mhurhangee/patent-ind-claim-en huggingface dataset:
A nozzle managing system comprising: a nozzle managing machine that includes (a) a nozzle stocker that stores multiple suction nozzles (N) which can be used for mounting work of electric components performed in a mounting machine, (b) a nozzle placing device transfer holding section that detachably holds a nozzle placing device (T) which is used in the mounting machine, and in which the multiple suction nozzles (N) can be placed, and (c) a nozzle transfer device that performs transfer of the suction nozzles (N) between the nozzle placing device (T) held in the nozzle placing device transfer holding section and the nozzle stocker ; and a nozzle transfer control device that includes a work plan information memory section that stores work plan information (JOB) that is information about a plan of the mounting work performed in the mounting machine, acquires nozzle information that is information about the suction nozzles (N) corresponding to the nozzle placing device (T) on the basis of the work plan information (JOB) stored in the work plan information memory section and nozzle placing device information that is information indicating the nozzle placing device (T) and acquired in a state of being held in the nozzle placing device transfer holding section , and controls the nozzle transfer device on the basis of the nozzle information. a nozzle managing machine that includes (a) a nozzle stocker that stores multiple suction nozzles (N) which can be used for mounting work of electric components performed in a mounting machine, (b) a nozzle placing device transfer holding section that detachably holds a nozzle placing device (T) which is used in the mounting machine, and in which the multiple suction nozzles (N) can be placed, and (c) a nozzle transfer device that performs transfer of the suction nozzles (N) between the nozzle placing device (T) held in the nozzle placing device transfer holding section and the nozzle stocker ; and a nozzle transfer control device that includes a work plan information memory section that stores work plan information (JOB) that is information about a plan of the mounting work performed in the mounting machine, acquires nozzle information that is information about the suction nozzles (N) corresponding to the nozzle placing device (T) on the basis of the work plan information (JOB) stored in the work plan information memory section and nozzle placing device information that is information indicating the nozzle placing device (T) and acquired in a state of being held in the nozzle placing device transfer holding section , and controls the nozzle transfer device on the basis of the nozzle information.
Ballast for operating machine , comprising at least one portion removably couplable to at least one hooking seat of said operating machine, characterized by comprising at least one fixed part provided with said couplable portion , at least one movable part and means for constraining said movable part to said fixed part at a plurality of distinct distances (D,D',D") from said fixed part, so that to change the center of gravity position of said operating machine, wherein said constraining means comprise a removal/approach device for moving said movable part away/closer from/to said fixed part along at least one movement direction (X) of said movable part with respect to said fixed part, characterized in that said removal/approach device comprises at least one pantograph member comprising a first arm and a second arm both hinged in a point , said at least one first arm and said at least one second arm being each provided with at least one first end sliding along said fixed part and with at least one second end sliding along said movable part , said at least one movement direction (X) being substantially orthogonal to the sliding direction (Y) of said at least one first sliding end of said at least one first arm and one second arm and of said at least one second sliding end of said at least one first arm and at least one second arm.
A method for pre-stressing individual blades for a gas turbine engine, the method comprising: mounting an individual blade (105 1-n ; 200) to a rotation unit (106; 506); rotating the blade (105 1-n ; 200) relative to an axis (120; 520); and controlling rotational speed of the blade (105 1-n ; 200) to generate residual stress in the blade (105 1-n ; 200), wherein controlling rotation speed includes controlling rotation of the blade (105 1-n ; 200) to exceed a maximum operational speed of the blade (105 1-n ; 200) for a predetermined time period, and the rotating of the blade (105 1-n ; 200) to generate residual stress occurs before the blade (105 1-n ; 200) is used or operated in the gas turbine engine. mounting an individual blade (105 1-n ; 200) to a rotation unit (106; 506); rotating the blade (105 1-n ; 200) relative to an axis (120; 520); and controlling rotational speed of the blade (105 1-n ; 200) to generate residual stress in the blade (105 1-n ; 200), wherein controlling rotation speed includes controlling rotation of the blade (105 1-n ; 200) to exceed a maximum operational speed of the blade (105 1-n ; 200) for a predetermined time period, and the rotating of the blade (105 1-n ; 200) to generate residual stress occurs before the blade (105 1-n ; 200) is used or operated in the gas turbine engine.
A system-on-module (SOM) for controlling an unmanned vehicle (UV), comprising: a circuit board ; a first processing system in operative communication with the circuit board , the first processing system including one or more first processing units and a volatile programmable logic array , the first processing system configured to execute a first process for the UV; and a second processing system in operative communication with the circuit board , the second processing system including one or more second processing units and a non-volatile programmable logic array , the non-volatile programmable logic array configured to monitor execution of the first process by the first processing system , the non-volatile programmable logic array being further configured to determine whether an output associated with execution of the first process is valid and to initiate a first control action for the UV based on a valid output associated with execution of the first process and a second control action for the UV based on an invalid output associated with execution of the first process, the first control action and the second control action being different. a circuit board ; a first processing system in operative communication with the circuit board , the first processing system including one or more first processing units and a volatile programmable logic array , the first processing system configured to execute a first process for the UV; and a second processing system in operative communication with the circuit board , the second processing system including one or more second processing units and a non-volatile programmable logic array , the non-volatile programmable logic array configured to monitor execution of the first process by the first processing system , the non-volatile programmable logic array being further configured to determine whether an output associated with execution of the first process is valid and to initiate a first control action for the UV based on a valid output associated with execution of the first process and a second control action for the UV based on an invalid output associated with execution of the first process, the first control action and the second control action being different.
A lubricating composition comprising: at least 10 wt.% of an oil of lubricating viscosity comprising at least one of an API Group I, Group II, Group III, Group IV, and Group V base oil; and at least 0.01 wt.% of a compound comprising a protected mercaptophenol, wherein the protected mercaptophenol is represented by the formula: or a salt thereof; wherein R 1 is -CH 2 CH(OH)R 3 ; and R 3 is a non-aromatic hydrocarbyl group of at least 5 carbon atoms. at least 10 wt.% of an oil of lubricating viscosity comprising at least one of an API Group I, Group II, Group III, Group IV, and Group V base oil; and at least 0.01 wt.% of a compound comprising a protected mercaptophenol, wherein the protected mercaptophenol is represented by the formula: or a salt thereof; wherein R 1 is -CH 2 CH(OH)R 3 ; and R 3 is a non-aromatic hydrocarbyl group of at least 5 carbon atoms.
A fuel gas supply system of any one of a bulk carrier, a container ship, a crude oil tanker and a chemical tanker, comprising: an LNG tank ; a high-pressure gas injection engine; a first pump configured to compress LNG, and to supply the compressed LNG towards a second pump ; the second pump configured to further compress the LNG at a high pressure and supply the compressed LNG to the high-pressure gas injection engine; and a device configured to gasify the LNG installed downstream of the second pump, to gasify the compressed LNG. an LNG tank ; a high-pressure gas injection engine; a first pump configured to compress LNG, and to supply the compressed LNG towards a second pump ; the second pump configured to further compress the LNG at a high pressure and supply the compressed LNG to the high-pressure gas injection engine; and a device configured to gasify the LNG installed downstream of the second pump, to gasify the compressed LNG.
A vent for a mask , comprising: a first wall ; and a second wall having an outer edge defining an outer perimeter, a top surface , and a bottom surface ; a plurality of spaced supports positioned between the first wall and the second wall ; and a plurality of gas washout vent holes formed between the supports and positioned between the first wall and the second wall , wherein the vent holes have an inner edge positioned inside the outer perimeter of the second wall , and characterized in that the supports are disposed beneath the bottom surface of the second wall and inside the first wall , and a top face of the supports is in contact with the bottom surface of the second wall . a first wall ; and a second wall having an outer edge defining an outer perimeter, a top surface , and a bottom surface ; a plurality of spaced supports positioned between the first wall and the second wall ; and a plurality of gas washout vent holes formed between the supports and positioned between the first wall and the second wall , wherein the vent holes have an inner edge positioned inside the outer perimeter of the second wall , and characterized in that the supports are disposed beneath the bottom surface of the second wall and inside the first wall , and a top face of the supports is in contact with the bottom surface of the second wall .
Device for body relaxation and renewal configured to generate light having adjustable intensity and having spectral composition corresponding to spectral composition of sunlight, the device consisting of a housing with a light panel placed inside the housing, the housing being composed of a front wall and of a body having a rear wall and side walls, the device being characterised by the body having vents situated in a lower and in an upper part of the body, the light panel having a shape of a rectangular frame on which vertical and horizontal stanchions are mounted, inside the rectangular frame fluorescent lamps and halogen lamps being mounted, the fluorescent lamps being mounted in three rows with three pieces in each row, in a vertical plane, one above the other and placed in slots mounted on the horizontal stanchions , and the halogen lamps being placed in slots mounted on the vertical stanchions and placed symmetrically in two vertical rows in three sections of two pieces, the device being configured to be installed as a shower cabin equipment.
A boiler system for treating exhaust gases, in particular dust-containing exhaust gases from a melting process of electronic scrap and/or shredder light fractions, with at least one inlet opening and at least one outlet opening for the exhaust gases, wherein the boiler system comprises at least one combustion chamber and at least one waste heat boiler downstream the combustion chamber in the flow direction of the exhaust gases, wherein the combustion chamber wall comprises cooling tube sections , wherein the combustion chamber comprises at least one air supply device, preferably at least one air supply opening , for the supply of combustion air into the combustion chamber , wherein the combustion chamber is constituted round or essentially round in cross-section at least in some areas, preferably over its entire length or essentially over its entire length, wherein the combustion chamber comprises at least one fuel addition device, preferably at least one fuel addition opening , for the addition of fuels or substitute fuels, preferably liquid and/or gaseous fuels or substitute fuels, and wherein the waste heat boiler has at least in some areas an angular, in particular a rectangular cross-section, and wherein a cross-section transition from round or essentially round to angular, in particular rectangular, takes place between the combustion chamber and the waste heat boiler . wherein the combustion chamber comprises at least one fuel addition device, preferably at least one fuel addition opening , for the addition of fuels or substitute fuels, preferably liquid and/or gaseous fuels or substitute fuels, and wherein the waste heat boiler has at least in some areas an angular, in particular a rectangular cross-section, and wherein a cross-section transition from round or essentially round to angular, in particular rectangular, takes place between the combustion chamber and the waste heat boiler .
An assembly comprising a rotating shaft , a bearing and a heat sink component positioned between the rotating shaft and the bearing , the heat sink component comprising: a cylindrical body with a first end and a second end; a bore running through the body with a first opening at the first end of the body and a second opening at the second end of the body ; fins extending radially outward from the body and running from the first end to the second end of the body ; channels defined between the fins and running from the first end to the second end of the body , wherein the channels define open spaces that are configured to allow cooling air to flow through them; a first standoff extending axially away from the first end of the body ; and a second standoff extending axially away from the second end of the body , wherein the channels define air passages that are configured to direct cooling air to flow along an inner surface of the bearing to cool the bearing with convective heat transfer. a cylindrical body with a first end and a second end; a bore running through the body with a first opening at the first end of the body and a second opening at the second end of the body ; fins extending radially outward from the body and running from the first end to the second end of the body ; channels defined between the fins and running from the first end to the second end of the body , wherein the channels define open spaces that are configured to allow cooling air to flow through them; a first standoff extending axially away from the first end of the body ; and a second standoff extending axially away from the second end of the body , wherein the channels define air passages that are configured to direct cooling air to flow along an inner surface of the bearing to cool the bearing with convective heat transfer.
A method for inter-device communication, the method comprising: receiving, by a first device, a bit sequence from a second device via a serial communication cable having one or more wires that connect the first device to a first set of one or more pins of a first chip of the second device, the first chip having a second set of pins, wherein, for each respective pin of the second set of pins, the bit sequence includes a set of one or more bits for the respective pin based at least in part on whether a first voltage or a second voltage is applied to the respective pin, the first voltage being different from the second voltage; determining, by the first device, based on the bit sequence, a type of the second device; generating, by the first device, based on the type of the second device, data appropriate for use by devices that belong to the type of the second device; and sending, by the first device, the data to the second device via the serial communication cable. receiving, by a first device, a bit sequence from a second device via a serial communication cable having one or more wires that connect the first device to a first set of one or more pins of a first chip of the second device, the first chip having a second set of pins, wherein, for each respective pin of the second set of pins, the bit sequence includes a set of one or more bits for the respective pin based at least in part on whether a first voltage or a second voltage is applied to the respective pin, the first voltage being different from the second voltage; determining, by the first device, based on the bit sequence, a type of the second device; generating, by the first device, based on the type of the second device, data appropriate for use by devices that belong to the type of the second device; and sending, by the first device, the data to the second device via the serial communication cable.
A transfer apparatus comprising: a first transfer module configured to hold an object (B) to be transferred on the top thereof and transfer the object (B) to be transferred at a first speed in a longitudinal direction; a second transfer module disposed in parallel with the first transfer module and configured to hold the object (B) to be transferred on the top thereof and transfer the object (B) to be transferred at a second speed in the longitudinal direction; and a blowing module , below at least one of the first transfer module and the second transfer module , for causing air to flow upward or downward; characterized in that the transfer apparatus further comprises: a third transfer module disposed in parallel with the first transfer module and the second transfer module and configured to transfer the object to be transferred in the longitudinal direction, wherein the third transfer module is provided between the first transfer module and the second transfer module , and wherein the third transfer module includes: a lower transfer unit for transferring the object (B) to be transferred by contacting the bottom of the object (B) to be transferred, and an upper transfer unit for transferring the object (B) to be transferred by contacting the top of the object (B) to be transferred. a first transfer module configured to hold an object (B) to be transferred on the top thereof and transfer the object (B) to be transferred at a first speed in a longitudinal direction; a second transfer module disposed in parallel with the first transfer module and configured to hold the object (B) to be transferred on the top thereof and transfer the object (B) to be transferred at a second speed in the longitudinal direction; and a blowing module , below at least one of the first transfer module and the second transfer module , for causing air to flow upward or downward; a third transfer module disposed in parallel with the first transfer module and the second transfer module and configured to transfer the object to be transferred in the longitudinal direction, wherein the third transfer module is provided between the first transfer module and the second transfer module , and wherein the third transfer module includes: a lower transfer unit for transferring the object (B) to be transferred by contacting the bottom of the object (B) to be transferred, and an upper transfer unit for transferring the object (B) to be transferred by contacting the top of the object (B) to be transferred. a lower transfer unit for transferring the object (B) to be transferred by contacting the bottom of the object (B) to be transferred, and an upper transfer unit for transferring the object (B) to be transferred by contacting the top of the object (B) to be transferred.
A method of operation of a radio access node in a cellular communications network , comprising: configuring a plurality of Channel State Information Reference Signal, CSI-RS, ports for a wireless device , the plurality of CSI-RS ports being one of a group consisting of: six CSI-RS ports, ten CSI-RS ports, twelve CSI-RS ports, fourteen CSI-RS ports, and sixteen CSI-RS ports; wherein the configuring includes: uniform CSI-RS power boosting across all the configured CSI-RS ports by borrowing power from muted Resource Elements, wherein a group of four CSI-RS ports of the plurality of CSI-RS ports configured for the wireless device are mapped to a group of four CSI-RS Resource Elements, and the configuring of the plurality of CSI-RS ports is over four OFDM symbols, and wherein there are an equal number of CSI-RS Resource Elements in each OFDM symbol, and signaling a bit sequence to the wireless device that is an indication of a merger of two or more predefined CSI-RS configurations for the wireless device , the bit sequence comprising a first set of bits that indicate which, if any, of multiple predefined 8-port configurations are to be included in the merger, a second set of bits that indicate which, if any, of multiple predefined 4-port configurations are to be included in the merger, and a third set of bits that indicate which, if any, of multiple predefined 2-port configurations are to be included in the merger; and transmitting CSI-RS on at least a subset of the plurality of CSI-RS ports configured for the wireless device by multiplexing CSI-RS for the group of four CSI-RS ports onto the group of four CSI-RS REs using respective length-4 Orthogonal Cover Codes, OCCs. uniform CSI-RS power boosting across all the configured CSI-RS ports by borrowing power from muted Resource Elements, wherein a group of four CSI-RS ports of the plurality of CSI-RS ports configured for the wireless device are mapped to a group of four CSI-RS Resource Elements, and the configuring of the plurality of CSI-RS ports is over four OFDM symbols, and wherein there are an equal number of CSI-RS Resource Elements in each OFDM symbol, and signaling a bit sequence to the wireless device that is an indication of a merger of two or more predefined CSI-RS configurations for the wireless device , the bit sequence comprising a first set of bits that indicate which, if any, of multiple predefined 8-port configurations are to be included in the merger, a second set of bits that indicate which, if any, of multiple predefined 4-port configurations are to be included in the merger, and a third set of bits that indicate which, if any, of multiple predefined 2-port configurations are to be included in the merger; and transmitting CSI-RS on at least a subset of the plurality of CSI-RS ports configured for the wireless device by multiplexing CSI-RS for the group of four CSI-RS ports onto the group of four CSI-RS REs using respective length-4 Orthogonal Cover Codes, OCCs.