Amazon Technologies, Inc.

Mckt Products LLC

Timothy Alan Talda

Samuel Gardner Garrett

Brian Hoffman

Martin Peter Aalund

Jon Stuart Battles

David L Alspaugh

Akshay Rajendra Tilekar

Toby Ge Xu

Seshachalamgupta Motamarri

Eric K Wyman

Alexandra Kay Hartford

Paul Raines

Mohan Mahadevan

John Matrecano

Unnikrishnan Vadakkanmaruveedu

Paul Roy Raines, Jr

Cory R Boudreau

Steven Todd Johnson

Jacqueline T Underberg

Michael Ralph

Garett Andrew Ochs

William Scott Kalm

Emily Dunne

Sachin Rajendra Kothari

Todd Brunner

David Bruce McCalib, Jr

Benjamin Douglas Garcia

Jon David DeFant

Dinesh Mahadevan

David C Franchino

Stephanie Tomasetta

Vinay Balan

Michael Barrett Hill

Vivian Lin

Alexandra Surasky-Ysasi

John Elias Darrow

Tyson Wittrock

Steven Eric Nuetzman

Bruno Zbinden

Terin Thomas

John Stuart Battles

Katherine Anne Talda

Souleymane Diallo

George T Davies

Vahida Kamranzadeh

The present disclosure describes various aspects of crank-based lighting, which may improve visibility of pedal-based vehicles or conveyances. In some aspects, a light generating apparatus includes a crank interface and lighting system. The crank interface may facilitate mounting of the apparatus to a crank (or crankarm) of a bicycle or other pedal-based vehicle. The lighting system may generate or emit light based on information indicating an angle, movement, and/or position of the crank, such as to cause light emission to emulate or project leg movement of a rider.

Apparatuses and methods for crank-based lighting

A material handling apparatus for reorienting and transferring inventory items to a packaging device includes a support member and a packaging conveyor. The support member receives an inventory item and reorients the item to a rejection orientation or a packaging orientation. The item is moved onto the packaging conveyor in the packaging orientation and is transported to the packaging device.

Material handling apparatus

A mobile, rotatable, transport mechanism may include a rotating carrier having a plurality of conveyor sections. The rotating carrier may be moved within a facility by a robotic drive unit. In addition, the rotating carrier may be rotated between a vertical orientation for transport or storage, and a horizontal orientation for transfer of items or trays. A leveling mechanism may maintain the plurality of conveyor sections in a same relative orientation during rotation of the rotating carrier. Further, a height of the rotating carrier and/or angles of the plurality of conveyor sections may be adjusted to facilitate transfer of trays.

Mobile, rotatable, transport mechanism with multiple conveyor sections

An actuator system for fabricating a cavity within thermoplastic material includes a plurality of actuators arranged in an array. When dimensions of an item are determined, the actuator system may be programmed with data regarding such dimensions to fabricate a cavity for the item. A subset of the actuators, and distances by which each of the actuators is to be extended, may be selected based on dimensions of the item, in order to fabricate a cavity within the thermoplastic material that may accommodate the item therein. Additionally, the actuators and the distances may be selected based on intrinsic or extrinsic data regarding the item, and a cavity fabricated within the thermoplastic material may include one or more buffer zones or protective regions that are specifically formed with respect to aspects of the item.

Right-sized thermoformed cavities for packaging items

A film tensioning and steering system can be configured to extract a film from a film source. One or more film characteristics can require that the film tensioning and steering system be isolated from the film source so that a film tension can be maintained within the film tensioning and steering system. A first drive roller pair and a second drive roller pair can be configured to secure the film and enable a dampening roller to maintain the film tension between the first drive roller pair and the second drive roller pair. Additionally, the dampening roller can store an amount of the film as a film buffer. Accordingly, the film tensioning and steering system can maintain the film tension such that a steering system can align the film before the first drive roller pair provides the film at a proper alignment to a downstream system.

Isolated film tension and steering system

A packaging cushion includes a first liner and a second liner opposite one another and each defining an inner surface. A transverse liner axis extends normal to the inner surfaces. The packaging cushion includes a mesh bonded to and disposed between the first and second liners. The mesh has a top mesh surface and an opposed bottom mesh surface. The mesh defines a plurality of nodes and a plurality of legs interconnecting the plurality of nodes. Each of the plurality of nodes defines 1) a top node surface defined by the top mesh surface, 2) a bottom node surface defined by the bottom mesh surface, and 3) a transverse node axis extending substantially normal to the top and bottom node surfaces. The transverse node axes of at least some of the plurality of nodes are each oriented at an oblique angle relative to the transverse liner axis.

Packaging products and associated material

Systems, methods, and computer-readable media are disclosed for defect prevention for flexible container sealing systems. In one embodiment, an example flexible container sealing system may include a first camera configured to image an item disposed in a flexible container, a laser system configured to detect presence of items, a cutting assembly configured to cut a material that forms the flexible container, a sealing assembly configured to seal one or more ends of the flexible container, and a computer system configured to determine, using the first camera, a height of the item disposed in the flexible container.

Defect prevention for flexible container sealing systems

Dunnage may be applied to surfaces of items by nozzles coupled to one or more robotic arms that may be operated in six degrees of freedom within three-dimensional space. The dunnage is applied in substantially hollow pieces or sections by one or more 3D printing processes, e.g., by deposition. Such pieces or sections may be applied in one or more series or patterns along surfaces of an item prior to enveloping the item in one or more wraps or covers, or depositing the item in one or more containers. Various characteristics of the dunnage, such as materials from which the dunnage is formed, diameters or thicknesses of the dunnage, the series or patterns in which the dunnage is applied to the surface of the item, or any other factors may be selected based on one or more attributes of the items, such as dimensions or shipping and handling instructions.

Packaging items using customized 3D-printed dunnage

The apparatus includes a moveable support platform within the container to reduce a distance that items fall into the container when stowed. The support platform is lowered by a movement mechanism as items are placed into the container. The movement mechanism may be a bladder filled with air, a biasing device, a pneumatic device, or a mechanical device. The moveable support may form a bottom portion of the container during transport of the container. In some instances, the movement mechanism may lift items out of the container to empty the container at a destination.

Movable loading support platform within a container

A package preparation system includes a material conveyable along a longitudinal direction and including two folded layers of polymeric film joined at a fold. The fold extends longitudinally and defines a first side of the material opposite an open second side. A first welding device forms partition welds located between the two folded layers and extending from the fold to a terminus inward of the open side. A second welding device forms first and second seal welds that extend from the fold to the open side and are spaced from each other by a length extending longitudinally and traversing a plurality of the partition welds. The system includes a device comprising a nozzle insertable in the open side, and clamps that traverse the length and temporarily seal the open side around the nozzle while the nozzle inflates interior channels defined between the plurality of partition welds.

Inflatable packaging materials, automated packaging systems, and related methods

In one embodiment, a conveyor system has first and second conveyors. The first conveyor has inner and outer sides and a first conveyor surface between the inner and outer sides that is configured to carry payloads between first and second conveyor ends along a first direction. The second conveyor has inner and outer sides and a second conveyor surface between the inner and outer sides of the second conveyor that is configured to carry payloads between the first and second conveyor ends along the first direction. The first and second conveyors are coupled to one another such that the inner sides are spaced closer to one another than the outer sides and the first and second conveyors are angularly offset from one another. The conveyor system is configured to rotate between a first orientation and a second orientation about an axis that extends along the first direction.

Rotatable v-shaped conveyor and system and method of using the same

A method of preparing a packaging laminate includes conveying a mesh of paper material having perforations against a rigid edge causing, at substantially each perforation, a mesh portion at the leading side to have an average elevation lower than that of a mesh portion on the trailing side of the perforation. The method includes expanding the perforations into cells separated from one another by legs interconnected by nodes defined in the mesh Top and bottom surfaces of the legs and nodes are reoriented from an initial orientation substantially parallel with a direction of conveyance of the mesh to an expanded orientation oblique to the direction of conveyance, such that, in the expanded orientation, the top surfaces of the nodes are substantially parallel with each other. The method includes attaching an outer liner to at least some of the bottom surfaces so as to form the packaging laminate.

Methods for packaging items and preparing packaging materials

Embodiments herein describe wireless transmission techniques for mitigating interference between wirelessly controlled machines in a shared space. To mitigate interference, the machines may be assigned different channels within the same frequency band. However, if machines using the same channel in a frequency band receive each other's wireless signals, the wireless signals can interfere. To free up additional bandwidth, in one embodiment, the command signals are transmitted using a different frequency band than a heartbeat signal used to stop the machines in case of emergencies. In another embodiment, time multiplexing or directional antennas can be used to mitigate interference. In another example, antenna diversity and multiple-input-multiple output (MIMO) can be used to further focus the radiation pattern onto the desired machine while avoiding transmitting wireless signals to neighboring machines. In one embodiment, the machines may use dual-channels to transmit and receive duplicate data.

Multi-channel communication with tightly spaced machines

Wireless control of tightly spaced machines

Growing community of inventors

Seattle, WA, United States of America

Timothy Alan Talda