Protection of items passing through the scanner

Abstract

Scanners and scanner systems are used in a variety of situations, often for security purposes or to detect smuggled goods. Generally, scanners use a conveyor system to move items through the scanner. Scanners may have radiation curtains at the entrance and exit to block X-rays or radiation generated within the scanner. This technology provides an open container with an interlock that allows one open container to be inverted and securely placed on top of another open container to form a closed container.

Description

Technical Field

[0001] This technology relates generally to interlocking containers. In particular, this technology provides an interlocking container that protects an article from physical movement and damage when passing through a scanner.

Background Art

[0002] Scanners and scanner systems are used in various situations and are often used for security purposes or the detection of contraband. Such scanners use a variety of technologies such as X-ray scans and radiation scans to inspect not only the article passing through the scanner but also everything within that article. There are various designs for scanners, but generally, a conveyor system is used in a scanner to pass an article through the scanner. A scanner may have radiation curtains at the entrance and exit of the scanner to block X-rays or radiation generated within the scanner.

Summary of the Invention

[0003] Various embodiments of this technology can include a method of inverting a first container, the first container including one or more first positive shape configurations, placing the inverted first container on top of a second container, the second container including one or more second positive shape configurations, and interlocking the inverted first container with the second container using the one or more first positive shape configurations and the one or more second positive shape configurations.

[0004] In one embodiment, the first container further has one or more first empty spaces that match the one or more first positive shape configurations, the second container further has one or more second empty spaces that match the one or more second positive shape configurations, and interlocking the inverted first container with the second container includes engaging each of the one or more first positive shape configurations with each of the one or more second empty spaces and engaging each of the one or more second positive shape configurations with each of the one or more first empty spaces.

[0005] In one embodiment, the first container further has one or more first negative shape configurations that match one or more first positive shape configurations, and the second container further has one or more second negative shape configurations that match one or more second positive shape configurations, and interlocking the inverted first container with the second container includes engaging each of the one or more first positive shape configurations with each of the one or more second negative shape configurations, and engaging each of the one or more second positive shape configurations with each of the one or more first negative shape configurations.

[0006] In one embodiment, one or more first positive shape configurations and one or more second positive shape configurations are rounded rectangular protrusions, and one or more first negative shape configurations and one or more second negative shape configurations are rounded rectangular concave recesses.

[0007] In one embodiment, each of the one or more first positive shape configurations and each of the one or more second positive shape configurations is a projection having an inclined side surface, and each of the one or more first negative shape configurations and each of the one or more second negative shape configurations is a concave recess having an inclined side surface.

[0008] In one embodiment, the method further includes placing one or more articles in the second container before placing the inverted first container on top of the second container, and placing the inverted first container and the second container on a conveyor system after interlocking the inverted first container with the second container.

[0009] In one embodiment, the first and second containers are rectangular open containers having inclined sides.

[0010] In one embodiment, the first container further has one or more holders on one or more sides of the first container and a rib on the bottom of the first container.

[0011] Various embodiments of this technology may include containers having a mechanism on the bottom, one or more walls, and the upper edge of the container, which facilitates connection with another container.

[0012] In one embodiment, the mechanism includes one or more positive shape configurations, and the container further has one or more empty spaces that match one or more positive shape configurations at the upper edge of the container, and the one or more empty spaces further facilitate interlocking with other containers.

[0013] In one embodiment, the mechanism includes one or more positive shape configurations, and the container further has one or more negative shape configurations that match one or more positive shape configurations on the upper edge of the container, and the one or more negative shape configurations further facilitate interlocking with other containers.

[0014] In one embodiment, one or more positive shape configurations and one or more negative shape configurations are aligned with one or more inclined walls.

[0015] In one embodiment, each of the one or more positive shape configurations is a projection, each of the one or more negative shape configurations is a concave recess, and the first dimensions and first shape of the one or more positive shape configurations coincide with the second dimensions and second shape of the one or more negative shape configurations.

[0016] In one embodiment, a container interlocks with other containers by engaging one or more positive shape configurations of the container with one or more negative shape configurations of other containers, and engaging one or more negative shape configurations of the container with one or more positive shape configurations of other containers.

[0017] In one embodiment, the container holds one or more items to be passed through the scanner.

[0018] In one embodiment, the mechanism is an anti-slip mechanism including an anti-slip material or a gripping mechanism including a gripping material.

[0019] In one embodiment, the container further has one or more support structural members on the bottom surface of the container.

[0020] Various embodiments of the present technology can include a scanner, a first container having a first mechanism for connecting the first container to a second container, and a second container having a second mechanism for connecting the second container to the first container.

[0021] In one embodiment, the first container is inverted and placed on top of the second container, and the first and second mechanisms prevent the first container from detaching from the second container as the first and second containers pass through the scanner.

[0022] In one embodiment, the system further includes a conveyor, and the first container or the second container rides on the conveyor and passes through the scanner.

[0023] It is to be understood that many other embodiments, features, applications, and modifications of the present technology will become apparent from the following detailed description and the accompanying drawings. Additional and alternative embodiments described herein can be used without departing from the principles of the present technology.

Brief Description of the Drawings

[0024] [Figure 1A] A diagram showing a scanner that may be used to carry an item and pass it through a scanner. [Figure 1B] A diagram showing a scanner that may be used to carry an item and pass it through a scanner. [Figure 1C] A diagram showing a container that may be used to carry an item and pass it through a scanner. [Figure 2A] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 2B] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 2C] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 2D] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 2E] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 2F] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 3A] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 3B] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 4A] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 4B] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 4C] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 5A] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 5B] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 5C] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 5D] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 6A] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 6B] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 6C] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 7A] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 7B] An exemplary diagram of an exemplary container according to various embodiments of the present technology. [Figure 8] A diagram showing an exemplary method according to various embodiments of the present technology.

Embodiments for Carrying Out the Invention

[0025] The drawings illustrate various embodiments of the present art for illustrative purposes only, and similar reference numerals are used in the drawings to identify similar elements. Those skilled in the art will readily understand from the following considerations that alternative embodiments of the illustrated structures and methods may be adopted, as long as they do not deviate from the principles of the present art described herein.

[0026] Today, scanners and scanner systems are often used for security purposes. In various locations such as airports and government buildings, scanners are used at security checkpoints to scan items that people may be carrying. At such security checkpoints, people place their items on a conveyor system, which then passes the items through a scanner. The scanner scans the items and provides an image of everything inside them. Figure 1A shows an example 100 of a scanner 102 that can scan items and image everything inside them. As shown in this example 100, the scanner 102 has an entrance 104 through which the item enters the scanner 102 and passes through it. Figure 1B shows an example 130 of an entrance 132 of a scanner similar to the scanner 102 in Figure 1A. As shown in example 130, the entrance 132 has a radiation curtain 134. The radiation curtain functions to block the radiation emitted by the scanner. The entrance 132 is connected to a conveyor system 136. The conveyor system 136 functions to pass items through the entrance 132 and the scanner. In many cases, trays are used in conjunction with a conveyor system 136 for passing items through a scanner. Figure 1C shows an example 160 of a tray 170 that may be used with a conveyor system such as the conveyor system 136 in Figure 1B for passing items through a scanner such as the scanner 102 in Figure 1A. Various items such as coins 162, keys 164, a wallet 166, and a telephone 168 are placed on the tray 170, as shown in example 160. The tray 170 can be placed on the conveyor system along with the items placed inside it. The conveyor system passes the tray 170 and the items through the scanner, where the items are scanned. The tray 170 can be useful for keeping various items together. However, conventional trays like the tray 170 have various drawbacks. For example, a radiation curtain such as the radiation curtain 134 in Figure 1B may move various items as they pass through the scanner. For small items such as coins 162, keys 164, wallets 166, and telephones 168, the radiation curtain may completely push these small items out of tray 170.As a result, not only small items but also the conveyor system and scanners can be damaged. Similarly, some larger items such as belts, coats, and jackets can be pushed out of tray 170 by the radiant curtain. In some cases, larger tray widths and lengths can exacerbate these problems, as the radiant curtain is more likely to push items out of the tray. Furthermore, since many scanners operate with fixed-size trays, smaller trays cannot be used for small items. Therefore, an improved method for passing items through scanners is needed.

[0027] The improved method of this technology provides an open container (e.g., tray, open box, container, vessel, bowl, basin) equipped with a mechanism that allows one open container to be inverted and securely placed on top of another open container to form a closed container. In various embodiments, this mechanism may be an anti-slip mechanism including an anti-slip material such as rubber, or an anti-slip fabric such as anti-slip vinyl. In various embodiments, this mechanism may be a gripping mechanism including a gripping material such as Velcro® or hook-and-loop fastener. In various embodiments, this mechanism may be an interlock having a positive shape configuration. The positive shape configuration may be a projection (e.g., a ridge, extension, bump, furrow, or protrusion) that protrudes upward from one edge of the open container. In various embodiments, the positive shape configuration alone can create sufficient resistance between the inverted tray and the upright tray, so that the inverted tray can be placed on top of the upright tray and securely connected to form a closed container. For example, the inverted tray may be fixed so as not to cover the contents of the tray and not to be pushed out by a radiation curtain. In various embodiments, the interlock may have multiple positive shape configurations that create resistance between the inverted tray and the upright tray, thereby securely connecting the inverted tray when placed on top of the upright tray and forming a closed container. In various embodiments, the interlock of the open container may have positive shape configurations and corresponding negative shape configurations. The negative shape configurations may be concave recesses (e.g., recesses, cavities, dents, holes, concave protrusions). The positive and negative shape configurations may be located at corresponding locations on the open container (e.g., opposing edges on opposing sides), so that when the inverted tray is placed on top of the upright tray, the positive shape configurations of the inverted tray engage with (e.g., fit, lock, fix, connect) the negative shape configurations of the upright tray, and the positive shape configurations of the upright tray engage with the negative shape configurations of the inverted tray, thereby securely connecting the inverted tray to the upright tray and forming a closed container.In various embodiments, the interlock may have multiple positive shape configurations and multiple corresponding negative shape configurations so that when an inverted tray is placed on an upright tray, the multiple positive shape configurations of the inverted tray engage with the multiple negative shape configurations of the upright tray, and the multiple positive shape configurations of the upright tray engage with the multiple negative shape configurations of the inverted tray, thereby securely connecting the inverted tray to the upright tray and forming a closed container. In various embodiments, the interlock of the open containers is such that the open containers can be stacked with other open containers.

[0028] As an example of how this technology can be used, a user preparing to pass through a security checkpoint may be provided with a pair of open containers, namely a first open container and a second open container, for containing items that will pass through a scanner via a conveyor system. The first open container may have a first interlock including a first positive shape configuration and a first negative shape configuration that matches it. The second open container may have a second interlock including a second positive shape configuration and a second negative shape configuration that matches it. The first and second interlocks can be adapted such that the first positive shape configuration matches the second positive shape configuration and the first negative shape configuration matches the second negative shape configuration. The user can place items into the first open container. The user can invert the second open container and place the inverted second open container on top of the first open container. The first open container and the inverted second open container can form a closed container fixed together by the first and second interlocks. In other words, the first positive shape configuration of the first open container can be fitted with the second negative shape configuration of the second open container. The second positive shape configuration of the second open container can be fitted with the first negative shape configuration of the first open container. When the closed container formed by the first and second open containers passes through the scanner, the scanner's radiation curtain prevents the items inside the closed container from moving. Furthermore, the closed container can also provide additional advantages such as theft deterrence and privacy for the items inside the closed container. Thus, as demonstrated in this example, the technology provides an improved method for passing items through a scanner. Further details of the technology are described below.

[0029] Figures 2A to 2G show exemplary containers according to various embodiments of the present technology. It should be understood that the various features described for the exemplary containers shown in Figures 2A to 2G are illustrative, and other embodiments of the present technology may include some or all of the described features. Many modifications are possible.

[0030] Figure 2A shows exemplary Figure 200 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 200, the exemplary container is a rectangular open container having a rectangular base and four sides sloping outward from the rectangular base. Along the upper edge of the exemplary container are interlocks having positive shape configurations 202a, 202b, 202c, 202d and negative shape configurations 208a, 208b, 208c, 208d. In this example, the positive shape configurations 202a, 202b, 202c, 202d are rounded rectangular projections. The positive shape configurations 202a, 202b, 202c, 202d may have sides sloping inward (for example at an angle of 10 degrees). The positive shape configurations 202a, 202b, 202c, 202d may have rounded edges along the top of the projections. Negative shape configurations 208a, 208b, 208c, and 208d are concave or other suitablely shaped protrusions that match the positive shape configurations 202a, 202b, 202c, and 202d. Negative shape configurations 208a, 208b, 208c, and 208d may have sides that are inclined inward (e.g., at an angle of 10 degrees). Negative shape configurations 208a, 208b, 208c, and 208d may have rounded edges along the bottom of the concave depression. Positive shape configurations 202a, 202b, 202c, and 202d match the negative shape configurations 208a, 208b, 208c, and 208d. For example, a positive shape configuration 202a matches a negative shape configuration 208c, a positive shape configuration 202b matches a negative shape configuration 208d, a positive shape configuration 202c matches a negative shape configuration 208a, and a positive shape configuration 202d matches a negative shape configuration 208b. As shown in illustrative Figure 200, the exemplary container includes holders 206a, 206b. Holders 206a, 206b may be located in the center of the longer side of the exemplary container, along the bottom edge of the exemplary container. Holders 206a, 206b are recesses into which cards, stickers, or labels for identifying the exemplary container can be placed. For example, barcode labels, barcode stickers, RFID tags, or other forms of identification can be placed in holders 206a, 206b.The scanner can use the identification information placed in holders 206a and 206b to associate the image provided by the scanner with the appropriate container. To prevent damage to the identification information, it can be placed in the recessed spaces of holders 206a and 206b. A rim 204 is located along the upper edges of the four sides of the exemplary container. The rim 204 may consist of outward extensions along the upper edges extending from the four sides of the exemplary container and downward extensions along the outer edges of these outward extensions. The rim 204 can function as an overhang that allows the exemplary container to be easily carried. For example, the exemplary container can be carried by grasping the rim 204 by hand. The rim 204 can also be grasped by mechanical supports, such as those found in automated tray return systems.

[0031] Figure 2B shows an exemplary top view 220 of an exemplary container according to various embodiments of the present technology. As shown in the exemplary top view 220, along the upper edge of the exemplary container are interlocks having positive shape configurations 222a, 222b, 222c, 222d and negative shape configurations 228a, 228b, 228c, 228d. Positive shape configuration 222a matches negative shape configuration 228c, positive shape configuration 222b matches negative shape configuration 228d, positive shape configuration 222c matches negative shape configuration 228a, and positive shape configuration 222d matches negative shape configuration 228b. In other words, the positive shape configurations 222a, 222b, 222c, 222d have matching negative shape configurations 228a, 228b, 228c, 228d on the opposite side of the exemplary container. Based on the structure and position of the positive shape configurations 222a, 222b, 222c, 222d and the negative shape configurations 228a, 228b, 228c, 228d, the interlock can secure the inverted exemplary container on top of the exemplary container. For example, when the inverted exemplary container is placed on top of the exemplary container, the positive shape configuration 222a of the inverted exemplary container engages with the negative shape configuration 228b of the exemplary container. The positive shape configuration 222b of the inverted exemplary container engages with the negative shape configuration 228d of the exemplary container. The positive shape configuration 222c of the inverted exemplary container engages with the negative shape configuration 228a of the exemplary container. The positive shape configuration 222d of the inverted exemplary container engages with the negative shape configuration 228b of the exemplary container. Similarly, the positive shape configuration 222a of the exemplary container engages with the negative shape configuration 228b of the inverted exemplary container. The positive shape configuration 222b of the exemplary container engages with the negative shape configuration 228d of the inverted exemplary container. The positive shape configuration 222c of the exemplary container engages with the negative shape configuration 228a of the inverted exemplary container. The positive shape configuration 222d of the exemplary container engages with the negative shape configuration 228b of the inverted exemplary container. By engaging the positive shape configuration of the inverted exemplary container with the negative shape configuration of the exemplary container, and vice versa, the inverted exemplary container and the exemplary container are securely connected, forming a closed container. Holders 226a and 226b are also shown in the exemplary top view 220.The holders 226a and 226b can be recessed spaces that slightly protrude into the exemplary container. Slightly protruding the holders 226a and 226b into the exemplary container can be useful in maintaining the structural integrity of the exemplary container by maintaining a substantially uniform thickness across all sides of the exemplary container without significantly affecting the volume that can be accommodated by the exemplary container. A rim 224 is located along the upper edge of the exemplary container. The rim 224 extends to completely surround the upper edge of the exemplary container and has rounded corners to enhance safety and prevent accidental snagging.

[0032] Figure 2C shows an exemplary cross-sectional side view 230 of an exemplary container according to various embodiments of the Art. As shown in the exemplary cross-sectional side view 230, the interlock along the upper edge of the exemplary container includes a positive shape configuration 232 and a negative shape configuration 238. The positive shape configuration 232 coincides with the negative shape configuration 238. Since the positive shape configuration 232 and the negative shape configuration 238 are coincident shape configurations, the positive shape configuration 232 can be a projection that shares the same shape as the concave recess of the negative shape configuration 238. The positive shape configuration 232 may have a height, width, and length corresponding to the depth, width, and length of the concave recess of the negative shape configuration 238, so that the positive shape configuration 232 of an inverted exemplary container fits into the negative shape configuration 238 of the exemplary container. As shown in the exemplary cross-sectional side view 230, the exemplary container includes a holder 236. In this example, the holder 236 is located in the center of one side of the exemplary container, along the bottom edge of the exemplary container. In various embodiments, a container holder, such as holder 236, can be positioned at various locations on the container to accommodate different scanners. For example, a holder such as holder 236 can be positioned along the upper edge of the container to accommodate scanners that assume the container's identification information is located along the upper edge of the container. Along the upper edge of the exemplary container is a rim 234. The rim 234 has an outward-extending portion extending from the upper edge of the exemplary container and a downward-extending portion extending from the outer edge of this outward-extending portion. The outward-extending and downward-extending portions of the rim 234 create a cavity, allowing the exemplary container to be easily carried by hand or by an automated system (e.g., a tray return system).

[0033] Figure 2D shows a side view 240 of an exemplary container according to various embodiments of the Art. As shown in the exemplary side view 240, the interlock along the upper edge of the exemplary container includes positive shape configurations 242a, 242b, 242c, 242d and negative shape configurations not shown. In this example, the positive shape configurations 242a, 242b, 242c, and 242d have the same dimensions (e.g., height, width, and length). Because the positive shape configurations 242a, 242b, 242c, and 242d have the same dimensions, an inverted exemplary container can be fitted on top of the exemplary container in multiple configurations. In various embodiments, the positive shape configurations of a container, such as the positive shape configurations 242a, 242b, 242c, and 242d, may have different dimensions. For example, a container may have a first positive shape configuration with first dimensions (e.g., first height, first width, and first length). The container may have a second positive shape configuration having second dimensions (e.g., a second height, a second width, a second length) different from the first dimensions. The container may have a first negative shape configuration having dimensions that match the dimensions of the first positive shape configuration. The container may have a second negative shape configuration having dimensions that match the dimensions of the second positive shape configuration. In this example, the inverted container can be fitted onto the container in only one configuration, in which the first positive shape configuration of the inverted container fits onto the first negative shape configuration of the container, the second positive shape configuration of the inverted container fits onto the second negative shape configuration of the container, the first positive shape configuration of the container fits onto the first negative shape configuration of the inverted container, and the second positive shape configuration of the container fits onto the second negative shape configuration of the inverted container.

[0034] Figure 2E shows an exemplary bottom view 260 of an exemplary container according to various embodiments of the present technology. As shown in the exemplary bottom view 260, the exemplary container includes an interlock including positive shape configurations 262a, 262b, 262c, 262d and negative shape configurations 268a, 268b, 268c, 268d. The positive shape configurations 262a, 262b, 262c, 262d correspond to the negative shape configurations 268a, 268b, 268c, 268d. As shown in the exemplary bottom view 260, the exemplary container may have ribs 272 (e.g., beams, spines) at the bottom of the exemplary container. The ribs 272 may be support structures that support the structure of the exemplary container so that the exemplary container can carry heavy articles. The ribs 272 may add friction for passing over a conveyor system. The bottom of the exemplary container is a product label 270. The product label can identify the part number, revision number, and manufacturer identification information of the example container.

[0035] Figure 2F shows exemplary Figure 280 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 280, the positive shape configuration 282 can be a projection with sides inclined inward. The projection may have a rounded edge along the top of the projection. As shown in exemplary side view 280, the negative shape configuration 288 can be a concave recess with sides inclined inward. The concave recess may have a rounded edge along the bottom of the concave recess. The dimensions and shape of the positive shape configuration 282 match those of the negative shape configuration 288, so that the positive shape configuration 282 of the exemplary container fits into the corresponding negative shape configuration of an inverted container placed on top of the exemplary container, having the same dimensions and shape as the negative shape configuration 288. For example, the positive shape configuration 282 can be a rounded rectangular projection with sides inclined inward at a 10-degree angle. The positive shape configuration 282 may have a height of 10 mm, a bottom width of 10 mm, a top width of 7.5 mm, and a length of 3 cm. The negative shape configuration 288 may be a rounded rectangular recess with sides inclined inward at a 10-degree angle. The negative shape configuration 288 may have a depth of 11.7 mm, a top width of 11 mm, a bottom width of 10 mm, and a length of 3.2 cm. These exemplary dimensions allow the positive shape configuration 282 of one container to be fitted into the negative shape configuration 288 of another container. The specific dimensions given in this example are for illustrative purposes only, and many variations and other options are possible.

[0036] Figures 3A and 3B show exemplary containers according to various embodiments of the present technology. It should be understood that the various features described for the exemplary containers shown in Figures 3A and 3B are illustrative, and other implementations of the present technology may encompass some or all of the described features. Many modifications are possible.

[0037] Figure 3A shows exemplary Figure 300 of an exemplary container according to various embodiments of the Art. As shown in exemplary Figure 300, the exemplary container is a rectangular opening container having a rectangular base and four sides sloping outward from the rectangular base. The exemplary container has a rim 304 along the upper edge of the exemplary container. The exemplary container includes an interlock comprising one positive shape configuration 302 and one negative shape configuration 308. In this example, the positive shape configuration 302 is an elliptical projection with a rounded top. The positive shape configuration 302 may have walls sloping inward from the bottom of the positive shape configuration to the rounded top. The positive shape configuration 302 coincides with the negative shape configuration 308. In this example, the negative shape configuration 308 is an elliptical hole. As illustrated in this example, the Art provides opening containers comprising various numbers of positive shape configurations and various numbers of negative shape configurations. In some cases, reducing the number of positive shape configurations (e.g., one positive shape configuration) and the number of negative shape configurations (e.g., one negative shape configuration) may make it easier to interlock one container with another because the number of positive shape configurations that are on the same level as the negative shape configurations decreases. In some cases, increasing the number of positive shape configurations (e.g., four positive shape configurations and eight positive shape configurations) and the number of negative shape configurations (e.g., four negative shape configurations and eight positive shape configurations) may make it easier to further strengthen the interlock between containers because the number of interlocking positive and negative shape configurations increases. This technology further provides various forms of positive and negative shape configurations. Positive and negative shape configurations can take on a variety of shapes (e.g., rounded rectangles, rectangles, squares, ellipses, circles). In some cases, the negative shape configuration may be a concave recess, a concave projection, a cavity, or a hole. Many modifications are possible.

[0038] Figure 3B shows an exemplary side view 350 of an exemplary container according to various embodiments of the present technology. As shown in the exemplary side view 350, a rim 354 and an interlock are located along the upper edge of the exemplary container, and the interlock includes a positive shape configuration 352 and a negative shape configuration 358. The positive shape configuration 352 is an elliptical projection in this example and coincides with the negative shape configuration 358, which is an elliptical hole in this example. Based on the structure and position of the positive shape configuration 352 and the negative shape configuration 358, the interlock can secure an inverted exemplary container on top of the exemplary container. For example, when an inverted exemplary container is placed on top of the exemplary container, the positive shape configuration 352 of the inverted exemplary container engages with the negative shape configuration 358 of the exemplary container. Similarly, the positive shape configuration 352 of the exemplary container engages with the negative shape configuration 358 of the inverted exemplary container. The positive shape configuration 352 of the inverted exemplary container engages within the negative shape configuration 358 of the exemplary container, and vice versa, thereby tightly connecting the inverted exemplary containers to form a closed container. As shown in this example, in some cases, having one positive shape configuration and one negative shape configuration in each container is sufficient to achieve a sufficiently reliable interlock between the two containers.

[0039] Figures 4A to 4C show exemplary containers according to various embodiments of the present technology. It should be understood that the various features described for the exemplary containers shown in Figures 4A to 4C are illustrative, and other implementations of the present technology may encompass some or all of the described features. Many modifications are possible.

[0040] Figure 4A shows exemplary Figure 400 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 400, the exemplary container is a rectangular opening container having a rectangular base and four sides sloping outward from the rectangular base. The exemplary container has a rim 404 along the upper edge of the exemplary container. The exemplary container has two holders 406a, 406b on opposing sides of the exemplary container. In this example, the exemplary container includes an interlock comprising positive shape configurations 402a, 402b and negative shape configurations 408a, 408b. The positive shape configurations 402a, 402b can be rounded rectangular protrusions. The negative shape configurations 408a, 408b can be rounded rectangular holes. The positive shape configurations 402a, 402b match the negative shape configurations 408a, 408b. For example, the positive shape configuration 402a matches the negative shape configuration 408b. The positive shape configuration 402b matches the negative shape configuration 408a. As shown in this example, the positive shape configurations 402a, 402b and the negative shape configurations 408a, 408b of the interlock are mirror images of each other. By making the positive shape configurations 402a, 402b and the negative shape configurations 408a, 408b mirror images of each other, the inverted exemplary container can be placed on top of the exemplary container in multiple orientations. For example, the inverted exemplary container can be placed on top of the exemplary container in a first orientation. The positive shape configuration 402a of the inverted exemplary container engages with the negative shape configuration 408b of the exemplary container, and the positive shape configuration 402b of the inverted exemplary container engages with the negative shape configuration 408a of the exemplary container. The positive shape configuration 402a of the exemplary container engages with the negative shape configuration 408b of the inverted exemplary container, and the positive shape configuration 402b of the exemplary container engages with the negative shape configuration 408a of the inverted exemplary container. In this example, the inverted exemplary container can be rotated horizontally (for example, by rotating it 180 degrees horizontally) to place the exemplary container in a second orientation. In either the first or second orientation, the interlock between the inverted exemplary container and the exemplary container securely connects the inverted exemplary container to the exemplary container, forming a closed container.Thus, this technology provides an open container having a positive shape configuration and a negative shape configuration that are in a mirror image relationship, so that the container can be securely connected in multiple orientations.

[0041] Figure 4B shows exemplary Figure 430 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 430, the positive shape configuration 432 can be a rounded rectangular projection. The positive shape configuration 432 can have straight sides. The positive shape configuration 432 can have a flat top surface with a rounded edge around this flat top surface. The negative shape configuration 434 can be a rounded rectangular hole. As shown in this example, the present technology provides various forms of positive shape configurations. Positive shape configurations can take on a variety of shapes. Positive shape configurations can have, for example, straight sides or inclined sides. In some cases, a positive shape configuration with inclined sides may engage more easily with a negative shape configuration that is a concave recess. In some cases, a positive shape configuration with straight sides may connect more securely with a negative shape configuration that is a hole. Many modifications are possible.

[0042] Figure 4C shows exemplary Figure 460 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 460, the positive shape configuration 462 of the inverted exemplary container can engage with the negative shape configuration 468 of the exemplary container. In this example, the positive shape configuration 462 may be a rounded rectangular projection with straight sides and a flat top surface, with the edges of the flat top surface being rounded. In this example, the negative shape configuration 468 may be a rounded rectangular hole. The dimensions and shape of the positive shape configuration 462 match those of the negative shape configuration 468 so that the positive shape configuration 462 can fit with the negative shape configuration 468. For example, the positive shape configuration 462 may be a rounded rectangular projection with a height of 1 cm, a width of 1 cm, and a length of 2 cm. The negative shape configuration 468 may be a rounded rectangular hole with a width of 1.2 cm and a length of 2.4 cm. These exemplary dimensions and shapes allow the positive shape configuration 462 of one container to engage with the negative shape configuration 468 of another container. The specific dimensions given in this example are for illustrative purposes only, and many variations and other options are possible.

[0043] Figures 5A to 5D show illustrative diagrams of exemplary containers according to various embodiments of the present technology. It should be understood that the various features described for the exemplary containers shown in Figures 5A to 5D are illustrative, and other implementations of the present technology may encompass some or all of the described features. Many modifications are possible.

[0044] Figure 5A shows exemplary Figure 500 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 500, the exemplary container is a rectangular open container having a rectangular base and four sides sloping outward from the rectangular base. Exemplary container 500 has a rim 504 and two holders 506a, 506b. The exemplary container includes an interlock including eight positive shape configurations, namely positive shape configurations 502a, 502b, 502c, 502d, 502e, 502f, 502g, 502h and eight negative shape configurations, namely negative shape configurations 508a, 508b, 508c, 508d, 508e, 508f, 508g, 580h. The eight positive shape configurations match the eight negative shape configurations. For example, positive shape configuration 502a matches negative shape configuration 508g. Positive shape configuration 502b matches negative shape configuration 508h. Positive shape configuration 502c matches negative shape configuration 508e. Positive shape configuration 502d matches negative shape configuration 508f. Positive shape configuration 502e matches negative shape configuration 508c. Positive shape configuration 502f matches negative shape configuration 508d. Positive shape configuration 502g matches negative shape configuration 508a. Positive shape configuration 502a matches negative shape configuration 508g. In this example, positive shape configurations 502a, 502b, 502c, 502d, 502e, 502f, 502g, and 502h are rectangular projections along the inner rim of the top of the exemplary container. Each of the positive shape configurations 502a, 502b, 502c, 502d, 502e, 502f, 502g, and 502h has sides that are coplanar with the inner wall of the exemplary container. Each of the positive shape configurations 502a, 502b, 502c, 502d, 502e, 502f, 502g, and 502h has sides that are inclined inward and a flat rectangular top surface. In this example, the negative shape configurations 508a, 508b, 508c, 508d, 508e, 508f, 508g, and 580h are rectangular cavities along the upper inner rim of the exemplary container. Each of the negative shape configurations 508a, 508b, 508c, 508d, 508e, 508f, 508g, and 580h opens along the rim 504 and inner wall of the exemplary container. As demonstrated in this example, the technology provides an open container having an interlock that includes positive and negative shape configurations on all sides of the open container.In some cases, having both positive and negative shape configurations on all sides can help prevent the container from moving in four directions (e.g., left, right, front, and back) when it is joined together by the positive and negative shape configurations.

[0045] Figure 5B shows exemplary Figure 530 of an exemplary container according to various embodiments of the Art. As shown in exemplary Figure 530, the positive shape configuration 232 can be a rectangular projection provided along the upper inner rim of the exemplary container. The positive shape configuration 232 may have inwardly sloping sides and a flat rectangular top surface. The negative shape configuration 238 can be a rectangular cavity provided along the upper inner rim of the exemplary container. The negative shape configuration 238 may have inwardly sloping sides. The negative shape configuration 238 may open toward the top of the exemplary container and toward the inside of the exemplary container. As shown in this example, the Art provides positive and negative shape configurations of exemplary containers in various positions. In some cases, providing the positive and negative shape configurations toward the inside of the containers facilitates the formation of secure connections between the positive and negative shape configurations of one container and those of another.

[0046] Figure 5C shows exemplary Figure 560 of exemplary containers according to various embodiments of the Art. As shown in exemplary Figure 560, the positive shape configuration 562 of the inverted exemplary container can engage with the negative shape configuration 568 of the exemplary container. In this example, the positive shape configuration 562 may be a projection having inwardly sloping sides and a flat rectangular top surface. The positive shape configuration 562 may be provided along the inner edge of the inverted exemplary container. In this example, the negative shape configuration 568 may be a rectangular cavity having inwardly sloping sides. The negative shape configuration 568 may be provided along the inner edge of the exemplary container. As shown in this example, the positive shape configuration 562 can engage with the negative shape configuration 568 even if the negative shape configuration 568 opens toward the inside of the exemplary container. The positive shape configuration 562 and the negative shape configuration 568, together with the positive and negative shape configurations on the other edges of the exemplary container, can create sufficient resistance to firmly connect the inverted exemplary container to the exemplary container. For example, an inverted exemplary container having an interlock as described herein can be placed diagonally on top of a corresponding exemplary container having an interlock, with one edge of the inverted exemplary container in contact with the top of the exemplary container. The inverted exemplary container can be slid along the top of the exemplary container until one edge of the inverted exemplary container, in contact with the top of the exemplary container, reaches the corresponding edge of the exemplary container, in order to interlock the positive shape configuration, such as positive shape configuration 562, and the negative shape configuration, such as negative shape configuration 568, of the inverted exemplary container with the positive shape configuration, such as positive shape configuration 562, and the negative shape configuration, such as negative shape configuration 568, of the exemplary container. At this point, the positive and negative shape configurations on one edge of the inverted exemplary container can engage with the positive and negative shape configurations on the corresponding edge of the exemplary container. The inverted exemplary container can then be lowered horizontally so that the remaining positive and negative shape configurations of the inverted exemplary container can engage with the remaining positive and negative shape configurations of the exemplary container.

[0047] Figure 5D shows exemplary Figure 560 of an exemplary container according to various embodiments of the present technology. As shown in exemplary Figure 560, the positive shape configuration 582 may be a projection having inwardly inclined sides and a flat rectangular top surface. The negative shape configuration 588 may be a rectangular cavity having inwardly inclined sides. The positive shape configuration 582 and the negative shape configuration 588 may be provided along the inner edge of an exemplary container having a rim 584. The dimensions and shape of the positive shape configuration 582 may match those of the negative shape configuration 588, and the positive shape configuration 582 of an exemplary container may fit into a corresponding negative shape configuration having the same dimensions and shape as the negative shape configuration 588 of another exemplary container. For example, the positive shape configuration 582 may have a height of 15 mm, a bottom surface width of 12 mm and a length of 16 mm, a top surface width of 10 mm and a length of 12 mm, and an inward inclination of 10 degrees on the sides. The negative shape configuration 588 can have a depth of 16 mm, a top width of 14 mm and a length of 20 mm, a bottom width of 12 mm and a length of 16 mm, and an inward slope of 10 degrees on the sides. These exemplary dimensions allow a positive shape configuration 582 of one container to slide inside a negative shape configuration 588 of another container. The specific dimensions given in this example are for illustrative purposes only, and many variations and other options are possible.

[0048] Figures 6A to 6C show exemplary containers according to various embodiments of the present technology. It should be understood that the various features described for the exemplary containers shown in Figures 6A to 6C are illustrative, and other implementations of the present technology may encompass some or all of the described features. Many modifications are possible.

[0049] Figure 6A shows exemplary Figure 600 of an exemplary container according to various embodiments of the Art. As shown in exemplary Figure 600, the exemplary container is a rectangular open container having a rectangular base and four sides sloping outward from the rectangular base. The exemplary container has a rim 604 along the upper edge of the exemplary container and two holders 606a, 606b on opposing sides of the exemplary container. In this example, the exemplary container includes an interlock that includes positive shape configurations 602 but no negative shape configurations. The interlock has seven positive shape configurations 602 on each long side of the exemplary container and five positive shape configurations 602 on each short side of the exemplary container. The positive shape configurations 602 can be configured in the exemplary container such that each positive shape configuration 602 aligns with a space on the opposing side of the exemplary container (e.g., facing each other). As shown in this example, the Art provides an open container that has positive shape configurations but no negative shape configurations. For example, a container having an interlock containing positive shape configurations, such as positive shape configuration 602, can be placed upside down on top of another container having an interlock containing the same positive shape configurations. The positive shape configurations of the inverted container can be aligned with the spaces between the positive shape configurations of the other container that is not inverted. Similarly, the positive shape configurations of the container that is not inverted can be aligned with the spaces between the positive shape configurations of the inverted container. In this way, the positive shape configurations of the inverted container and the positive shape configurations of the container that is not inverted are firmly connected, and the two containers form a closed container. The exemplary container is shown with 24 positive shape configurations (e.g., 7 positive shape configurations on each long side and 5 positive shape configurations on each short side), but this technology provides open containers with various numbers of positive shape configurations. Many modifications are possible.

[0050] Figure 6B shows exemplary Figure 630 of an exemplary container according to various embodiments of the Art. As shown in exemplary Figure 630, the positive shape configuration 632 can be a rectangular projection having straight sides and a flat rectangular top. The positive shape configuration 632 is adjacent to an empty space 638 of the exemplary container. The empty space 638 can be large enough for the positive shape configuration 632 of an inverted exemplary container to engage (e.g., fit) with the empty space of the exemplary container. While the positive shape configuration 632 in this example is a rectangular projection having straight sides and a flat rectangular top, the Art provides open containers including positive shape configurations of various shapes and forms. For example, the positive shape configuration may be a variety of shapes such as circular, elliptical, rectangular, rounded rectangular, square, and rhombus. The positive shape configuration may be a variety of forms such as ridges, waves, dots, and protrusions. The positive shape configuration may have straight sides or sides inclined at various degrees. In some cases, a positive shape configuration with straight sides may be more reliable in connecting containers than a positive shape configuration with sloping sides. In some cases, a positive shape configuration with sloping sides may make it easier to place an inverted container on top of an upright container. Although the exemplary positive shape configuration 632 is shown as a rectangular projection, the art provides a variety of shapes and forms of positive shape configurations. For example, a positive shape configuration can be a ridge. The ridge can be parallel to the rim of an open container. In this way, the ridge of the inverted container can be aligned with the empty space between the ridges of the upright container (and vice versa), securely connecting the two containers to form a closed container. Many modifications are possible.

[0051] Figure 6C shows exemplary Figure 660 of exemplary containers according to various embodiments of the present technology. As shown in exemplary Figure 660, the positive shape configuration 662b of the inverted exemplary container can engage with (e.g., contact with) the empty space 668b of the exemplary container. The positive shape configuration 662a of the exemplary container can engage with the empty space 668a of the inverted exemplary container. In this example, the positive shape configurations 662a, 662b are rectangular projections having straight sides and a rectangular flat top surface. The dimensions of the positive shape configurations 662a, 662b can match the dimensions of the empty space 668a, 668b, and the empty space 668a, 668b is sized to fit snugly with the positive shape configurations 662a, 662b. For example, the positive shape configurations 662a, 662b can be rectangular projections with a height of 1 cm, a width of 1 cm, and a length of 1.2 cm. The empty spaces 668a and 668b can be rectangular spaces with a width of 1 cm and a length of 1.3 cm. These exemplary dimensions allow the positive shape configurations 662a and 662b to engage with the empty spaces 668a and 668b. The specific dimensions given in this example are for illustrative purposes only, and many variations and other options are possible.

[0052] Figures 7A and 7B show exemplary containers according to various embodiments of the present technology. It should be understood that the various features described for the exemplary containers shown in Figures 7A and 7B are illustrative, and other implementations of the present technology may encompass some or all of the described features. Many modifications are possible.

[0053] Figure 7A shows exemplary Figure 700 of exemplary containers according to various embodiments of the present technology. As shown in exemplary Figure 700, the inverted exemplary container 702 is securely connected to exemplary container 706. The inverted exemplary container 702 interlocks with exemplary container 706 by utilizing the interlock between the inverted exemplary container 702 and exemplary container 706, thereby forming a closed container with exemplary container 706. The closed container formed by the inverted exemplary container 702 and exemplary container 706 is stacked on top of exemplary container 704. As shown in this example, the present technology provides an open container that can form a closed container with other open containers and can also be stacked with other open containers. The outward sloping of the sides of the open containers makes it possible to stack the open containers. The interlock of the open containers makes it possible to form a closed container with other open containers.

[0054] Figure 7B shows exemplary Figure 750 of exemplary containers according to various embodiments of the Art. As shown in exemplary Figure 750, the inverted exemplary container 752 is securely connected to exemplary container 756. The inverted exemplary container 752 is securely connected to exemplary container 756 by an interlock 758 between the inverted exemplary container 752 and exemplary container 756. In this example, the interlock 758 may include a positive shape configuration and a corresponding negative shape configuration that securely connects the inverted exemplary container 752 and exemplary container 756 to form a closed container. As also shown in exemplary Figure 750, the closed container formed by the inverted exemplary container 752 and exemplary container 756 is stacked on exemplary container 754. Although the exemplary containers shown herein are connected by an interlock, the Art provides various methods for connecting open containers. For example, by attaching a non-slip material such as rubber along the upper edge of an open container, when an inverted container is placed on top of an upright container, it can be prevented from sliding off the upright container. Another example is attaching a gripping material such as Velcro along the upper edge of an open container so that when an inverted container is placed on top of an upright container, the gripping material can be used to hook the two containers together. Many variations are possible.

[0055] Figure 8 shows exemplary methods 800 according to various embodiments of the present technology. In block 802, exemplary method 800 inverts a first container, the first container comprising one or more first positive shape configurations. In block 804, exemplary method 800 places the inverted first container on top of a second container, the second container comprising one or more second positive shape configurations. In block 806, exemplary method 800 interlocks the inverted first container and the second container using one or more first positive shape configurations and one or more second positive shape configurations. Many modifications of the exemplary methods are possible. Unless otherwise specified, it should be understood that additional, fewer, or alternative steps can be performed within the scope of the various embodiments discussed herein, in a similar order, an alternative order, or in parallel.

[0056] The methods described herein may be modified in accordance with this disclosure. Various embodiments of this disclosure may repeat one or more steps of the methods described herein as necessary. While this disclosure describes and illustrates certain steps of a particular method as being performed in a particular order, this disclosure assumes that any suitable steps of the method may be performed in any suitable order, or in any combination that may include all or some of the steps of the method, or none of them. Furthermore, while this disclosure may describe and illustrate certain components, apparatus, devices, or systems that perform certain steps of a particular method, this disclosure assumes that any suitable combination of any suitable components, devices, or systems that perform any suitable steps of that method.

[0057] Those skilled in the art will understand that the scope of this disclosure encompasses any changes, substitutions, variations, alternatives, and modifications to the exemplary embodiments described or illustrated herein. The scope of this disclosure is not limited to the exemplary embodiments described or illustrated herein. Furthermore, although this disclosure describes and illustrates each embodiment herein as comprising a particular component, module, element, feature, function, operation, or process, those skilled in the art will understand that any of these embodiments may comprise any combination or permutation of any component, module, element, feature, function, operation, or process described or illustrated anywhere herein. Furthermore, where the appended claims refer to a device or system or component of a device or system adapted to perform, arranged to perform, capable of performing, configured to perform, executable, operable, operable, or operable in order to perform a particular function, that device, system, or component is included to the extent that it is adapted, arranged, capable, configured, possible, operable, or operable in such a way, regardless of whether that particular function is enabled, turned on, or unlocked.

[0058] While various embodiments of this technology have been described above, it should be understood that these are merely illustrative and not limiting. Similarly, various figures may depict exemplary design configurations or other configurations of the disclosed technology, provided to aid in understanding the features and functions that may be included in the disclosed technology. This technology is not limited to the exemplary designs or configurations shown, and desired features can be achieved using a variety of alternative designs and configurations. In fact, it will be obvious to those skilled in the art what alternative configurations can be implemented to achieve the desired features of the technology disclosed herein. Furthermore, with respect to the operation description and method claims, the sequence of steps presented herein does not compel various embodiments to perform the described functions in the same order, unless otherwise specified in the context.

[0059] Although the present technology has been described above using various embodiments and implementation examples, it should be understood that the various features, aspects, and functions described in one or more of the individual embodiments are not limited to their applicability to the specific embodiment describing them, but are applicable individually or in various combinations to one or more other embodiments of the present technology, regardless of whether such embodiments are described or whether such features are presented as part of the described embodiments. Therefore, the breadth and scope of the technology disclosed herein should not be limited by any of the exemplary embodiments described above.

[0060] The terms and phrases used herein, as well as their derivatives, should be interpreted as unrestrictive and unlimiting unless expressly stated otherwise. For example, the term "including" should be read as "including but not limited to." The term "example" is used to provide exemplary examples of the items under consideration and is not an exhaustive or restrictive list. The terms "a" or "an" should be read as "at least one" or "one or more," and adjectives and similar terms such as "conventional," "traditional," "normal," "standard," and "known" should not be interpreted as limiting the items described to those available during a specific period or at a specific point in time, but rather as encompassing conventional, traditional, normal, or standard technologies that may be available or known at any point in the present or future. Where broad words and phrases such as "one or more," "at least," or "but not limited to," or other similar phrases may be present, the absence of such broad phrases should not be interpreted as meaning that a narrower definition is intended or required.

Claims

1. It is a method, The first container is turned upside down, and the first container includes one or more first positive shape configurations, The inverted first container is placed on top of the second container, and the second container includes one or more second positive shape configurations, The inverted first container and the second container are interlocked by utilizing the one or more first positive shape configurations and the one or more second positive shape configurations. Methods that include...

2. The first container further has one or more first spaces corresponding to one or more first positive shape configurations, The second container further has one or more second spaces corresponding to one or more second positive shape configurations, Interlocking the inverted first container with the second container is: Engaging each of the one or more first positive shape configurations with each of the one or more second spaces, Engaging each of the one or more second positive shape configurations with each of the one or more first spaces, The method according to claim 1, including the method described in claim 1.

3. The first container further has one or more first positive shape configurations and one or more first negative shape configurations corresponding to the one or more first positive shape configurations, The second container further has one or more second positive shape configurations and one or more second negative shape configurations corresponding to the one or more second positive shape configurations, Interlocking the inverted first container with the second container is: Engaging each of the one or more first positive shape configurations with each of the one or more second negative shape configurations, Engaging each of the one or more second positive shape configurations with each of the one or more first negative shape configurations, The method according to claim 1, including the method described in claim 1.

4. The one or more first positive shape configurations and the one or more second positive shape configurations are rounded rectangular protrusions, The one or more first negative shape configurations and the one or more second negative shape configurations are rounded rectangular concave recesses. The method according to claim 3.

5. Each of the one or more first positive shape configurations and each of the one or more second positive shape configurations is a projection having an inclined side surface, Each of the one or more first negative shape configurations and each of the one or more second negative shape configurations is a concave recess having an inclined side surface. The method according to claim 3.

6. moreover, Before placing the inverted first container on top of the second container, one or more articles are placed inside the second container, After interlocking the inverted first container with the second container, the inverted first container and the second container are placed on the conveyor system. The method according to claim 1, including the method described in claim 1.

7. The method according to claim 1, wherein the first container and the second container are rectangular open containers having inclined sides.

8. The first container further has one or more holders on one or more sides of the first container and a rib on the bottom of the first container. The method according to claim 1.

9. It is a container, It has a bottom surface, one or more walls, and a mechanism on the upper edge of the container, The aforementioned mechanism is a container that facilitates connection with another container.

10. The mechanism includes one or more positive shape configurations, The container further, The upper edge of the container has one or more spaces corresponding to one or more positive shape configurations, The aforementioned one or more spaces further facilitate interlocking with other containers. The container according to claim 9.

11. The mechanism includes one or more positive shape configurations, The container further, The upper edge of the container has one or more positive shape configurations and one or more corresponding negative shape configurations, The aforementioned one or more negative shape configurations further facilitate interlocking with other containers. The container according to claim 9.

12. The one or more positive shape configurations and the one or more negative shape configurations are in the same row as the one or more walls. The container according to claim 11.

13. Each of the one or more positive shape configurations is a projection, and each of the one or more negative shape configurations is a concave recess, and the first dimensions and first shape of the one or more positive shape configurations correspond to the second dimensions and second shape of the one or more negative shape configurations. The container according to claim 11.

14. The container interlocks with the other container by engaging one or more positive shape configurations of the container with one or more positive shape configurations of the other container, and by engaging one or more negative shape configurations of the container with one or more positive shape configurations of the other container. The container according to claim 11.

15. The container holds one or more items to be passed through the scanner. The container according to claim 9.

16. The mechanism is an anti-slip mechanism including an anti-slip material or a gripping mechanism including a gripping material. The container according to claim 9.

17. moreover, The container has one or more support structural members on its bottom surface. The container according to claim 9.

18. It is a system, Scanner, The first container is equipped with a first mechanism for connecting the first container to the second container, and A second container having a second mechanism for connecting the second container to the second container, A system equipped with this feature.

19. The first container is turned upside down and placed on top of the second container. The first mechanism and the second mechanism prevent the first container from detaching from the second container as the first and second containers pass through the scanner. The system according to claim 18.

20. moreover, A conveyor is provided, and the first container or the second container is placed on the conveyor and passes through the scanner. The system according to claim 18.

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