Abstract: A coverboard panel may include a first facer layer including a non-porous synthetic polymer, a core layer, and a second facer layer, wherein the core layer is disposed between the first facer layer and the second facer layer, and wherein the coverboard panel is configured to be installed with the first facer layer bonded to a membrane.

Abstract: A method may include placing a bottom facer on a conveyor, placing a core layer on the bottom facer placing a top facer on the core layer, and pressing the bottom facer, the core layer, and the top facer in a hot press to form a panel, wherein the hot press causes the bottom facer to shrink relative to the top facer, introducing a warp into the panel such that, when installed, the warp compensates for an installation warp and the panel is flat upon installation.

Abstract: A panel including a first layer including fragments from a first blend of paper fragments of a first size and plastic fragments of a second size, a second layer including fragments from a second blend of paper fragments of a third size and plastic fragments of a fourth size, the third size being different from the first size, and the fourth size being different from the second size, and a third layer comprising fragments from the first blend. The second layer is disposed between the first layer and the third layer.

Abstract: Disclosed herein is a roof cover board and a method of manufacturing an improved cover board product. The method includes receiving waste materials or first use materials, the waste materials or first use materials containing a mixture of cellulose, plastic and other materials; separating the cellulose and the plastic from the mixture; shredding the separated cellulose using a first shredder into a stream of cellulose and shredding the separated plastic using a second shredder into a stream of plastic; selecting a cellulose to plastic ratio from a plurality of cellulose to plastic ratios; metering shredded cellulose from the stream of cellulose and shredded plastic from the stream of plastic according to the selected cellulose to plastic ratio; mixing the metered shredded cellulose and plastic; forming said mixture into a mat; and consolidating the mat into a finished good using heat and pressure.

Abstract: Aspects disclosed herein relate to a method comprising: obtaining a list of data paths to at least one persistent storage device through a plurality of NUMA nodes; associating with each data path, access performance information; receiving a request to access one of the at least one persistent storage device; calculating a preferred data path to the one of the at least one persistent storage device using the access performance information; and accessing the one of the at least one persistent storage device using the preferred data path.

Abstract: A method comprising: receiving, at a vector processor, a request to store data; performing, by the vector processor, one or more transforms on the data; and directly instructing, by the vector processor, one or more storage device to store the data; wherein performing one or more transforms on the data comprises: erasure encoding the data to generate n data fragments configured such that any k of the data fragments are usable to regenerate the data, where k is less than n; and wherein directly instructing one or more storage device to store the data comprises: directly instructing the one or more storage devices to store the plurality of data fragments.

Abstract: A method comprising: receiving, at a vector processor, a request to store data; performing, by the vector processor, one or more transforms on the data; and directly instructing, by the vector processor, one or more storage device to store the data; wherein performing one or more transforms on the data comprises: erasure encoding the data to generate n data fragments configured such that any k of the data fragments are usable to regenerate the data, where k is less than n; and wherein directly instructing one or more storage device to store the data comprises: directly instructing the one or more storage devices to store the plurality of data fragments.

Abstract: A system, comprising: a plurality of clusters, each cluster comprising two or more nodes and data storage; data storage comprising two or more storage arrays; each storage array comprising two or more storage devices; each storage device being configured to store data; each node being configured to receive requests to interact with data stored on a storage device; wherein the system is configured to provide at least two communication paths between any pair of components, the components comprising the nodes, storage arrays, and the storage devices.

Abstract: Aspects disclosed herein relate to a method comprising: obtaining a list of data paths to at least one persistent storage device through a plurality of NUMA nodes; associating with each data path, access performance information; receiving a request to access one of the at least one persistent storage device; calculating a preferred data path to the one of the at least one persistent storage device using the access performance information; and accessing the one of the at least one persistent storage device using the preferred data path.

Abstract: A method comprising: receiving, at a vector processor, a request to store data; performing, by the vector processor, one or more transforms on the data; and directly instructing, by the vector processor, one or more storage device to store the data; wherein performing one or more transforms on the data comprises: erasure encoding the data to generate n data fragments configured such that any k of the data fragments are usable to regenerate the data, where k is less than n; and wherein directly instructing one or more storage device to store the data comprises: directly instructing the one or more storage devices to store the plurality of data fragments.

Abstract: A method comprising: receiving, at a vector processor, a request to store data; performing, by the vector processor, one or more transforms on the data; and directly instructing, by the vector processor, one or more storage device to store the data; wherein performing one or more transforms on the data comprises: erasure encoding the data to generate n data fragments configured such that any k of the data fragments are usable to regenerate the data, where k is less than n; and wherein directly instructing one or more storage device to store the data comprises: directly instructing the one or more storage devices to store the plurality of data fragments.

Abstract: A method comprising: receiving, at a vector processor, a request to store data; performing, by the vector processor, one or more transforms on the data; and directly instructing, by the vector processor, one or more storage device to store the data; wherein performing one or more transforms on the data comprises: erasure encoding the data to generate n data fragments configured such that any k of the data fragments are usable to regenerate the data, where k is less than n; and wherein directly instructing one or more storage device to store the data comprises: directly instructing the one or more storage devices to store the plurality of data fragments.

Abstract: An ice cream sandwich cartoner. The cartoner is configured to continue operation while clearing a jam.

Abstract: An ice cream sandwich apparatus for making and wrapping ice cream sandwiches. The ice cream sandwich apparatus includes a plurality of stations driven by servo motors.

Abstract: An ice cream sandwich apparatus for making and wrapping ice cream sandwiches. The ice cream sandwich apparatus includes a plurality of stations driven by servo motors.

Abstract: An ice cream sandwich apparatus for making and wrapping ice cream sandwiches. The ice cream sandwich apparatus includes a plurality of stations driven by servo motors.

Abstract: An ice cream sandwich apparatus for making and wrapping ice cream sandwiches. The ice cream sandwich apparatus includes a plurality of stations driven by servo motors.

Abstract: A cutting device may include a base for supporting a material, such as wood, to be cut. A blade may be joined to an arm that swings about a pivot located above a cutting area. The blade may be allowed to move in a lateral direction through an arcuate path toward the user to cut the material. A biasing force may be applied to the arm to pull the arm to a retracted position off of the cutting area. A motor for driving the blade may be located on the arm above the blade such that the cutting area may remain visible to allow precise cutting. An abutment may be provided for aligning the material to be cut. A gap may be provided in the abutment to allow the blade to pass therethrough. Measuring indicia may be placed on opposing sides of the gap to facilitate measuring and cutting the material.