Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: In some embodiments, apparatuses and methods are provided herein useful to access and advance a work flow for a product or a plurality of products during unloading and loading shipments at a distribution center or unloading and processing shipments at a retail store. In some embodiments, RFID tags and wearable smart devices are employed such that products are monitored as they are unloaded from shipments at a retail facility, such as a distribution center, and repackaged into containers and onto a delivery truck for delivery to another retail facility, such as a physical retail store, or one or more customers.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for product storage location identification. Reconfigurable lights can be mounted to product storage locations and one or more of the lights can be illuminated to identify a particular storage location, such as for placement or pick up of a product. The system described herein can utilize radio-frequency identification (RFID) chips or tags to identify products and storage locations. So configured, the system can identify which storage location a particular product is in or can identify where a particular product should be placed.

Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: Systems and methods described herein are optimized for cutting sealing elements on packages using optical radiation. Packages can pass through a cutting device that applies the optical radiation to damage, vaporize, or cut the sealing element (e.g., tape) on the package. The systems and methods control several aspects of the cutting process to adjust throughput, improve efficiency, and reduce line stoppages. Systems can include an in-feed conveyor that orients packages and rejects packages that are out of specification, which can lead to issues such as jamming or damage to the equipment. Systems can include a variable-speed cut conveyor controlled by a computing system to dynamically adjust the speed of packages based upon historical cut quality, environmental measurement data, and height data related to a vertical dimension of the package.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for product storage location identification. Reconfigurable lights can be mounted to product storage locations and one or more of the lights can be illuminated to identify a particular storage location, such as for placement or pick up of a product. The system described herein can utilize radio-frequency identification (RFID) chips or tags to identify products and storage locations. So configured, the system can identify which storage location a particular product is in or can identify where a particular product should be placed.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for monitoring and updating a supply chain record for one or more products. More specifically, a wearable smart device can be utilized by users to access a supply chain for a particular product, which can include shipping information, delivery vehicle information, package information, package condition, source information, destination information, storage information, and so forth. The wearable smart device can include an output device to present the supply chain to the user. The wearable smart device can also include a user input to add, update, or revise various pieces of information in the supply chain.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for monitoring and updating a supply chain record for one or more products. More specifically, a wearable smart device can be utilized by users to access a supply chain for a particular product, which can include shipping information, delivery vehicle information, package information, package condition, source information, destination information, storage information, and so forth. The wearable smart device can include an output device to present the supply chain to the user. The wearable smart device can also include a user input to add, update, or revise various pieces of information in the supply chain.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for product storage location identification. Reconfigurable lights can be mounted to product storage locations and one or more of the lights can be illuminated to identify a particular storage location, such as for placement or pick up of a product. The system described herein can utilize radio-frequency identification (RFID) chips or tags to identify products and storage locations. So configured, the system can identify which storage location a particular product is in or can identify where a particular product should be placed.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for monitoring and updating a supply chain record for one or more products. More specifically, a wearable smart device can be utilized by users to access a supply chain for a particular product, which can include shipping information, delivery vehicle information, package information, package condition, source information, destination information, storage information, and so forth. The wearable smart device can include an output device to present the supply chain to the user. The wearable smart device can also include a user input to add, update, or revise various pieces of information in the supply chain.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for monitoring and updating a supply chain record for one or more products. More specifically, a wearable smart device can be utilized by users to access a supply chain for a particular product, which can include shipping information, delivery vehicle information, package information, package condition, source information, destination information, storage information, and so forth. The wearable smart device can include an output device to present the supply chain to the user. The wearable smart device can also include a user input to add, update, or revise various pieces of information in the supply chain.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for accessing and advancing a work flow for a product. Pursuant to this, a wearable smart device can be utilized by users to access a work flow for a particular product, which can include identification, source, and destination information. The wearable smart device can include a hands-free user input so that the user can send a signal to advance the work flow upon completion of a task. The wearable smart device can further passively observe operations by the user to collect data regarding the products.

Abstract: In some embodiments, apparatuses and methods are provided herein useful to access and advance a work flow for a product or a plurality of products during unloading and loading shipments at a distribution center or unloading and processing shipments at a retail store. In some embodiments, RFID tags and wearable smart devices are employed such that products are monitored as they are unloaded from shipments at a retail facility, such as a distribution center, and repackaged into containers and onto a delivery truck for delivery to another retail facility, such as a physical retail store, or one or more customers.

Abstract: In some embodiments, apparatuses and methods are provided herein useful to access and advance a work flow for a product or a plurality of products during unloading and loading shipments at a distribution center or unloading and processing shipments at a retail store. In some embodiments, RFID tags and wearable smart devices are employed such that products are monitored as they are unloaded from shipments at a retail facility, such as a distribution center, and repackaged into containers and onto a delivery truck for delivery to another retail facility, such as a physical retail store, or one or more customers.

Abstract: In some embodiments, apparatuses and methods are provided herein useful for product storage location identification. Reconfigurable lights can be mounted to product storage locations and one or more of the lights can be illuminated to identify a particular storage location, such as for placement or pick up of a product. The system described herein can utilize radio-frequency identification (RFID) chips or tags to identify products and storage locations. So configured, the system can identify which storage location a particular product is in or can identify where a particular product should be placed.