facilitate mounting the support 4120 to adjacent structures, such as, but not limited to, the ice collecting device 70.

[0155] Figure 48 yes Figure 47 The support along Figure 47 The cross-sectional view is taken from section 48-48. The bracket 4120 may further define panels 4730, each of which may extend beyond the corresponding side panel 4720 in one or both directions, as shown, and may be angled relative to the corresponding side panel 4720. The bracket 4120 may define one or more slots 4880 in its cross-section.

[0156] Figure 49 yes Figure 40 A top perspective view of the tank control. The tank control 150 may be or may include a VL6180X series proximity and ambient light sensing module from STMicroelectronics, which may be enclosed within the housing 4310.

[0157] Figure 50A yes Figure 49 A top perspective view of the sensing portion 5010 (or more specifically, the light emitting and light receiving portion) of the storage tank control 150. Figure 50B This is a side view showing its sensor cone 5050. The sensing portion 5010 may include a first portion 5010a and a second portion 5010b. More specifically, light can form one or more proximity sensor illumination cones 5050a, proximity sensor cones 5050b, and proximity sensor ALS (ambient light sensor) cones 5050c. Each sensor cone can define a viewing angle. For example, proximity sensor illumination cone 5050a can define a cone 5057a, and proximity sensor ALS cone 5050c can define a cone 5057c. Cone 5057a can be at least, at most, about, or exactly 25 degrees. Cone 5057c can be at least, at most, about, or exactly 90 degrees in the full field of view (FOV) and at least, at most, about, or exactly 42 degrees at 40% ambient light transmittance. The cone apex distances 5060a and 5060b defined by the sensing portion 5010 can be measured to be at least, at most, about, or exactly 0.71 mm. The cone apex distance 5060c defined by the sensing portion 5010 and measured from the surface of the sensing portion 5010 to one or both apexes of the sensor viewing cones 5050a and 5050b can be measured to be at least, at most, about, or exactly 0.34 mm, or less than the cone apex distances 5060a and 5060b. Again, the sensing portion 5010 of the tank control 150 can emit infrared (IR) light, and time-of-flight technology can be used to measure the travel of light from the light emitter to the nearest object (e.g., the ice mound 5110 inside the ice collection device 70). Figure 51(As shown in the figure) and the time spent reflecting back to the sensor.

[0158] Figure 51 yes Figure 40 Ice delivery system 50 along Figure 40 A front view section taken from line 51-51. As shown, ice can form an ice pile 5110. When the height H or top 5111 of the ice pile 5110 approaches the tank control 150, the tank control 150 can sense the ice, and the ice source (e.g., an ice maker) can receive the sensor signal—when the tank control 150 is activated—and stop further ice making until the tank control 150 no longer senses ice. In some aspects, when an ultrasonic sensor is included, the tank control 150 can sense the ice based on the characteristics of the returned signal, thereby being activated and thus controlling the ice source 60. In some aspects, when a thermostat is included, the tank control 150 can sense the temperature of the ice, thereby being activated and thus controlling the ice source 60 (in... Figure 1A (As shown in the diagram). In some aspects, when a mechanical bin control is included, the bin control 150 can sense the weight or pressure of the ice, thereby being activated and thus controlling the ice source 60. In some aspects, when an IR sensor is included, the bin control 150 can sense ice based on its physical proximity, thereby being activated and thus controlling the ice source 60. In some aspects, another bin control 150 can be used to sense the presence of ice and control the ice source 60.

[0159] Methods of using the ice delivery system 50 may include moving ice from an ice source 60 (e.g., an ice maker raised above the device) to an ice collection device 70 (e.g., an ice storage tank or beverage dispenser) using only gravity. The method may include opening the ice source 60 when the ice collection device 70 is not full. The method may include ice making at the ice source 60. The method may include collecting ice and guiding it into a conduit 120 after connecting the ice collection device 70 or the chute 110 to the ice source 60. In some aspects, the distance or drop from the evaporator 65 to the chute 110 may provide a greater chance of ice breakage. The method may include ice falling through the conduit 120 into an inlet 130 on the ice collection device 70. The method may include guiding ice from the inlet 130 into a storage chamber 480 of the ice collection device 70. The method may include closing the ice source 60 when the ice collection device 70 is full of ice. The above method may include allowing a limited amount of ice to continue moving toward the ice collection device 70 until gravity sufficiently removes the ice that has already traveled from the ice source 60 from the conduit 120 and the feed inlet 130.

[0160] Methods of assembling the ice delivery system 50 may include removing the tank control 150 and adding an NSF-approved sleeve, at least while the ice collection device 70 already has an opening 78 for the inlet 130. The method may include assembling the ice delivery piping (e.g., chute 110, inlet 130, and conduit 120). The method may include assembling the tank control 150 to the tank control bracket 1850 or housing 1710. The method may include assembling the tank control 150 to the ice collection device 70. The method may include wiring the tank control 150 to the ice source 60.

[0161] The method of assembling the ice conveying system 50 may include one or more of the aforementioned steps for assembling the ice conveying system 50, at least when the ice collecting device 70 does not yet have an opening 78 for a feed inlet, and when the ice collecting device 70 has such an opening. The method may further include drilling an opening 78 in the ice collecting device 70 (at least in an embodiment where ice passes through a vertical or horizontal wall of the ice collecting device).

[0162] In various respects, the ice delivery system 50 disclosed herein may provide one or more of the following partial list of benefits and / or features:

[0163] a. The feed inlet 130 can rotate to accommodate many different installation orientations (left, right, top, front, back, slow, fast, etc.).

[0164] b. The inlet 130 can accommodate a quick-release hose clamp 3010 for securing the hose to the inlet 130 but also allows for on-site cleaning.

[0165] c. The inlet 130 can accommodate the conduit 120 (to prevent ice from getting stuck or blocking the connection).

[0166] d. The connection between the inlet 130 and the conduit 120 allows the use of different hoses, including hoses of any length based on the relative position of the machine, which can be varied each time it is installed.

[0167] e. The feed inlet 130 can control the speed or volume of ice depending on the assembly angle.

[0168] f. The ice delivery system 50 can be used for block ice of various sizes and shapes.

[0169] In some aspects, the various components of the ice conveying device 100 may be formed of or comprise polymer materials. In other aspects, the various components may be formed of any other material, any of which may be food-grade, cleanable, corrosion-resistant, and replaceable to ensure serviceability. The various components of the ice conveying device 100 may be formed by any one or more of a variety of manufacturing processes. For example, and not limited to, the components may be manufactured using: subtractive manufacturing processes, such as machining, forging, and stamping; additive manufacturing processes, such as 3D printing; and any other forming and assembly processes, such as bending and riveting.

[0170] In one exemplary aspect, the ice conveying device may include: an inlet configured to be connected to a conduit configured to convey ice therein, connected to an ice collecting device configured to store ice therein, and guiding ice from the conduit to the ice collecting device; and a sensor connected to the inlet and configured to measure the level of ice inside the ice collecting device, and by such measurement, facilitating control of ice flowing to the conduit by an ice source.

[0171] In a further exemplary aspect, the sensor may include an ultrasonic sensor. In a further exemplary aspect, the sensor may include a thermostatic control. In a further exemplary aspect, the sensor may include an optical sensor. In a further exemplary aspect, the sensor may include a time-of-flight sensor. In a further exemplary aspect, the sensor may be obscured from above by an inner portion of the feed inlet during installation. In a further exemplary aspect, the sensor may be coupled to the feed inlet. In a further exemplary aspect, the sensor may be housed within a cavity defined in the feed inlet, the sensor configured to face a cavity of the ice collection device configured to store ice. In a further exemplary aspect, a second axis defined at or near a second end of the feed inlet may be angled relative to a first axis defined at or near a first end of the feed inlet. In a further exemplary aspect, the angle between the second axis and the first axis may be less than or equal to 45 degrees. In a further exemplary aspect, an outer portion of the feed inlet may include or define a housing configured to house and surround at least a portion of the sensor. In a further exemplary aspect, an inner portion of the feed inlet may include or define a housing configured to house and surround at least a portion of the sensor. In a further exemplary aspect, a first portion of the feed inlet may include a lug, and a second portion of the feed inlet may define a recess, the lug being configured to lockably engage the recess to secure the first portion to the second portion. In a further exemplary aspect, the feed inlet may include: an outer portion configured to be received within an opening defined in an outer surface of the ice collecting device; and an inner portion configured to be received within an opening defined in an inner surface of the ice collecting device. In a further exemplary aspect, the outer and inner portions are configured to be coupled to each other when assembled with the ice collecting device. In a further exemplary aspect, the feed inlet may include an inner portion including a bracket configured to secure a sensor. In a further exemplary aspect, the feed inlet may define an engaging recess.

[0172] In a further exemplary aspect, the ice delivery system includes: the ice delivery device described above; and a conduit to which an inlet is connected. In a further exemplary aspect, the conduit may be flexible. In a further exemplary aspect, the conduit may include a monolithically formed support configured to secure the conduit to a second conduit and / or adjacent structures. In a further exemplary aspect, the conduit may define a plurality of grooves extending in an axial direction, the diameter of which can decrease or increase at the grooves to accommodate mating components of the ice delivery system. In a further exemplary aspect, the conduit may be configured to be assembled to and detached from any mating component of the ice delivery system without tools. In a further exemplary aspect, the ice delivery system may further include a support for securing the conduit, the conduit being slidably engageable and detachable from the support.

[0173] In a further exemplary aspect, the ice delivery system may further include a chute configured to supply ice to a conduit and connect to an ice maker. In a further exemplary aspect, the second end of the chute may be smaller than the first end of the chute. In a further exemplary aspect, the chute may define a tapered surface. In a further exemplary aspect, the diameter of the conduit may be larger than the diameter of the chute, and at least a portion of the chute is received within the conduit. In a further exemplary aspect, the conduit may be secured to the inlet using a quick-release hose clamp.

[0174] In a further exemplary aspect, the ice delivery system may further include an ice collecting device, to which an inlet is connected. In a further exemplary aspect, the inlet may be received within an opening defined in the wall of the ice collecting device. In a further exemplary aspect, at least one of the conduit, the inlet, and the ice collecting device may define a visual indicator configured to signal the alignment of at least one of the conduit, the inlet, and the ice collecting device with a mating component of the ice delivery system. In a further exemplary aspect, the visual indicator may be configured to indicate rotational alignment of at least one of the conduit, the inlet, and the ice collecting device with a mating component of the ice delivery system. In a further exemplary aspect, one of the conduit and the inlet may extend through a vertical wall of the ice collecting device. In a further exemplary aspect, one of the conduit and the inlet may extend through a horizontal wall of the ice collecting device. In a further exemplary aspect, the inlet may be connected to the top of a wall of the ice collecting device. In a further exemplary aspect, the ice collecting device may be one of an ice storage tank and a beverage dispenser. In a further exemplary aspect, the ice delivery system may further include an ice source, wherein the ice source is an ice maker configured to produce flake ice.

[0175] In a further exemplary aspect, a method using an ice conveying system may include the ice conveying device of claim 1, the method comprising: moving ice from an ice source to an ice collecting device using only gravity; and, when a sensor is activated, the sensor automatically stops the ice source from making ice. In a further exemplary aspect, the method may further include drilling an opening in the wall of the ice collecting device, the opening being sized and configured to receive one of a conduit and an inlet. In a further exemplary aspect, the above method may further include making ice with an ice source. In a further exemplary aspect, the above method may further include guiding ice through a chute of the ice conveying system. In a further exemplary aspect, the above method may further include guiding ice through a conduit. In a further exemplary aspect, the above method may further include using at least one visual indicator to rotate and align at least two selected from the conduit, the inlet, and the ice collecting device. In a further exemplary aspect, the above method may further include removing at least one of the conduit and the inlet without tools. In a further exemplary aspect, the above method may further include adjusting the speed or volume of ice passing through the ice conveying system by adjusting the rotational position of at least one of the conduit and the inlet.

[0176] In another exemplary aspect, a method of using an ice delivery system may include: moving ice from an ice source to an ice collection device using only gravity; and, upon activation, a sensor automatically stops the ice source from making ice.

[0177] In another exemplary aspect, the ice conveying device may include: an inlet; and a sensor.

[0178] It should be noted that conditional terms, such as “may,” “possibly,” “might,” or “may,” unless explicitly stated otherwise or otherwise understood in the context, are generally intended to convey that certain aspects include certain features, elements, and / or steps, while others do not. Therefore, such conditional terms are generally not intended to imply that features, elements, and / or steps are necessary in any way for one or more particular aspects, or that one or more particular aspects necessarily include logic for determining (with or without user input or prompts) whether such features, elements, and / or steps are included or whether they are to be performed in any particular aspect.

[0179] It should be emphasized that the foregoing aspects are merely possible examples of implementation methods and are only illustrated for the purpose of clearly understanding the principles of this disclosure. Any process description or block in the flowchart should be understood as representing a module, segment, or code portion including one or more executable instructions for implementing a specific logical function or step in the process, and alternative implementations are included, wherein the function may not be included or performed at all, or may be performed in a different order than shown or discussed, including substantially simultaneously or in reverse order, depending on the function involved, as will be understood by one of reasonable skill in the art. Many variations and modifications may be made to the foregoing aspects without substantially departing from the spirit and principles of this disclosure. Furthermore, the scope of this disclosure is intended to cover any combination and sub-combination of all elements, features, and aspects discussed above. All such modifications and variations are intended to be included within the scope of this disclosure, and all possible claims for any combination of aspects or elements or steps of this disclosure are intended to be supported by this disclosure.

Claims

1. An ice conveying device, comprising: The feed inlet is configured as follows: Connected to a conduit configured to deliver ice therein; Connected to an ice collection device configured to store ice therein; as well as Ice is guided from the conduit into the ice collection device; and A sensor, connected to the feed inlet, is configured to measure the ice level inside the ice collection device, and through this measurement, to help control the ice flowing from the ice source to the conduit.

2. The ice conveying device according to claim 1, wherein, The sensor includes an ultrasonic sensor.

3. The ice conveying device according to claim 1, wherein, The sensor includes a thermostat.

4. The ice conveying device according to claim 1, wherein, The sensor includes an optical sensor.

5. The ice conveying device according to claim 1, wherein, The sensor includes a time-of-flight sensor.

6. The ice conveying device according to claim 1, wherein, The sensor is blocked from above by the inner part of the feed inlet during installation.

7. The ice conveying device according to claim 1, wherein, The sensor is connected to the feed inlet.

8. The ice conveying device according to claim 7, wherein, The sensor is housed within a cavity defined in the feed inlet, and the sensor is configured to face the cavity of the ice collection device configured to store ice.

9. The ice conveying device according to claim 1, wherein, The second axis defined or near the second end of the feed inlet forms an angle with the first axis defined or near the first end of the feed inlet.

10. The ice conveying device according to claim 9, wherein, The angle between the second axis and the first axis is less than or equal to 45 degrees.

11. The ice conveying device according to claim 1, wherein, The outer portion of the feed inlet includes or defines a housing, which is configured to house and surround at least a portion of the sensor.

12. The ice conveying device according to claim 1, wherein, The inner portion of the feed inlet includes or defines a housing, which is configured to house and surround at least a portion of the sensor.

13. The ice conveying device according to claim 1, wherein, The first portion of the feed inlet includes a lug, and the second portion of the feed inlet defines a recess. The lug is configured to lockably engage the recess, thereby securing the first portion to the second portion.

14. The ice conveying device according to claim 1, wherein, The feed inlet includes: The outer portion is configured to be received within an opening defined in the outer surface of the ice collecting device; and The inner portion is configured to be received within an opening defined in the inner surface of the ice collection device.

15. The ice conveying device according to claim 14, wherein, The outer portion and the inner portion are configured to be connected to each other when assembled with the ice collection device.

16. The ice conveying device according to claim 1, wherein, The feed inlet includes an inner portion, which includes a bracket configured to fix the sensor.

17. The ice conveying device according to claim 1, wherein, The feed inlet defines the engagement notch.

18. An ice delivery system, comprising: The ice conveying device according to claim 1; and The feed inlet is connected to the conduit.

19. The ice conveying system according to claim 18, wherein, The catheter is flexible.

20. The ice conveying system according to claim 18, wherein, The catheter includes an integrally formed support, which is configured to secure the catheter to a second catheter and / or an adjacent structure.

21. The ice conveying system according to claim 18, wherein, The conduit defines a plurality of grooves extending in the axial direction, the diameter of which can be reduced or increased at the grooves to accommodate mating components of the ice delivery system.

22. The ice conveying system according to claim 18, wherein, The conduit is configured to allow for the assembly and disassembly of any mating component into and from the ice delivery system without the use of tools.

23. The ice conveying system according to claim 18, further comprising: A support for securing the catheter, wherein the catheter is slidably engageable and detachable from the support.

24. The ice conveying system of claim 18, further comprising a chute, the chute being configured as follows: Ice is supplied to the conduit; and Connect to the ice maker.

25. The ice conveying system according to claim 24, wherein, The second end of the inclined groove is smaller than the first end of the inclined groove.

26. The ice conveying system according to claim 24, wherein, The groove defines a tapered surface.

27. The ice conveying system according to claim 24, wherein, The diameter of the conduit is larger than the diameter of the inclined groove, and at least a portion of the inclined groove is contained within the conduit.

28. The ice conveying system according to claim 24, wherein, The conduit is secured to the feed inlet using a quick-release hose clamp.

29. The ice conveying system according to claim 18, further comprising the ice collecting device, wherein the inlet is connected to the ice collecting device.

30. The ice conveying system according to claim 29, wherein, The feed inlet is housed within an opening defined in the wall of the ice collecting device.

31. The ice conveying system according to claim 29, wherein, At least one of the conduit, the inlet, and the ice collection device defines a visual indicator configured to signal the alignment of at least one of the conduit, the inlet, and the ice collection device with a mating component of the ice delivery system.

32. The ice conveying system according to claim 29, wherein, The visual indicator is configured to signal the rotational alignment of at least one of the conduit, the inlet, and the ice collection device with a mating component of the ice delivery system.

33. The ice conveying system according to claim 29, wherein, One of the conduit and the feed inlet extends through the vertical wall of the ice collection device.

34. The ice conveying system according to claim 29, wherein, One of the conduit and the feed inlet extends through the horizontal wall of the ice collection device.

35. The ice conveying system according to claim 29, wherein, The feed inlet is connected to the top of the wall of the ice collecting device.

36. The ice conveying system according to claim 29, wherein, The ice collection device is one of an ice storage tank and a beverage dispenser.

37. The ice conveying system according to claim 29, further comprising the ice source, in, The ice source is an ice maker configured to produce flake ice.

38. A method of using an ice conveying system, the ice conveying system comprising the ice conveying device according to claim 1, the method comprising: Ice is moved from the ice source to the ice collection device using only gravity; and When the sensor is activated, it automatically stops the ice source from making ice.

39. The method of claim 38, further comprising: An opening is drilled in the wall of the ice collection device, the size of which is designed and configured to accommodate one of the conduit and the feed inlet.

40. The method of claim 38, further comprising: Ice is made using the ice source described above.

41. The method of claim 38, further comprising: The ice is guided through the chute of the ice conveying system.

42. The method of claim 38, further comprising: Guide the ice through the conduit.

43. The method of claim 38, further comprising: Rotate alignment using at least one visual indicator selected from at least two of the conduit, the feed inlet, and the ice collection device.

44. The method of claim 38, further comprising: Remove at least one of the conduit and the feed inlet without using tools.

45. The method of claim 38, further comprising: The speed or volume of ice passing through the ice conveying system is adjusted by regulating the rotational position of at least one of the conduit and the inlet.

46. ​​A method of using an ice delivery system, the method comprising: Using only gravity to move ice from the ice source to the ice collection device; as well as When activated, the sensor automatically stops the ice source from making ice.

47. An ice conveying device, comprising: Feed inlet; and sensor.

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