Patent Description:
Electronic devices may be associated with shipping containers for a variety of reasons. In some cases, the electronic devices may be associated with asset tracking. For example, such electronic device may include a Global Navigation Satellite System (GNSS) such as a Global Positioning System (GPS) receiver and log the location of the shipping container. In some cases, the electronic device may further include a transceiver for a communications subsystem, where the positioning of the container is reported and may be tracked at a central location. In some cases, the electronic device may simply include a transceiver for a communication subsystem without a GPS for sending updates or responding to pages from other devices. In some cases, the electronic device may include sensors and be used for loss mitigation or insurance dispute resolution, for example by logging events or providing reports when a shipping container door is opened. In some cases, electronic devices may include cameras for capturing images when motion is detected or when signals are received to record a vicinity. Other uses for electronic devices for shipping containers are possible.

Conventional ways to mount an electronic device to a shipping container include screw mounting and welding. Both could damage the container, and the implementation of both processes is difficult. Specifically, drilled holes are required if using screws to mount the electronic device. A problem is that those holes could result in water leakage to the container, cause corrosion points, and the drilling is not an easy installation experience.

Electric welding is another method to mount such a device. Such welding is a more difficult process which requires welding equipment and techniques. Welding damages the coating of the container and could cause corrosion. Further, the welded device is non-removable, which becomes an issue for repair of the device or battery changing.

<CIT> relates to a device for detecting and geolocating a container that has fallen overboard. <CIT> is concerned with a shipping container having an integral geoclock system. <CIT> describes a device and a method for a transport container. <CIT> describes a locking assembly. It is provided a bracket for affixing an electronic device according to claim <NUM>.

The present disclosure provides a bracket for affixing a device to a shipping container, the bracket comprising: a base; a first arm and a second arm disposed on distal ends of the base; a first flange and second flange extending from the first arm and the second arm; a first affixing mechanism and a second affixing mechanism to affix the first flange and the second flange respectively to adjacent locking rods on the shipping container, said first affixing mechanism and second affixing mechanism allowing rotation of the locking rods; and a mounting mechanism on the base for mounting the device, wherein the base is configured to fit within a corrugation behind the adjacent locking rods, and at least one portion of the base is configured to contact the shipping container when the first flange and the second flange are behind the adjacent locking rods.

The present disclosure further provides a bracket for affixing a device to a shipping container, the bracket comprising: a base shaped to securely fit within a corrugation on the shipping container behind adjacent locking rods on the shipping container; a first affixing mechanism and a second affixing mechanism to affix the base to the shipping container, said first affixing mechanism and second affixing mechanism allowing rotation of the locking rods; and a mounting mechanism on the base for mounting the device.

In accordance with embodiments of the present disclosure, brackets are provided for mounting electronic devices to shipping containers. As used here in, a shipping container could be any container used in the transportation of products or goods. For example, in some embodiments, an International Organization for Standardization (ISO) intermodal container may be utilized with the embodiments of the present disclosure. Such containers are typically suitable for ship, rail and truck transportation. However, the present disclosure is not limited to such ISO containers.

Further, while the disclosure below teaches the mounting of electronic devices onto a bracket, in some cases the device being mounted to the shipping container may not be an electronic device but may be any other type of device or mechanism. Therefore, while the present disclosure is taught with regard to an electronic device being mounted to the bracket, other types of devices could equally be utilized with the brackets disclosed herein.

In the figures provided below, like elements are labeled with like numerals.

Reference is now made to <FIG>, which shows a shipping container <NUM> and, in particular, the doors of the shipping container <NUM>. Shipping container <NUM> has a left door <NUM> and a right door <NUM>. Further, each door has a plurality of locking rods <NUM> which typically rotationally engage with a cam structure affixed to the frame of the shipping container.

For strength, typically shipping containers will include corrugations <NUM> which project from the left door <NUM> and the right door <NUM> inward of the shipping container <NUM>.

Corrugations in the door may have various configurations. For example, referring to <FIG>, corrugation <NUM> is shown having a first profile with sloping sides raised to the front surface of the door. Referring to <FIG>, the sides of corrugation <NUM> are shown with more vertical lines extending towards the front surface of the door. Other configurations are possible.

In operation, to open a door on a shipping container <NUM>, a user will rotate the plurality of locking rods <NUM> on the door to disengage the cam structure on the rod with the brackets on the frame of the shipping container. This unlocks the door which can then be swung open. Similarly, to lock a door on a shipping container <NUM>, the door is closed, and the rods are rotated utilizing a handle until the cam structure on the rod engages the bracket in the frame of the shipping container.

Referring to <FIG>, this figure shows the shipping container <NUM> from a perspective view in which X, Y and Z axes that are referred to in the present disclosure are illustrated.

In accordance with one embodiment of the present disclosure, a bracket is provided that may be affixed to a shipping container without use of welding or screws. Reference is made to <FIG>.

In the embodiment of <FIG>, a bracket <NUM> is configured to fit within the corrugation <NUM> of the shipping container. Bracket <NUM> includes a base <NUM> which may be used to mount equipment in some embodiments, or may be used to affix a mount for equipment in some embodiments.

In the example of <FIG>, arms <NUM> and <NUM> protrude from each end of the base <NUM> of mounting bracket <NUM>. A first flange <NUM> extends from arm <NUM> and is adapted to sit behind a locking rod <NUM> when bracket <NUM> is in contact with the corrugation <NUM>. In particular, the corrugation may be wide enough to accommodate bracket <NUM>, in which case, the back of bracket <NUM> may come into flush contact with a flat portion of corrugation <NUM>. In other cases, corrugation <NUM> may include a first surface <NUM> and a second surface <NUM>, which angle towards the front of the door. In this case, an edge of base <NUM> may make contact with each of surfaces <NUM> and <NUM>. As is discussed in more detail below, such contact with the flat or angled portions of the corrugation prevents movement in the Z direction and limits rotation about the X and Y axes.

Similarly, a flange <NUM> extends from arm <NUM> and is configured to fit behind a second rod <NUM>.

Bracket <NUM> may be prevented from movement in the X direction through a variety of techniques. In one embodiment, a locking and positioning mechanism <NUM>, as for example best seen in <FIG>, is shown. Such locking and positioning mechanism <NUM> is configured to project from a flange such as flange <NUM> and to be secured about an arm such as arm <NUM>. For example, as seen in <FIG>, a slit <NUM> may be provided within flange <NUM> to provide a rotation point about which the locking and positioning mechanism <NUM> may rotate.

For example, as seen in <FIG> and <FIG>, a tongue <NUM> may project through the slit <NUM> and be secured to itself or another portion of the locking and positioning mechanism <NUM>, either through welding, adhesion, by using mechanical means such as tabs or screws among other options. This may occur either during manufacture of the bracket <NUM> or during installation, for example.

A second end <NUM> of the locking and positioning mechanism <NUM> may then be rotated into contact with arm <NUM>. In this case, tabs <NUM> at the edges of surface <NUM> may be bent over arm <NUM> to hold the locking and positioning mechanism <NUM> in place.

Installation of bracket <NUM> in this case involves sliding the bracket within the corrugation <NUM> and behind the locking rods <NUM> until the flange <NUM> is behind a locking rod. Thereafter, the locking and positioning mechanism <NUM> could be rotated such that surface <NUM> comes into contact with arm <NUM>. The tabs <NUM> could then be secured in place behind arm <NUM> to hold the bracket <NUM> to the locking rod <NUM>. As will be appreciated, locking rod <NUM> is still rotatable when the locking and positioning mechanism <NUM> is secured about such locking rod, thereby ensuring that the doors on the shipping container <NUM> could still be opened and closed.

In one embodiment, a similar locking and positioning mechanism <NUM> could be used on the second end of the bracket <NUM>. In this case, flange <NUM> could have a slit <NUM> and the tongue <NUM> of the locking and positioning mechanism <NUM> could rotatably connect the locking and positioning mechanism to such flange.

Alternatively, at the end of a flange <NUM>, a cup <NUM> could be provided. This is, for example, best seen in <FIG>. In this case, the cup is used for locking the bracket <NUM> to the locking rod <NUM> but due to play in the X direction, the X direction positioning would be mainly restricted based on the locking and positioning mechanism <NUM>.

In some embodiments, cup <NUM> may include a slit <NUM> which would accommodate a locking mechanism <NUM>. In this case, locking mechanism <NUM> includes a tongue <NUM> and a surface <NUM>, where the tongue could be inserted through the slit of the cup <NUM> and secured to itself or another portion of the locking mechanism <NUM>, either through welding, tabs, screws, or other similar mechanisms. The locking mechanism <NUM> would then be rotatable until a surface <NUM> comes into contact with arm <NUM>. At this point, tabs similar to the tabs shown with regard to the locking and positioning mechanism <NUM> could be secured about arm <NUM> to lock the bracket <NUM> to the locking rod <NUM>.

Using the design of the bracket of <FIG> with a cup at one side, installation may be accomplished by placing the bracket <NUM> within the corrugation <NUM> behind an adjoining pair of locking rods and sliding the bracket such that the cup <NUM> comes into contact with the first locking rod. At this point, the locking and positioning mechanism <NUM> may be placed over the second rod and affixed, for example utilizing tabs <NUM>, to arm <NUM>. Further, a locking mechanism <NUM> may be rotated and the tabs secured about arm <NUM>.

In an alternative embodiment, rather than tabs, the locking and positioning mechanism may be secured to the arm <NUM> utilizing a nut and bolt. Similarly, the locking mechanism may be secured about arm <NUM> utilizing a nut and bolt. Reference is now made to <FIG>, <FIG>, <FIG> and <FIG>.

As seen in the embodiments of <FIG>, when utilizing a nut and bolt, arms <NUM> and <NUM> may be the same or may be different then arms <NUM> and <NUM> respectively. Specifically, as seen in <FIG>, arm <NUM> could be configured with a hole therein to receive the nut and bolt. Similarly, although not shown, arm <NUM> could have a hole configured to receive the nut and bolt.

A locking and positioning mechanism <NUM> is configured to interact with a flange <NUM>. In particular, a tongue <NUM> is configured to fit through a slit <NUM> within flange <NUM> and could be secured to itself or another part of the locking and positing mechanism <NUM>, through welding, adhesive, tabs, or nut and bolt, among other options.

When installing the bracket <NUM>, the locking and positioning mechanism <NUM> can rotate about the end of flange <NUM> until a surface <NUM> comes into contact with arm <NUM>. In some embodiments, positioning flanges <NUM> may be located on either side of surface <NUM> and be spaced such that they align with the outside of arm <NUM> to allow the correct positioning of surface <NUM>. However, positioning flanges <NUM> are optional.

When rotated into position, a hole within surface <NUM> aligns with a hole in arm <NUM>, thereby allowing a nut and bolt <NUM> to project through both arm <NUM> and surface <NUM> to secure arm <NUM> and surface <NUM> together. Once secured, the locking and positioning mechanism <NUM> holds the bracket <NUM> to the locking rod <NUM>, while allowing locking rod <NUM> to rotate therein.

In some embodiments, a locking and positioning mechanism <NUM> may be used on both sides of bracket <NUM>. In other embodiments, a cup <NUM> may extend from an arm <NUM> on bracket <NUM>. This is, for example, best seen in <FIG>.

As seen in the embodiment of <FIG>, a locking mechanism <NUM> includes a tongue <NUM> which may extend through a slit <NUM> within cup <NUM>. The tongue <NUM> may be secured to itself or to another part of locking mechanism <NUM>, for example through welding, tabs, adhesion, nut and bolt, among other options.

When installing bracket <NUM>, the cup may be slid over a locking bar <NUM> and the locking mechanism <NUM> rotated about the end of cup <NUM> until a surface <NUM> comes into contact with arm <NUM>. In some cases, positioning flanges <NUM> may be located on either side of surface <NUM> to ensure the correct positioning of the surface with regard to arm <NUM>. However, positioning flanges <NUM> are optional.

A hole within arm <NUM> may thereby align with a hole within surface <NUM>, allowing a nut and bolt <NUM> to project through both holes to secure locking mechanism <NUM> to arm <NUM>.

When secured, bracket <NUM> is prevented from projecting outwardly from the shipping container by locking rod <NUM>, while locking rod <NUM> is allowed to rotate within cup <NUM>.

The embodiments of <FIG> show a fixed length bracket <NUM> which may be used, for example, on a standard ISO container or if the bracket is made for a particular type of container. However, in some cases, the spacing between adjacent locking rods <NUM> may vary, and in this case, a bracket having a variable distance between the locking bars may be desired. Reference is now made to <FIG>.

In the embodiment of <FIG>, a bracket <NUM> having a telescoping base <NUM> is provided. In particular, an inner portion <NUM> of base <NUM> is adapted to slide within an outer portion <NUM> of base <NUM>. In some cases, one or more set screws <NUM> may be configured to hold inner portion <NUM> at a certain length within outer portion <NUM>. This is done through a plurality of holes <NUM> within both the inner portion <NUM> and the outer portion <NUM>, which may be aligned prior to engaging the set screws <NUM>. In some cases, the holes <NUM> and set screws <NUM> may be only engaged on one side of bracket <NUM>. In other cases, the bracket <NUM> may have holes for set screws <NUM> on both sides thereof.

In some embodiments, rather than set screws <NUM>, other holding options such as spring clips, brackets, clamps or other mechanisms could be utilized to hold inner portion <NUM> at a particular length with an outer portion <NUM>.

In some embodiments, no holding options are provided for the base <NUM>.

In the example of <FIG>, arms <NUM> and <NUM> are provided for the bracket <NUM>. However, in other cases arms <NUM> and <NUM> or other similar arms could be utilized. Further, the example of <FIG> is shown with a cup <NUM> and a flange <NUM>. However, in other cases, both ends of bracket <NUM> could include a flange <NUM>. Further, because bracket <NUM> is telescoping, in other embodiments both sides of bracket <NUM> could include a cup <NUM>. This may, for example, be used if the cup <NUM> and locking mechanism therefore provide a positioning fit.

In operation, bracket <NUM> could be sized to the length of the particular container on which the electronic device is being installed prior to the locking mechanism <NUM> and the locking and positioning mechanism <NUM> being engaged. In other cases, the locking mechanism <NUM> and locking and positioning mechanism <NUM> could be engaged prior to the set screws <NUM> being fixed. Other options are possible.

In still a further embodiment, rather than a telescoping bracket <NUM>, a fixed bracket with a variable engagement mechanism may be utilized. Reference is now made to <FIG>. In the example of <FIG>, a bracket <NUM> is provided. Bracket <NUM> has a base <NUM> and includes arms <NUM> and <NUM>. A flange <NUM> protrudes from the end of arm <NUM> and a flange <NUM> protrudes from the end of arm <NUM>.

In the example of <FIG>, flange <NUM> includes two holes for securing a locking and positioning mechanism <NUM> thereto. In particular, ends <NUM> of locking and positioning mechanism <NUM> are configured to align the holes of the locking and positioning mechanism <NUM> with the holes on flange <NUM>.

The same locking and positioning mechanism <NUM> may be used in some cases on flange <NUM>. In other embodiments, different locking and positioning mechanisms may be used on the opposite sides of bracket <NUM>.

For example, in some embodiments, rather than two holes, locking and positioning mechanism <NUM> could be rotationally affixed to flange <NUM> in a similar manner to locking and positioning mechanism <NUM>.

A plurality of holes <NUM> are provided on flange <NUM> to allow for the variation in the spacing between adjoining locking rods <NUM>.

In operation, the bracket <NUM> could be slid into the corrugation <NUM> and locking and positioning mechanism <NUM> could be affixed to flange <NUM>. Thereafter, the locking and positioning mechanism <NUM> on the other side of bracket <NUM> could be affixed over the locking rod <NUM> to flange <NUM> utilizing the holes <NUM>.

In some embodiments, if the positioning of the electronic device between adjacent locking rods is desired with more precision, a flange <NUM> could be used on both sides of bracket <NUM>, thereby allowing the electronic device to be positioned more precisely in the X axis.

Further, in another embodiment, the bracket <NUM> from <FIG> could be combined with the bracket <NUM> from the embodiment of <FIG>. For example, the telescoping base <NUM> portion of bracket <NUM> could be used for gross adjustment while the plurality of holes in flange <NUM> could be used for fine adjustment.

In operation, bracket <NUM>, <NUM> or <NUM>, once secured, ensure that an electronic device <NUM> affixed thereto is securely held in place, minimizing movement and rotation. Specifically, the electronic device <NUM> fits within corrugation <NUM> and is positioned behind the front surface of locking rods <NUM>, thereby protecting the electronic device <NUM>.

Movement in the X axis is prevented by locking and positioning mechanism <NUM>, <NUM> or <NUM>.

Movement in the Z axis is prevented by a combination of the flanges <NUM>, <NUM>, <NUM>, or <NUM>, or cup <NUM> on a surface of locking rod <NUM> when combined with pressure of the bracket against shipping container <NUM>. This may be achieved in several ways.

In one embodiment the bracket <NUM>, <NUM> or <NUM> is configured to sit flush within the interior of a corrugation <NUM>. In other cases, bracket <NUM>, <NUM> or <NUM> could be dimensioned to engage the angled surfaces <NUM> and <NUM> of corrugation <NUM>, for example at points <NUM> as shown in <FIG>.

Arms <NUM>, <NUM>, <NUM>, <NUM>, <NUM> or <NUM> could be dimensioned and angled to ensure that the bracket <NUM>, <NUM> or <NUM> is in contact with the shipping container <NUM>. The bracket <NUM>, <NUM> or <NUM> could have a rearwardly facing flanges to lift the bracket from the surface of the shipping container. This is for example shown with flanges <NUM> in the embodiments of the <FIG> and <FIG>. Flanges <NUM> provide the extra advantage of allowing the electronic device <NUM> to be screwed or bolted to the bracket and allowing the screw or bolt to project rearward of the base without coming into contact with the shipping container <NUM>.

In some cases, the length of flanges <NUM> could vary based on the type of shipping container that bracket <NUM>, <NUM> or <NUM> is configured to be used for.

For brackets <NUM> and <NUM>, as these brackets are telescoping, another option for providing a solid contact between the locking bars and the corrugation <NUM> (whether a flat portion or angled surfaces <NUM> and <NUM>) is a variable angle on arms <NUM>, <NUM>, <NUM>, <NUM>, <NUM> or <NUM>. Specifically, if the joint between the base <NUM> or <NUM> and the arms, along with the joint between the arms and the flanges provides some flexibility, then the depth of the brackets <NUM> or <NUM> between an electronic device mounting surface and the surface of flanges <NUM>, <NUM>, <NUM> or <NUM> could be varied.

In some embodiments, height adjusting or tensioning screws <NUM>, as best seen in <FIG>, could be used. Such screws could be adjusted before or after the bracket is affixed to the locking rods <NUM> to ensure a tight fit for the bracket between the locking rods <NUM> and the shipping container <NUM>. While the embodiment of <FIG> shows the height adjusting or tensioning screws <NUM> associated with bracket <NUM>, such screws could be equally used with brackets <NUM> or <NUM>.

In some cases, height adjusting or tensioning screws <NUM> could further include footers (not shown) to prevent damage to the shipping container.

Therefore, by using one or a combination of the length and angle of the bracket arms, height adjusting or tensioning screws, and/or flange heights on the rear of the bracket, movement of the bracket in the Z axis between the lock bars and the shipping container is minimized or prevented.

Movement in the Y axis may be minimized based on gravity and a surface <NUM> of the shipping container. In particular, the base of bracket <NUM>, <NUM> or <NUM> may engage surface <NUM>. This may occur whether bracket <NUM>, <NUM> or <NUM> sits flush against corrugation <NUM> or has engagement with an angled portion of surface <NUM>. In some embodiments the prevention of movement downwards in the Y axis may be sufficient.

In other cases, the bracket may engage a portion of both surface <NUM> and <NUM>, thereby preventing movement in both directions in the Y axis.

In still further embodiments, if the bracket is not wide enough in the Y axis, then adjustment screws <NUM>, as for example seen in <FIG>, could be used to engage one or both of surfaces <NUM> or <NUM>. Such adjustment screws <NUM> may be adjusted prior to installation of the bracket <NUM>. In some cases, adjustment screws <NUM> may include a footer (not shown) to prevent damage to the shipping container <NUM>.

Further, while the embodiment of <FIG> shows the adjustment screws <NUM> used with bracket <NUM>, such adjustment screws could equally be used with brackets <NUM> or <NUM>.

Further, while the embodiment of <FIG> shows both adjusting or tensioning screws <NUM> and adjustment screws <NUM>, in some cases only one of the two types of screws may be provided with a bracket <NUM>, <NUM> or <NUM>.

In some embodiments, rather than or in addition to screws <NUM> or <NUM>, shims or other padding could be used with the brackets.

Based on the above, a bracket <NUM>, <NUM> or <NUM> could be affixed to a shipping container for mounting an electronic device thereon, where the electronic device is secured to the container and restricted from moving in the X, Y and Z axes.

Further, the electronic device would be stable from yaw, pitch or roll based on the attachment to the shipping container. Specifically, the engagement of the bracket between the corrugation <NUM> or surfaces <NUM> and <NUM> and the locking rods <NUM> prevents any rotation along any axis.

As such, vibration and movement of the electronic device is minimized which allows for electronic devices to operate properly and without damage.

The device <NUM> could be mounted to bracket <NUM>, <NUM> or <NUM> in a variety of ways. In some embodiments, base <NUM>, <NUM> or <NUM> could be formed or provided with mounting mechanisms integral thereto. For example, a hole may exist on either end of base <NUM>, <NUM> or <NUM> through which a nut and bolt could be projected to secure equipment or device <NUM> to the bracket. In some cases, the hole could be threaded to allow for a screw rather than a nut and bolt. In some cases, if the base <NUM> is telescoping, a plurality of holes could be provided in the base to allow the equipment to be mounted when the base <NUM> is telescoped to different sizes. Other options are possible.

In still further cases, as described below, the electronic device could be held to the base utilizing a u-shaped bend. For example, on a vehicle, the screws may loosen over time, which may cause vibration and damage of the device. In this regard, a dimple on a U-shaped bend, along with tabs, may be used to hold the device to the bracket.

As provided above, the mount may be integral with the base <NUM>, <NUM> or <NUM> in some embodiments. In some embodiments, the mount may be configured to be affixed to the base <NUM>, <NUM> or <NUM>, for example through screws, welding or adhesive, among other options. In still other embodiments, a mount may be configured to be applied directly to the shipping container, for example through screws, welding or adhesive, among other options. Reference is now made to <FIG> which show example mounts for electronic devices or other devices.

Referring to <FIG>, a mount <NUM> includes a first U-shaped bend <NUM> and a second U-shaped bend <NUM>. In one embodiment, the electronic device may be mounted by inserting projections on the electronic device behind the U-shaped bend <NUM> and <NUM> and inserting a screw or bolt through a hole therein. In some cases, the hole could project through a base <NUM> for use of a bolt. This may for example, occur in situations where mount <NUM> is either integral to or connected to a bracket which has flanges below its base to accommodate the nut or head of the bolt.

In some cases, the screw may not proceed all the way through the electronic device and may therefore not require a hole in the base <NUM>. This could be used in the case where mount <NUM> is integral to the base of the bracket, the mount <NUM> is affixed to the base of the bracket, or the mount <NUM> is affixed directly to the shipping container.

In another embodiment, is best seen in <FIG>, the electronic device <NUM> could be mounted on the outside of the U-Shaped bend. In this case, a screw or bolt could project through the electronic device into the mount using a hole in the U-shaped bend <NUM> and <NUM>. This could be used in the case where mount <NUM> is integral to the base of the bracket, the mount <NUM> is affixed to the base of the bracket, or the mount <NUM> is affixed directly to the shipping container.

Rather than screws, nuts or bolts, in some cases tension and tabs may be used to hold the device in place. Reference is now made to <FIG>.

In the embodiments of <FIG>, a mount <NUM> is provided. Mount <NUM> includes a base <NUM>, along with a U-shaped bend <NUM> on each side of the mount.

Each U-shaped bend <NUM> includes a dimple <NUM> therein. The dimple is configured to fit within a screw hole on the electronic device and to resiliently hold the electronic device between the base <NUM> and the top of the U-shaped bend <NUM>. Specifically, the material tension of the U-shaped bend is used to hold the device <NUM> in the Z direction. Unlike a screw, this dimple will never come loose. Further, dimple <NUM> will automatically be centered within the screw hole, causing accurate positioning of the device in X-Y directions.

Tabs <NUM> and <NUM> may optionally in some cases be provided. For example, in one embodiment, tabs <NUM> may be bent prior to equipment installation. The electronic device <NUM> or other device may be installed by sliding the device into the mount <NUM> from the top so that projections at each end of the device <NUM> fit within the U-shaped bend <NUM> until the dimple <NUM> engages with the screw hole in the electronic device and the electronic device comes into contact with tabs <NUM>. At this point, tabs <NUM> may be bent to hold the electronic device <NUM> in place.

In other embodiments, tabs <NUM> could be bent during equipment installation.

In other embodiments, tabs <NUM> could be omitted.

Elements of mount <NUM> could be integral with brackets <NUM>, <NUM>, <NUM> in some embodiments. For example, the base could be created with u-shaped bend <NUM> and tabs <NUM>.

In some embodiments, mount <NUM> could be a separate component from the base and be affixed to a base <NUM>, <NUM>, or <NUM>, for example using screws, bolts, adhesive, welding, among other options. The choice for the method for affixing the mount may in some cases reflect characteristics of the device to be mounted, such as the size or weight of the device. For example, in some cases the device may be too heavy to have adhesive used for affixing the mount.

In some embodiments, mount <NUM> could be affixed directly to shipping container <NUM>, for example using screws, bolts, adhesive, welding, among other options. The choice for the method for affixing the mount may in some cases reflect characteristics of the device to be mounted, such as the size or weight of the device. For example, in some cases the device may be too heavy to have adhesive used for affixing the mount.

Different shapes and configurations of electronic equipment could be accommodated by a mount. For example, in the embodiments of <FIG>, a mount <NUM> is provided. Mount <NUM> includes a U-shaped bend <NUM> on each side of the mount.

Each U-shaped bend <NUM> includes a dimple <NUM> therein. The dimple is configured to fit within a screw hole on the electronic device and to resiliently hold the electronic device within the U-shaped bend <NUM>. Specifically, the material tension of the U-shaped bend is used to hold the device <NUM> in the Z direction. Unlike a screw, this dimple will never come loose. Further, dimple <NUM> will automatically be centered within the screw hole, causing accurate positioning of the device in X-Y directions.

Tabs <NUM> and <NUM> may optionally in some cases be provided. For example, in one embodiment, tabs <NUM> may be bent prior to equipment installation. The electronic device <NUM> or other device may be installed by sliding the device into the mount <NUM> from the top so that tabs at each end of the device <NUM> fit within the U-shaped bend <NUM> until the dimple <NUM> engages with the screw hole in the electronic device and the electronic device comes into contact with tabs <NUM>. At this point, tabs <NUM> may be bent to hold the electronic device <NUM> in place.

Elements of mount <NUM> could be integral with brackets <NUM>, <NUM>, <NUM> in some embodiments. This may occur if U-shaped bend <NUM> and tabs <NUM> are provided as part of the base, for example.

In some embodiments, mount <NUM> could be a separate component from the base and be affixed to a base <NUM>, <NUM>, or <NUM>, for example using screws, bolts, adhesive, welding, among other options.

In some embodiments, mount <NUM> could be affixed directly to shipping container <NUM>, for example using screws, bolts, adhesive, welding, among other options.

In some cases, electronic equipment may need to be tilted in order to function properly. One option for a tilt is provided with regard to the mounts shown in <FIG>.

In the embodiments of <FIG>, a mount <NUM> includes a first base <NUM> and a second base <NUM>, where the second base <NUM> is raised away from base <NUM> and tilted with respect thereto. The angle of the tilt could be adapted for the particular equipment that is being installed in some cases. In other cases, a height adjustment mechanism could be provided to allow for variable tilt.

Equipment <NUM> can be mounted to second base <NUM>. In the example of <FIG>, the mounting is done through U-shaped bends <NUM> with a dimple <NUM> therein, as described with regards to the embodiments of <FIG> above. A tab <NUM> could be provided to hold the electronic device in place.

In some embodiments, a spring clip <NUM> could be provided to hold the electronic device in place.

While the embodiments of <FIG> utilize the U-shaped bend and dimple, in other cases the electronic device could be held through screws, nuts or bolts, among other options.

Elements of mount <NUM> could be integral with brackets <NUM>, <NUM>, <NUM> in some embodiments. In some embodiments, mount <NUM> could be a separate component from the base and be affixed to a base <NUM>, <NUM>, or <NUM>, for example using screws, bolts, adhesive, welding, among other options. In some embodiments, mount <NUM> could be affixed directly to shipping container <NUM>, for example using screws, bolts, adhesive, welding, among other options.

In still a further embodiment of the present disclosure, a bracket for mounting an electronic or other device could be configured to fit tightly within a corrugation <NUM> and to rest behind at least one locking rod <NUM>. For example, such bracket may be made utilizing plastic injection molding or aluminum extrusion, in some cases. In some cases, the bracket could be made through sheet metal folding. In some cases, the bracket could be made in two or more parts which may be joined together, for example through welding, adhesive, mechanical means such as screws or bolts come among other options.

Reference is now made to <FIG>. In the embodiments of <FIG>, two shapes of corrugation <NUM> are shown. The bracket <NUM> is configured to fit within the shape of the corrugation of an intended shipping container the bracket is to be mounted on. For example, as seen in <FIG>, bracket <NUM> has edges that slope at more of an angle then the bracket within <FIG>.

In some embodiments, the bracket <NUM> may be of similar shape to the corrugation. In other cases, the bracket <NUM> may be configured to fit within the corrugation where only a portion of the bracket <NUM> fits against at least one of the sides of the corrugation.

Bracket <NUM> further includes a surface <NUM> for use in mounting an electronic device. In some cases, the electronic device may be mounted to holes <NUM> that are predrilled into bracket <NUM>. However, in other cases, the electronic device may be mounted by creating holes, for example utilizing self tapping screws, or by drilling on site and using screws or nuts. In still further cases, a mounting bracket such as that described above with regard to <FIG> could be mounted onto bracket <NUM> prior to mounting the electronic device. Other options for mounting are also possible.

In some embodiments, using brackets <NUM>, a low profile electronic device may be used so that the electronic device sits behind the front surface of locking rods <NUM>. In other cases, the electronic device may extend past the front of the locking rods <NUM>.

In some embodiments, bracket <NUM> may include rubber feet or stoppers, as well as rubber surfaces to fit under locking rods <NUM>. Such rubber feet and surfaces may reduce motion of bracket <NUM> and further cushion bracket <NUM> from vibrations in some cases.

The mounting bracket <NUM> may be held to the shipping container in a variety of ways. Reference is now made to <FIG>.

Referring to <FIG>, in one embodiment the bracket <NUM> may be held in place utilizing a pair of stoppers <NUM>. In particular, stoppers <NUM> could be mounted on bracket <NUM> once a bracket <NUM> is fitted behind locking rods <NUM> within corrugation <NUM>. Each stopper could be mounted to the outside or the inside of the locking rod to prevent motion of bracket <NUM> in the X direction.

In the embodiment of <FIG>, the stopper <NUM> is shown as a U-shaped bar that could be affixed to bracket <NUM> using nuts or other locking mechanisms. In some embodiments, stopper <NUM> may have a flange that is adapted to rest against the front surface of bracket <NUM> to provide support when a nut is affixed within a centre of bracket <NUM>.

In other embodiments, stopper <NUM> may be affixed through spring clips or other locking mechanisms. For example, the stopper <NUM> could use a similar mechanism to a U-shaped bicycle lock in which the bracket may be placed into a first hole and rotated into a second hole, where it could be locked. The first hole could have a tongue extending therein to prevent removal of the bracket from the first hole.

Other options for securing stopper <NUM> to bracket <NUM> are possible.

In other embodiments, stopper <NUM> could be other shapes, including a solid flange, one or more poles or rods protruding from bracket <NUM>, or other similar shapes.

Referring to <FIG>, in another embodiment, bracket <NUM> may be secured to the shipping container utilizing clamps <NUM>. For example, clamps <NUM> may be a u-shaped bolt that fits over the locking rod <NUM> and may be secured to bracket <NUM> utilizing nuts, for example. in some cases, clamp <NUM> may include a flange or a nut and washer to sit on the surface of bracket <NUM> when a nut is secured from within bracket <NUM>. This configuration may for example create a space between the clamp and locking rod <NUM> to facilitate rotation of locking rod <NUM>. However, such flange or washer is optional.

The embodiment of <FIG> includes a single clamp <NUM> on each side of bracket <NUM>. However, in other cases, multiple clamps could be provided on each side of bracket <NUM>.

In still a further embodiment, clamps could be secured to bracket <NUM> on only one side of the locking rod <NUM>. This is for example shown in <FIG>. In the embodiment of <FIG>, a clamp <NUM> is adapted to sit over locking rod <NUM> and be secured to the bracket <NUM> at one side of the locking rod, for example utilizing screws, nuts, bolts, among other options. Clamps <NUM> would be installed after bracket <NUM> is placed behind locking rods <NUM> within a corrugation <NUM>.

Further, in some embodiments, different securing mechanisms could be used on different ends of bracket <NUM>. For example, reference is now made to <FIG>.

In the example of <FIG>, bracket <NUM> is secured utilizing a stopper <NUM> at a first end thereof and a clamp <NUM> at a second end thereof.

In the example of <FIG>, bracket <NUM> is secured utilizing a clamp <NUM> at a first end thereof and a clamp <NUM> at a second end thereof.

Other options for securing bracket <NUM> to the shipping container are possible.

In a further embodiment, a bracket may not be necessary for mounting the electronic device to the shipping container. For example, reference is now made to <FIG>.

In the embodiments of <FIG>, the device (for example an electronic device) may be shaped to fit securely within a corrugation <NUM> on a shipping container. Therefore, device <NUM> is shaped such that the depth of the device <NUM> is generally the same depth as the distance between the rear of a locking rod <NUM> and the bottom of corrugation <NUM>.

In some embodiments, the device <NUM> may be of similar shape to the corrugation. In other cases, the device may be configured to fit within the corrugation where only a portion of the device <NUM> fits against at least one of the sides of the corrugation <NUM>.

Device <NUM> may include rubber feet in some cases below the device to grip the shipping container and provide for vibration control. In some embodiments, device <NUM> may include a rubber backing to sit between the device and the locking rod <NUM>.

Referring to <FIG>, in one embodiment the device <NUM> may be held in place utilizing a pair of stoppers <NUM>. In particular stoppers <NUM> could be mounted on device <NUM> once device <NUM> is fitted behind locking rods <NUM> within corrugation <NUM>. Each stopper could be mounted to the outside or the inside of the locking rod to prevent motion of device <NUM> in the X direction.

In the embodiment of <FIG>, the stopper <NUM> is shown as a U-shaped bar that could be affixed to device <NUM>. However, other configurations for stopper <NUM> are possible.

Referring to <FIG>, in another embodiment, device <NUM> may be secured to the shipping container utilizing clamps <NUM>. For example, clamps <NUM> may be a u-shaped bolt that fits over the locking rod <NUM> and may be secured to device <NUM>.

The embodiment of <FIG> includes a single clamp <NUM> on each side of device <NUM>. However, in other cases, multiple clamps could be provided on each side of device <NUM>.

In still a further embodiment, clamps could be secured to device <NUM> on only one side of the locking rod <NUM>. This is for example shown in <FIG>. In the embodiment of <FIG>, a clamp <NUM> is adapted to sit over locking rod <NUM> and be secured to the device <NUM> at one side of the locking rod, for example utilizing screws, nuts, bolts, among other options. Clamps <NUM> would be installed after device <NUM> is placed behind locking bars <NUM> within a corrugation <NUM>.

Claim 1:
A bracket for affixing an electronic device (<NUM>) to a shipping container (<NUM>), the bracket (<NUM>, <NUM> or <NUM>) comprising:
a base (<NUM>, <NUM>, <NUM>);
a first arm (<NUM>) and a second arm (<NUM>) disposed on distal ends of the base (<NUM>, <NUM>, <NUM>);
a first flange (<NUM>) and second flange (<NUM>) extending from the first arm (<NUM>) and the second arm (<NUM>);
a first affixing mechanism (<NUM>) and a second affixing mechanism (<NUM>) to affix the first flange (<NUM>) and the second flange (<NUM>) respectively to adjacent locking rods (<NUM>) on the shipping container (<NUM>), said first affixing mechanism (<NUM>) and second affixing mechanism (<NUM>) allowing rotation of the locking rods (<NUM>); and
a mounting mechanism on the base (<NUM>, <NUM>, <NUM>) for mounting the electronic device (<NUM>),
wherein the base (<NUM>, <NUM>, <NUM>) is configured to fit within a corrugation behind the adjacent locking rods (<NUM>), and at least one portion of the base (<NUM>, <NUM>, <NUM>) is configured to contact the shipping container (<NUM>) when the first flange (<NUM>) and the second flange (<NUM>) are behind the adjacent locking rods (<NUM>).