mhurhangee/patent-ind-claim-en huggingface dataset:
A device for providing a label arrangeable around an object , preferably around a conductor, comprising: a mechanical interface configured to detachably or irreversibly attach the device to a printer ; a material interface configured to receive a printing medium printed by the printer using a print head as a printed product in a longitudinal direction ; characterized in that the device further comprises: at least one eccentric mounted on the material interface so as to be pivotable about a pivot axis ; and at least one printing head actuator which is configured to move the at least one eccentric into a first pivot position and into a second pivot position different from the first pivot position for providing the label originating from the printed product , wherein the eccentric is configured, when the device is attached to the printer using the mechanical interface , to move the print head and the printing medium towards one another into a printing position for printing on the printing medium when the eccentric moves into the first pivot position and to move the print head and the printing medium away from one another into an open position when the eccentric moves into the second pivot position. a mechanical interface configured to detachably or irreversibly attach the device to a printer ; a material interface configured to receive a printing medium printed by the printer using a print head as a printed product in a longitudinal direction ; characterized in that the device further comprises: at least one eccentric mounted on the material interface so as to be pivotable about a pivot axis ; and at least one printing head actuator which is configured to move the at least one eccentric into a first pivot position and into a second pivot position different from the first pivot position for providing the label originating from the printed product , wherein the eccentric is configured, when the device is attached to the printer using the mechanical interface , to move the print head and the printing medium towards one another into a printing position for printing on the printing medium when the eccentric moves into the first pivot position and to move the print head and the printing medium away from one another into an open position when the eccentric moves into the second pivot position. at least one eccentric mounted on the material interface so as to be pivotable about a pivot axis ; and at least one printing head actuator which is configured to move the at least one eccentric into a first pivot position and into a second pivot position different from the first pivot position for providing the label originating from the printed product , wherein the eccentric is configured, when the device is attached to the printer using the mechanical interface , to move the print head and the printing medium towards one another into a printing position for printing on the printing medium when the eccentric moves into the first pivot position and to move the print head and the printing medium away from one another into an open position when the eccentric moves into the second pivot position.
A device for equipping automobile industry production lines, wherein a vehicle is guided along the production line and is filled during this movement by means of a filling adapter , and wherein the at least one filling adapter is removed after filling from the connection area of the assembly to be filled using an industrial robot and is then placed in an adapter tray, wherein the device comprises a rail system having a traversing axis and a traversing console , wherein an industrial robot comprising a gripper is guided along the traversing axis , characterized in that the gripper is configured as a compensating gripper which can be brought into an operative connection with a gripping element formed on the filling adapter , wherein the compensating gripper and the gripping element are configured such that a compensation mechanism can be triggered during the gripping movement which can compensate an angular and/or axial offset between the compensating gripper and the gripping element of the filling adapter at the connection area of the assembly to be filled and wherein said compensation mechanism is brought into a defined ZERO position before the filling adapter is placed in the adapter tray.
A method for carrying out a fermentation in an air-lift bioreactor by leading two or more different gases into the air-lift bioreactor so that the bioreactor has different compartments which have impermeable or partially permeable middle walls between them to form an aerobic part and an anaerobic part, wherein the aerobic part is located inside the anaerobic part of the bioreactor; characterized in that the different gases are led into the different parts of the bioreactor, the different gases including: a) an oxygen-free gas mixture which is led into the anaerobic part of the bioreactor, wherein the gas mixture contains an inert gas for flushing out or for collecting the evaporating microbial or other cellular reaction products or waste substances or other evaporating substances, in order to increase the anaerobic or microaerobic fermentation yield or productivity with said inert gas, and that b) an air or other oxygen-containing gas which is led into the aerobic part of the bioreactor, wherein the gases led into the reactor cause interphases between the liquid and gas phases, and wherein the flow of gases led into the bioreactor is adjusted using a control unit, which enables adjusting the conditions inside of the bioreactor according to the sensor measurement data obtained from the concentrations or characteristics of the substances outgoing from the bioreactor, and wherein mixing of the reagents in the bioreactor is carried out by air, oxygen free gas or oxygen containing gas, avoiding mechanical stirring. a) an oxygen-free gas mixture which is led into the anaerobic part of the bioreactor, wherein the gas mixture contains an inert gas for flushing out or for collecting the evaporating microbial or other cellular reaction products or waste substances or other evaporating substances, in order to increase the anaerobic or microaerobic fermentation yield or productivity with said inert gas, and that b) an air or other oxygen-containing gas which is led into the aerobic part of the bioreactor, wherein the gases led into the reactor cause interphases between the liquid and gas phases, and wherein the flow of gases led into the bioreactor is adjusted using a control unit, which enables adjusting the conditions inside of the bioreactor according to the sensor measurement data obtained from the concentrations or characteristics of the substances outgoing from the bioreactor, and wherein mixing of the reagents in the bioreactor is carried out by air, oxygen free gas or oxygen containing gas, avoiding mechanical stirring.
A cooling system for a vehicle , the cooling system comprising a cooling fan comprising a ram air turbine disposed in an aperture of a fan shroud , the fan shroud comprising: - an opening , - a shutter mechanism movable between a closed position in which it closes the opening , and an open position in which it opens the opening so that a ram air flow (F) can pass through the opening , characterized in that the fan shroud further comprises: - a velocity sensor configured to measure ram air flow velocity, - a temperature sensor configured to measure ram air flow temperature, and - an actuator configured to move the shutter mechanism between the closed position and the open position based on measured ram air flow velocity and measured ram air flow temperature. - an opening , - a shutter mechanism movable between a closed position in which it closes the opening , and an open position in which it opens the opening so that a ram air flow (F) can pass through the opening , - a velocity sensor configured to measure ram air flow velocity, - a temperature sensor configured to measure ram air flow temperature, and - an actuator configured to move the shutter mechanism between the closed position and the open position based on measured ram air flow velocity and measured ram air flow temperature.
A crystalline hydrate of the compound of formula 1: wherein the crystalline hydrate is characterized by a powder X-ray diffraction pattern comprising diffraction peaks at 2θ values of 5.68±0.20, 10.43±0.20, 10.94±0.20, and 13.08±0.20.
A system for determining binding activity of an antibody, comprising: an optical path, the optical path comprising: a camera, a lens, and a mirror; a rotating table comprising a plurality of plate holding stations and a table motor adapted to rotate the rotating table to move any of the plate holding stations into alignment with the optical path, a plate holding station comprising: a plate holder adapted to hold a plate comprising an array of test wells, and a tilt motor adapted to adjust a tilt angle of the plate holder; and a controller adapted to control the table motor, the tilt motor, and the camera to acquire at least one image of at least one plate. an optical path, the optical path comprising: a camera, a lens, and a mirror; a camera, a lens, and a mirror; a rotating table comprising a plurality of plate holding stations and a table motor adapted to rotate the rotating table to move any of the plate holding stations into alignment with the optical path, a plate holding station comprising: a plate holder adapted to hold a plate comprising an array of test wells, and a tilt motor adapted to adjust a tilt angle of the plate holder; and a plate holder adapted to hold a plate comprising an array of test wells, and a tilt motor adapted to adjust a tilt angle of the plate holder; and a controller adapted to control the table motor, the tilt motor, and the camera to acquire at least one image of at least one plate.
A sensor for monitoring a product comprising: a first sensor element formed from a first biodegradable material and comprising a first ridge having a first sensor element height , wherein the first sensor element height of the first ridge decreases in response to a first parameter of interest of the product; a second sensor element formed from a second biodegradable material and comprising a second ridge having a second sensor element height , wherein the second sensor element height of the second ridge decreases in response to a second parameter of interest; wherein the first sensor element degrades to decrease the first sensor element height of the first ridge in response to the first parameter of interest; wherein the second sensor element degrades to decrease the second sensor element height of the second ridge in response to the second parameter of interest; and wherein the sensor elements facilitate human or machine reading of the sensor and further comprising a substrate to hold the sensor elements together. a first sensor element formed from a first biodegradable material and comprising a first ridge having a first sensor element height , wherein the first sensor element height of the first ridge decreases in response to a first parameter of interest of the product; a second sensor element formed from a second biodegradable material and comprising a second ridge having a second sensor element height , wherein the second sensor element height of the second ridge decreases in response to a second parameter of interest; wherein the first sensor element degrades to decrease the first sensor element height of the first ridge in response to the first parameter of interest; wherein the second sensor element degrades to decrease the second sensor element height of the second ridge in response to the second parameter of interest; and wherein the sensor elements facilitate human or machine reading of the sensor and further comprising a substrate to hold the sensor elements together.
Turbine , in particular high-pressure turbine, for an aircraft engine , with a housing on which turbine guide blades are arranged circumferentially, wherein the turbine guide blades have at least one interior space which is flowed through by cooling air during the operation of the turbine , and wherein at least one turbine guide blade has, in the region of an inner wall in a radial direction (R) of the turbine , a cooling air passage via which cooling air can be supplied to the interior space of the turbine guide blade , characterized in that a rotor apparatus with blade platforms is arranged upstream of the turbine guide blades , wherein blade roots of rotor blades of said rotor apparatus have a passage for conducting a cooling-air stream with swirl into an annular space , which is charged with swirling flow, upstream of the cooling air passage , wherein the cooling-air stream can be fed from the annular space to a sealing-air annular space which is arranged, in a radial direction of the turbine , below the inner wall of the at least one turbine guide blade , and wherein the swirl of the cooling-air stream can be set such that, in addition to the cooling of the at least one turbine guide blade , a gap between the blade platforms of the rotor apparatus and the inner wall of the turbine guide blades is also sealed off.
An apparatus (100; 200; 300; 400) for monitoring an actuator system with at least one actuator and at least one data output signal , the apparatus (100; 200; 300; 400) comprising: an anomaly detector (110; 310) configured to detect, based on the at least one data output signal , an anomaly occurring in the actuator system , and further configured to output an anomaly signal indicating at least one anomaly time period in which the detected anomaly has occurred; a suppressing engine comprising a first trained artificial intelligence entity trained and configured to determine, based on the at least one output signal , that an actuator-affecting intervention procedure has been performed in or on the actuator system , and to output a suppressing signal indicating at least one suppressing time period based on the actuator-affecting intervention procedure that has been performed; and a combiner logic configured to determine time periods of interest for the monitoring of the actuator system and to output a monitoring signal indicating the determined time periods of interest , wherein the combiner logic determines each anomaly time period indicated by the anomaly signal as a time period of interest if the suppressing signal does not indicate a simultaneous suppressing time period . an anomaly detector (110; 310) configured to detect, based on the at least one data output signal , an anomaly occurring in the actuator system , and further configured to output an anomaly signal indicating at least one anomaly time period in which the detected anomaly has occurred; a suppressing engine comprising a first trained artificial intelligence entity trained and configured to determine, based on the at least one output signal , that an actuator-affecting intervention procedure has been performed in or on the actuator system , and to output a suppressing signal indicating at least one suppressing time period based on the actuator-affecting intervention procedure that has been performed; and a combiner logic configured to determine time periods of interest for the monitoring of the actuator system and to output a monitoring signal indicating the determined time periods of interest , wherein the combiner logic determines each anomaly time period indicated by the anomaly signal as a time period of interest if the suppressing signal does not indicate a simultaneous suppressing time period .
A surface-enhanced Raman scattering element comprising: a substrate having a principal surface ; a fine structure part formed on the principal surface and having a plurality of pillars ; and a conductor layer formed on the fine structure part and constituting an optical function part for generating surface-enhanced Raman scattering; wherein the conductor layer has a base part formed along the principal surface and a plurality of protrusions protruding from the base part at respective positions corresponding to the pillars , wherein the plurality of protrusions protrude from a surface of the base part opposite the substrate , said surface of the base part opposite the substrate being formed along the principal surface of the substrate ; wherein each protrusion is formed so as to cover its corresponding pillar and has a form constricted at an end closer to the substrate , and wherein the end closer to the substrate is located closer to the substrate than is the surface of the base part opposite the substrate ; and wherein the base part and the protrusions form a plurality of gaps (G) in the conductor layer, each of the gaps (G) having an interstice in a direction perpendicular to the projecting direction of the pillar , wherein the interstice gradually decreases toward the substrate ; wherein each gap (G) has a depth in the projecting direction of the pillar equal to or smaller than a thickness of the base part ; and wherein an end part on the substrate side of the protrusion is located closer to the substrate than is the surface of the base part opposite the substrate .
A high-speed double-line integrated blister and pillow bag cartoning machine, comprising a blister packaging machine , a pillow-type packaging machine , and a cartoning machine , wherein the blister packaging machine is connected to a discharging grid conveyor device and a pillow bag conveyor chain device is arranged at one side of the discharging grid conveyor device , the pillow bag conveyor chain device is connected to the pillow-type packaging machine wherein an output end of the pillow-type packaging machine is connected to a pillow bag grid conveyor device , at one side of the pillow bag grid conveyor device a cartoning conveyor chain device is arranged, and the cartoning conveyor chain device is connected to the cartoning machine wherein at the other side of the discharging grid conveyor device a transiting grid conveyor device is arranged and the transiting grid conveyor device extends to one side of the cartoning conveyor chain device , and the cartoning conveyor chain device is located between the transiting grid conveyor device and the pillow bag grid conveyor device wherein a blister card transfer device adapted to transfer blister cards on the discharging grid conveyor device to the pillow bag conveyor chain device or to the transiting grid conveyor device is arranged over the discharging grid conveyor device , characterized in that the blister card transfer device is provided with blister vacuum nozzles ; and a material transfer device is adapted to transfer the blister cards on the transiting grid conveyor device or pillow bags on the pillow bag grid conveyor device to the cartoning conveyor chain device is arranged over the cartoning conveyor chain device , and the material transfer device is provided with material vacuum nozzles , wherein the transiting grid conveyor device is composed of a first grid conveyor device and a second grid conveyor device , wherein a connecting ramp is provided between the first grid conveyor device and the second grid conveyor device , a high point of the connecting ramp is connected to the first grid conveyor device , a low point of the connecting ramp is connected to the second grid conveyor device , the first grid conveyor device and the second grid conveyor device each are driven by an independent motor wherein the grid spacing of the first grid conveyor device is different from the grid spacing of the second grid conveyor device wherein the corresponding independent motors are configured to move the first grid conveyor device and the second grid conveyor device by one grid spacing in the same amount of time, wherein the first grid conveyor device is provided side by side with the discharging grid conveyor device , the grid spacing of the first grid conveyor device is same as the grid spacing of the pillow bag conveyor chain device , the second grid conveyor device is provided side by side with the cartoning conveyor chain device , and the grid spacing of the second grid conveyor device is same as the grid spacing of the cartoning conveyor chain device .
A blockchain data processing method, comprising: receiving (S302) an upload request of target data; generating (S306), in a predetermined trusted environment, a data read rule corresponding to the target data and read permission index information of the target data according to a preset compliance rule for data reading and the target data; uploading (S308) the target data and the read permission index information of the target data to a blockchain; receiving (S310) a read request for the target data stored in the blockchain; acquiring (S312) the read permission index information of the target data from the blockchain, and acquiring the data read rule corresponding to the target data based on the read permission index information, the data read rule being used to determine readable content in the target data; determining (S316), in the predetermined trusted environment, the readable content in the target data based on the data read rule; and providing the readable content in the target data for a sender of the read request. receiving (S302) an upload request of target data; generating (S306), in a predetermined trusted environment, a data read rule corresponding to the target data and read permission index information of the target data according to a preset compliance rule for data reading and the target data; uploading (S308) the target data and the read permission index information of the target data to a blockchain; receiving (S310) a read request for the target data stored in the blockchain; acquiring (S312) the read permission index information of the target data from the blockchain, and acquiring the data read rule corresponding to the target data based on the read permission index information, the data read rule being used to determine readable content in the target data; determining (S316), in the predetermined trusted environment, the readable content in the target data based on the data read rule; and providing the readable content in the target data for a sender of the read request.
Dewatering apparatus for reducing the moisture content of a stockpile of material, the apparatus including a support for supporting, in use, the stockpile, pressure reducing means, and fluid communication means for communicating fluid from the support to the pressure reducing means wherein the apparatus includes a substantially impermeable layer beneath the support, and the support includes a layer of material which has a permeability which is higher than the permeability of the stockpile material, characterized by an air separator being provided in the fluid communication means to remove air from the fluid prior to the fluid reaching the pressure reducing means.
A rail element for lighting systems, comprising a bar body extending along a longitudinal axis (A) and provided with an inner longitudinal channel along the axis (A) and open on a front surface of the body ; and a pair of opposite insulating shells , made of an insulating material and housed in the channel along respective opposite lateral sides of the channel and extending parallel to each other and to the axis (A); each shell being provided with one or more conductive tracks extending along a respective side of the channel parallel to the axis (A); wherein the body is a hollow body and the channel is delimited by a bottom wall and by said two opposite lateral sides , which originate from respective sides of the bottom wall ; the channel being provided with a front opening made in a front surface of the body and longitudinally extending along the channel and along the entire body and facing the bottom wall and laterally delimited by respective longitudinal edges , which project towards one another from respective sides ; characterized in that the body is an extruded section bar made of annealed aluminum or annealed aluminum alloy which is cold bendable by means of a manual calender; and in that the body has a thickness not higher than 12,5 mm, measured as the maximum distance between said front surface , provided with the opening , and a rear surface opposite said front surface and defined by the outer surface of the bottom wall .