mhurhangee/ep-ind-claims huggingface dataset:
A log rotation system comprising: an optimizer configured to determine an optimized rotational position for processing a log according to an optimized cutting solution; and a controller configured to control a log rotator to thereby rotate the log while the log is advanced in a flow direction, wherein the optimizer and controller are collectively operable to receive data from a primary detector positioned to detect a current rotational position of the log during or after a first rotation of the log by the log rotator, determine a first rotational difference between the current rotational position and the optimized rotational position, and initiate a corrective action to cause the log rotator to reduce the first rotational difference. an optimizer configured to determine an optimized rotational position for processing a log according to an optimized cutting solution; and a controller configured to control a log rotator to thereby rotate the log while the log is advanced in a flow direction, wherein the optimizer and controller are collectively operable to receive data from a primary detector positioned to detect a current rotational position of the log during or after a first rotation of the log by the log rotator, determine a first rotational difference between the current rotational position and the optimized rotational position, and initiate a corrective action to cause the log rotator to reduce the first rotational difference. receive data from a primary detector positioned to detect a current rotational position of the log during or after a first rotation of the log by the log rotator, determine a first rotational difference between the current rotational position and the optimized rotational position, and initiate a corrective action to cause the log rotator to reduce the first rotational difference.
A method, comprising: generating in a modular laser diode package a first plurality of pump beams from respective diode lasers at a first wavelength range between of 900 nm to 930 nm; generating in the modular laser diode package a second plurality of pump beams from respective diode lasers at a second wavelength range between 970 nm to 980 nm; wherein the modular laser diode package comprises a thermally conductive housing; polarization multiplexing the first plurality of pump beams with a first polarization multiplexer situated to produce a first set of polarization multiplexed pump beams by receiving and combining a first subset of the first plurality of pump beams having a first polarization state and a second subset of the first plurality of pump beams having a second polarization state; polarization multiplexing the second plurality of pump beams with a second multiplexer situated to produce a second set of polarization multiplexed pump beams by receiving and combining a first subset of the second plurality of pump beams having a first polarization state and a second subset of the second plurality of pump beams having a second polarization state; combining in the modular laser diode package the first set of polarization multiplexed pump beams with the second set of polarization multiplexed pump beams to form a combined pump beam having a brightness of 3.0 W/(mm · mrad) 2 or greater; and directing the combined pump beam to a pump fiber. generating in a modular laser diode package a first plurality of pump beams from respective diode lasers at a first wavelength range between of 900 nm to 930 nm; generating in the modular laser diode package a second plurality of pump beams from respective diode lasers at a second wavelength range between 970 nm to 980 nm; wherein the modular laser diode package comprises a thermally conductive housing; polarization multiplexing the first plurality of pump beams with a first polarization multiplexer situated to produce a first set of polarization multiplexed pump beams by receiving and combining a first subset of the first plurality of pump beams having a first polarization state and a second subset of the first plurality of pump beams having a second polarization state; polarization multiplexing the second plurality of pump beams with a second multiplexer situated to produce a second set of polarization multiplexed pump beams by receiving and combining a first subset of the second plurality of pump beams having a first polarization state and a second subset of the second plurality of pump beams having a second polarization state; combining in the modular laser diode package the first set of polarization multiplexed pump beams with the second set of polarization multiplexed pump beams to form a combined pump beam having a brightness of 3.0 W/(mm · mrad) 2 or greater; and directing the combined pump beam to a pump fiber.
A rubber composition for tires, comprising: a modified natural rubber having a phosphorus content of 200 ppm or less and further having a pH adjusted to 2 to 7; at least one of carbon black or a white filler; and a silane coupling agent represented by the following Formula: wherein R 1001 represents a monovalent group selected from -Cl, -Br, -OR 1006, -O(O=)CR 1006, -ON=CR 1006 R 1007, -ON=CR 1006 R 1007, -NR 1006 R 1007, and -(OSiR 1006 R 1007) h (OSiR 1006 R 1007 R 1008), wherein R 1006, R 1007, and R 1008 are the same as or different from one another and each represent a hydrogen atom or a C1-C18 monovalent hydrocarbon group, and h represents a number whose average value is 1 to 4; R 1002 represents R 1001, a hydrogen atom, or a C1-C18 monovalent hydrocarbon group; R 1003 represents R 1001, R 1002, a hydrogen atom, or the group: -[O(R 1009 O) j] 0.5 - wherein R 1009 represents a C1-C18 alkylene group, and j represents an integer of 1 to 4; R 1004 represents a C1-C18 divalent hydrocarbon group; R 1005 represents a C1-C18 monovalent hydrocarbon group; and x, y, and Z are numbers satisfying the following relationships: x + y + 2 z = 3, 0 ≤ x ≤ 3, 0 ≤ y ≤ 2, and 0 ≤ z ≤ 1. a modified natural rubber having a phosphorus content of 200 ppm or less and further having a pH adjusted to 2 to 7; at least one of carbon black or a white filler; and a silane coupling agent represented by the following Formula: wherein R 1001 represents a monovalent group selected from -Cl, -Br, -OR 1006, -O(O=)CR 1006, -ON=CR 1006 R 1007, -ON=CR 1006 R 1007, -NR 1006 R 1007, and -(OSiR 1006 R 1007) h (OSiR 1006 R 1007 R 1008), wherein R 1006, R 1007, and R 1008 are the same as or different from one another and each represent a hydrogen atom or a C1-C18 monovalent hydrocarbon group, and h represents a number whose average value is 1 to 4; R 1002 represents R 1001, a hydrogen atom, or a C1-C18 monovalent hydrocarbon group; R 1003 represents R 1001, R 1002, a hydrogen atom, or the group: -[O(R 1009 O) j] 0.5 - wherein R 1009 represents a C1-C18 alkylene group, and j represents an integer of 1 to 4; R 1004 represents a C1-C18 divalent hydrocarbon group; R 1005 represents a C1-C18 monovalent hydrocarbon group; and x, y, and Z are numbers satisfying the following relationships: x + y + 2 z = 3, 0 ≤ x ≤ 3, 0 ≤ y ≤ 2, and 0 ≤ z ≤ 1.
A cutting machine comprising: a cutting blade; and a blade cleaning system comprising: a basin defining an internal volume and an opening into said internal volume, wherein said basin is configured to receive a solvent in said internal volume; a cleaning surface positioned in said internal volume; and a lid positioned over said opening, wherein said lid is automatically displaced from said opening when said cutting blade approximates said basin, and characterized in that said blade cleaning system further comprises a twist clamp cylinder operatively connected to said lid, and wherein said lid is automatically displaced from said opening by actuating said twist clamp cylinder. a cutting blade; and a blade cleaning system comprising: a basin defining an internal volume and an opening into said internal volume, wherein said basin is configured to receive a solvent in said internal volume; a cleaning surface positioned in said internal volume; and a lid positioned over said opening, wherein said lid is automatically displaced from said opening when said cutting blade approximates said basin, and characterized in that said blade cleaning system further comprises a twist clamp cylinder operatively connected to said lid, and wherein said lid is automatically displaced from said opening by actuating said twist clamp cylinder. a basin defining an internal volume and an opening into said internal volume, wherein said basin is configured to receive a solvent in said internal volume; a cleaning surface positioned in said internal volume; and a lid positioned over said opening, wherein said lid is automatically displaced from said opening when said cutting blade approximates said basin, and characterized in that said blade cleaning system further comprises a twist clamp cylinder operatively connected to said lid, and wherein said lid is automatically displaced from said opening by actuating said twist clamp cylinder.
A plate-type heat exchanger which comprises a plurality of heat-exchange plates which are mutually stacked and facing each other so as to define, in the space comprised between them, at least two passage channels (3, 4), which alternate with each other along the direction of stacking of the heat-exchange plates and are passed through by respective fluids that are adapted to exchange heat with each other, said heat-exchange plates having respective entry apertures which are substantially mutually adjacent so as to define an entry conduit for one of said fluids, said entry conduit being connected with the passage channel of the respective fluid through at least one orifice, said entry apertures having respective collar-like edgings which extend from the edge of said entry apertures along a direction that is substantially parallel to the axis of said entry apertures, wherein each one of said collar-like edgings has, at its opposite end from the end connected to the edge of the corresponding entry aperture, an abutment flange which extends radially with respect to the axis of said entry apertures and is adapted to engage, by contact, the abutment flange of the collar-like edging of an adjacent heat-exchange plate and wherein each one of the heat-exchange plates extends between at least one first plane of arrangement and at least one second plane of arrangement, which are mutually parallel and spaced apart, and has, around the corresponding entry aperture, at least one flat annular abutment zone which is adapted to be in contact with a corresponding flat annular abutment zone of an adjacent heat-exchange plate characterized in that said flat annular abutment zone of at least one of said heat-exchange plates has a ridge in relief, which extends around at least one portion of the edge of the corresponding entry aperture and is adapted to engage a corresponding indentation which is defined in the corresponding flat annular abutment zone of the adjacent heat-exchange plate.
A method of heating an exhaust gas in an exhaust aftertreatment system including a catalyzed diesel particulate filter or in an exhaust aftertreatment system including a diesel oxidation catalyst and a diesel particulate filter, the method comprising: selecting a heating mode between a plurality of heating modes based on an engine load and a status of the DPF; and heating the exhaust gas by operating an electric heater in the selected heating mode; characterized in that the plurality of heating modes include a passive regeneration heating mode and an active regeneration heating mode and characterized by a step of operating the electric heater in the passive regeneration heating mode to heat an exhaust gas to a predetermined temperature to increase NO 2 generation from the catalyzed DPF or the DOC when the DPF is not actively regenerated, and a step of operating the electric heater in the active regeneration heating mode to provide differential heating when the DPF is actively regenerated. selecting a heating mode between a plurality of heating modes based on an engine load and a status of the DPF; and heating the exhaust gas by operating an electric heater in the selected heating mode; characterized in that the plurality of heating modes include a passive regeneration heating mode and an active regeneration heating mode and characterized by a step of operating the electric heater in the passive regeneration heating mode to heat an exhaust gas to a predetermined temperature to increase NO 2 generation from the catalyzed DPF or the DOC when the DPF is not actively regenerated, and a step of operating the electric heater in the active regeneration heating mode to provide differential heating when the DPF is actively regenerated.
A mobility control method performed by a mobile terminal in a mobile communication network including cells of multiple types differing in cell size (21a, 21b), comprising: receiving first information, second information, third information and reference power information being broadcast from a base station; setting a Time to trigger for individual neighbor cells or individual neighbor cell types; and performing mobility control by determining whether or not a predetermined mobility criterion remains satisfied during the Time to trigger for a neighbor cell; wherein the first information indicates a first Time to trigger which is applied to one or more cells of a plurality of cells to be measured by the mobile terminal; wherein the second information indicates a second Time to trigger which is applied to the remaining cells of the plurality of cells; and wherein the third information indicates one or more cells to which the first Time to trigger is applied, wherein the cell to which the first Time to trigger is applied is larger than the remaining cells, wherein a cell type is estimated based on the reference power information, wherein a value of the second Time to trigger is larger than a value of the first Time to trigger, and wherein each of the plurality of cells can be identified by a Physical Cell ID. receiving first information, second information, third information and reference power information being broadcast from a base station; setting a Time to trigger for individual neighbor cells or individual neighbor cell types; and performing mobility control by determining whether or not a predetermined mobility criterion remains satisfied during the Time to trigger for a neighbor cell; wherein the first information indicates a first Time to trigger which is applied to one or more cells of a plurality of cells to be measured by the mobile terminal; wherein the second information indicates a second Time to trigger which is applied to the remaining cells of the plurality of cells; and wherein the third information indicates one or more cells to which the first Time to trigger is applied, wherein the cell to which the first Time to trigger is applied is larger than the remaining cells, wherein a cell type is estimated based on the reference power information, wherein a value of the second Time to trigger is larger than a value of the first Time to trigger, and wherein each of the plurality of cells can be identified by a Physical Cell ID.
A group call processing method performed by a base station, the method comprising: receiving a group call setup request message that comprises a group identifier, identifying a group consisting of a calling user equipment and at least one called user equipment, and is sent by a group call server; and sending, over a group call control channel periodically the group identifier and group resource location information corresponding to the group identifier, wherein the group resource location information indicates in which group resource all of the at least one called user equipment within the group identified by the sent group identifier receives group call data.. receiving a group call setup request message that comprises a group identifier, identifying a group consisting of a calling user equipment and at least one called user equipment, and is sent by a group call server; and sending, over a group call control channel periodically the group identifier and group resource location information corresponding to the group identifier, wherein the group resource location information indicates in which group resource all of the at least one called user equipment within the group identified by the sent group identifier receives group call data..
A method for manufacturing a toner, comprising: periodically forming liquid droplets of a toner constituent liquid comprising a resin and a colorant by vibrating a thin film having a plurality of holes provided on a retention part thereof to discharge the liquid droplets of the toner constituent liquid from the plurality of holes; and forming toner particles by solidifying the liquid droplets discharged from the plurality of holes, wherein, in periodically forming the liquid droplets of the toner constituent liquid, a flow of gas in a direction of discharge of the liquid droplets is formed by a gas flow generation unit provided on a downstream side from the thin film relative to the direction of discharge of the liquid droplets, comprising a tapered part forming an aperture corresponding to a hole formation area of the thin film. periodically forming liquid droplets of a toner constituent liquid comprising a resin and a colorant by vibrating a thin film having a plurality of holes provided on a retention part thereof to discharge the liquid droplets of the toner constituent liquid from the plurality of holes; and forming toner particles by solidifying the liquid droplets discharged from the plurality of holes, wherein, in periodically forming the liquid droplets of the toner constituent liquid, a flow of gas in a direction of discharge of the liquid droplets is formed by a gas flow generation unit provided on a downstream side from the thin film relative to the direction of discharge of the liquid droplets, comprising a tapered part forming an aperture corresponding to a hole formation area of the thin film.
Direct printing machine for printing containers, comprising a transport device for transporting the containers and comprising direct print heads having printing nozzles for applying a direct print to the containers, the transport device comprising a conveyor, in particular a rotor, arranged at least partially or completely in a treatment chamber, at which conveyor printing stations having the direct print heads are arranged so as to be stationary and/or so as to be able to be carried along with the containers, characterised in that at least the printing nozzles of the direct print heads are arranged in the treatment chamber under a vacuum, which treatment chamber is formed with gates (6, 7) for introducing and discharging the containers, and in that the gates (6, 7) comprise accompanying container receptacle pockets which are designed with openings for introducing the containers into and discharging them from the treatment chamber. the transport device comprising a conveyor, in particular a rotor, arranged at least partially or completely in a treatment chamber, at which conveyor printing stations having the direct print heads are arranged so as to be stationary and/or so as to be able to be carried along with the containers, characterised in that at least the printing nozzles of the direct print heads are arranged in the treatment chamber under a vacuum, which treatment chamber is formed with gates (6, 7) for introducing and discharging the containers, and in that the gates (6, 7) comprise accompanying container receptacle pockets which are designed with openings for introducing the containers into and discharging them from the treatment chamber.
A breadcrumb mix comprising breadcrumbs blended with a breadcrumb modifier, the breadcrumb modifier comprising (a) from 20 to 90 mass% of a protein material, (b) from 1 to 60 mass% of a thickener, and (c) from 0.1 to 5 mass% of an oil or fat, wherein in the total amount of the breadcrumb mix, the contents of the protein material relative to 100 parts by mass of the breadcrumbs is from 2.75 to 22.5 parts by mass, the content of the thickener relative to 100 parts by mass of the breadcrumbs is from 0.5 to 15 parts by mass, and the content of the oil or fat relative to 100 parts by mass of the breadcrumbs is from 0.015 to 1.2 parts by mass, wherein the protein material is one or more selected from the group consisting of gluten and dried egg white, and the thickener is one or more selected from the group consisting of pregelatinized starch and glucomannan. (a) from 20 to 90 mass% of a protein material, (b) from 1 to 60 mass% of a thickener, and (c) from 0.1 to 5 mass% of an oil or fat, wherein in the total amount of the breadcrumb mix, the contents of the protein material relative to 100 parts by mass of the breadcrumbs is from 2.75 to 22.5 parts by mass, the content of the thickener relative to 100 parts by mass of the breadcrumbs is from 0.5 to 15 parts by mass, and the content of the oil or fat relative to 100 parts by mass of the breadcrumbs is from 0.015 to 1.2 parts by mass, wherein the protein material is one or more selected from the group consisting of gluten and dried egg white, and the thickener is one or more selected from the group consisting of pregelatinized starch and glucomannan.
A method for remote configuration of a node comprising: transmitting, over an IEEE 802.11-based wireless network, configuration information from a first node to a second node over a wireless communication channel shared by the first and second nodes, the configuration information designating network configuration parameters to remotely configure the second node for network communications, the network configuration parameters at least including a network identifier of an IEEE 802.11-based wireless network for the second node to join and encryption information for enabling the second node to establish a network connection; and transmitting the configuration information in a configuration frame, the configuration frame recognized by the second node as an instruction for configuring the second node for network communications according to the configuration information, wherein the first node generates the frame by including a remote configuration frame identifier in the frame, the remote configuration frame identifier specifying that the frame is a configuration frame, in case of accepting the configuration information by the second node, receiving a confirmation from the second node serving as an acknowledgement of the acceptance of the configuration in response to accepting the configuration information; and in case of denying the configuration information by the second node, receiving a confirmation from the second node indicating that the configuration was denied. transmitting, over an IEEE 802.11-based wireless network, configuration information from a first node to a second node over a wireless communication channel shared by the first and second nodes, the configuration information designating network configuration parameters to remotely configure the second node for network communications, the network configuration parameters at least including a network identifier of an IEEE 802.11-based wireless network for the second node to join and encryption information for enabling the second node to establish a network connection; and transmitting the configuration information in a configuration frame, the configuration frame recognized by the second node as an instruction for configuring the second node for network communications according to the configuration information, wherein the first node generates the frame by including a remote configuration frame identifier in the frame, the remote configuration frame identifier specifying that the frame is a configuration frame, in case of accepting the configuration information by the second node, receiving a confirmation from the second node serving as an acknowledgement of the acceptance of the configuration in response to accepting the configuration information; and in case of denying the configuration information by the second node, receiving a confirmation from the second node indicating that the configuration was denied.