mhurhangee/patent-ind-claim-en huggingface dataset:
A clip for coupling a torque plate to an end plate of a disk brake system, the clip comprising: an inner portion having a first and a second inner end and two parallel elongate members ; and an outer portion at least partially including a rounded portion that is located outward from the inner portion and has a raised end , wherein the inner portion is entirely in the same plane as the rounded portion of the outer portion, and wherein the raised end extends away from the same plane; characterized in that the outer portion includes at least two parallel legs extending parallel to the two parallel elongate members of the inner portion proximate the second inner end of the inner portion. an inner portion having a first and a second inner end and two parallel elongate members ; and an outer portion at least partially including a rounded portion that is located outward from the inner portion and has a raised end , wherein the inner portion is entirely in the same plane as the rounded portion of the outer portion, and wherein the raised end extends away from the same plane; characterized in that the outer portion includes at least two parallel legs extending parallel to the two parallel elongate members of the inner portion proximate the second inner end of the inner portion.
A preform for a composite blade, obtained by three-dimensional weaving, comprising a first longitudinal section , configured to form a blade root , and a second longitudinal section , extending from the first longitudinal section , configured to form a portion of an airfoil , wherein the first longitudinal section has a first thickness at its upper end and, wherein the second longitudinal section includes at least one set-back zone , forming a recess in the lateral surface of the preform, having a thickness at least three times less than the first thickness, the total surface of the set-back zone occupying at least 50% of the surface of the second longitudinal section . a first longitudinal section , configured to form a blade root , and a second longitudinal section , extending from the first longitudinal section , configured to form a portion of an airfoil , wherein the first longitudinal section has a first thickness at its upper end and, wherein the second longitudinal section includes at least one set-back zone , forming a recess in the lateral surface of the preform, having a thickness at least three times less than the first thickness, the total surface of the set-back zone occupying at least 50% of the surface of the second longitudinal section .
An electronic device for wireless communications, comprising: processing circuitry , configured to: acquire Downlink Control Information, DCI, from a base station; and determine, at least based on a combination of a first particular field and another particular field of the DCI, whether a feedback mechanism of a Hybrid Automatic Repeat Request, HARQ, process is disabled, wherein, in a case of determining that the feedback mechanism of the Hybrid Automatic Repeat Request process is disabled, a check result for a data packet is not fed back to the base station; wherein the first particular field is a Physical Downlink Shared Channel, PDSCH, to HARQ feedback timing indicator and the other particular field includes one or more of a Physical Uplink Control Channel, PUCCH, resource indicator and a Transmit Power Control, TPC, command for scheduled PUCCH; and the processing circuitry is configured to determine that the feedback mechanism of the HARQ process is disabled when one of: a value of each field in the combination is all '0's; a value of each field in the combination is all 1's; or each of values of some fields in the combination are all '0's and each of values of the other fields in the combination are all '1's. acquire Downlink Control Information, DCI, from a base station; and determine, at least based on a combination of a first particular field and another particular field of the DCI, whether a feedback mechanism of a Hybrid Automatic Repeat Request, HARQ, process is disabled, wherein, in a case of determining that the feedback mechanism of the Hybrid Automatic Repeat Request process is disabled, a check result for a data packet is not fed back to the base station; wherein the first particular field is a Physical Downlink Shared Channel, PDSCH, to HARQ feedback timing indicator and the other particular field includes one or more of a Physical Uplink Control Channel, PUCCH, resource indicator and a Transmit Power Control, TPC, command for scheduled PUCCH; and the processing circuitry is configured to determine that the feedback mechanism of the HARQ process is disabled when one of: a value of each field in the combination is all '0's; a value of each field in the combination is all 1's; or each of values of some fields in the combination are all '0's and each of values of the other fields in the combination are all '1's. a value of each field in the combination is all '0's; a value of each field in the combination is all 1's; or each of values of some fields in the combination are all '0's and each of values of the other fields in the combination are all '1's.
A matte coating composition comprising an aqueous dispersion of: a) polymer particles having an average particle size in the range of from 80 nm to 500 nm as measured using a Brookhaven BI90 particle analyzer; b) polymeric organic crosslinked microspheres having a median weight average particle size D 50 in the range of from 1 μm to 20 μm as measured using Disc Centrifuge Photosedimentometer; c) polyethylene wax particles having an average particle size as measured by Malvern Zetasizer Nano-S-90 Particle Size Analyzer in the range of from 0.3 μm to 30 μm; and d) a rheology modifier; wherein, based on the weight of the composition, the concentration of polymer particles is in the range of from 4 to 40 weight percent; the concentration of the polymeric organic crosslinked microspheres is in the range of from 4 to 35 weight percent; the concentration of polyethylene wax particles is in the range from 0.05 to 5 weight percent; and the concentration of the rheology modifier is in the range of from 0.1 to 5 weight percent. a) polymer particles having an average particle size in the range of from 80 nm to 500 nm as measured using a Brookhaven BI90 particle analyzer; b) polymeric organic crosslinked microspheres having a median weight average particle size D 50 in the range of from 1 μm to 20 μm as measured using Disc Centrifuge Photosedimentometer; c) polyethylene wax particles having an average particle size as measured by Malvern Zetasizer Nano-S-90 Particle Size Analyzer in the range of from 0.3 μm to 30 μm; and d) a rheology modifier; wherein, based on the weight of the composition, the concentration of polymer particles is in the range of from 4 to 40 weight percent; the concentration of the polymeric organic crosslinked microspheres is in the range of from 4 to 35 weight percent; the concentration of polyethylene wax particles is in the range from 0.05 to 5 weight percent; and the concentration of the rheology modifier is in the range of from 0.1 to 5 weight percent.
A back module for an exoskeleton structure, comprising a spinal column segment designed to extend along a spinal column of a user, the spinal column segment comprising a plurality of vertebral elements , stacked on one another, and a flexible connecting element connecting the vertebral elements to one another, the spinal column segment having a stable equilibrium position in which the flexible connecting element holds the vertebral elements supported against one another, and the flexible connecting element being elastic so that, during a movement of the back of the user, the flexible connecting element allows a movement of the vertebral element with respect to one another, while exerting a return force tending to return the spinal column segment to the stable equilibrium position, the back module also comprising one or more electrical transmission or data transmission cable(s) extending inside the spinal column segment through each of the vertebral elements , for connecting a battery and/or actuators and/or sensors to a control module of the exoskeleton structure, or for connecting two control modules of the exoskeleton structure.
A method for producing a Ti-containing ultralow-carbon steel having a carbon concentration of not more than 0.003 mass%, the method comprising tapping a molten steel having a carbon concentration of 0.02 to 0.06 mass% into a ladle at a non-deoxidation state from a converter, and then subjecting the molten steel to a vacuum decarburization treatment in an RH vacuum degassing apparatus to decrease the carbon concentration to not more than 0.003 mass%, characterized in that , in a method for refining a molten steel using an RH vacuum degassing apparatus, a deoxidation treatment of the molten steel is performed with Al subsequent to a vacuum decarburization treatment, after the deoxidation treatment, a flux having a melting point higher than the temperature of the molten steel is added into a vacuum vessel in the RH vacuum degassing apparatus and subsequently a Ti source is added. in a method for refining a molten steel using an RH vacuum degassing apparatus, a deoxidation treatment of the molten steel is performed with Al subsequent to a vacuum decarburization treatment, after the deoxidation treatment, a flux having a melting point higher than the temperature of the molten steel is added into a vacuum vessel in the RH vacuum degassing apparatus and subsequently a Ti source is added.
Method for manufacturing a semiconductor structure , comprising the following steps of: a) providing a monocrystalline silicon carbide donor substrate and a silicon carbide carrier substrate , b) preparing a useful layer to be transferred, comprising: - implanting light species in the donor substrate at a front face , so as to form a damage profile , in particular measurable by Rutherford backscattering spectroscopy, said profile having a main peak of deep-level defects defining a buried fragile plane and a secondary peak of defects defining a superficial damaged layer , - removing the superficial damaged layer by chemical etching and/or by chemical-mechanical polishing of the front face of the donor substrate , to form a new front surface of the donor substrate , the buried fragile plane delimiting, with the front surface of the donor substrate , the useful layer to be transferred, which has a thickness comprised between 50 nm and 1,400 nm, c) assembling, by molecular bonding, the donor substrate , on the side of the front surface , and the carrier substrate , so as to form an assembly bonded along a bonding interface ; d) separating along the buried fragile plane , leading to the transfer of the useful layer onto the carrier substrate , so as to form the semiconductor structure . a) providing a monocrystalline silicon carbide donor substrate and a silicon carbide carrier substrate , b) preparing a useful layer to be transferred, comprising: - implanting light species in the donor substrate at a front face , so as to form a damage profile , in particular measurable by Rutherford backscattering spectroscopy, said profile having a main peak of deep-level defects defining a buried fragile plane and a secondary peak of defects defining a superficial damaged layer , - removing the superficial damaged layer by chemical etching and/or by chemical-mechanical polishing of the front face of the donor substrate , to form a new front surface of the donor substrate , the buried fragile plane delimiting, with the front surface of the donor substrate , the useful layer to be transferred, which has a thickness comprised between 50 nm and 1,400 nm, - implanting light species in the donor substrate at a front face , so as to form a damage profile , in particular measurable by Rutherford backscattering spectroscopy, said profile having a main peak of deep-level defects defining a buried fragile plane and a secondary peak of defects defining a superficial damaged layer , - removing the superficial damaged layer by chemical etching and/or by chemical-mechanical polishing of the front face of the donor substrate , to form a new front surface of the donor substrate , c) assembling, by molecular bonding, the donor substrate , on the side of the front surface , and the carrier substrate , so as to form an assembly bonded along a bonding interface ; d) separating along the buried fragile plane , leading to the transfer of the useful layer onto the carrier substrate , so as to form the semiconductor structure .
Inverter , in particular multiphase three-phase Inverter, having a DC link and a power module , which comprises at least one power semiconductor , wherein the DC link and the power module are accommodated on a common printed circuit board , wherein the printed circuit board is fixed in a cover-like housing part and the cover-like housing part is mounted on a heat sink , characterized in that connector pins of electrical power connections of the DC link and of the power module are integrated in the cover-like housing part .
A fluid jet cutting system , comprising: a multiaxial industrial robot having an end effector to grip a workpiece to be processed, the multiaxial industrial robot configured to selectively move the workpiece within a working envelope defined by a range of motion of the multiaxial industrial robot ; a tank containing a fluid, such tank being positioned within the working envelope of the multiaxial industrial robot (112 212) to enable the workpiece to be submerged under fluid within the tank during a workpiece processing operation; and at least one fluid jet cutting head suspended with a portion thereof located above an open end of the tank, the at least one fluid jet cutting head having an orifice to generate a high pressure fluid jet and a fluid jet outlet from which to discharge the high pressure fluid jet , characterized in that the cutting head is located relative to the tank such that, during the workpiece processing operation, the high pressure fluid jet discharges from the fluid jet outlet beneath an upper surface of the fluid within the tank , cuts through the workpiece, and dissipates within a region of the fluid in the tank , located adjacent a side of the workpiece opposite the cutting head a multiaxial industrial robot having an end effector to grip a workpiece to be processed, the multiaxial industrial robot configured to selectively move the workpiece within a working envelope defined by a range of motion of the multiaxial industrial robot ; a tank containing a fluid, such tank being positioned within the working envelope of the multiaxial industrial robot (112 212) to enable the workpiece to be submerged under fluid within the tank during a workpiece processing operation; and at least one fluid jet cutting head suspended with a portion thereof located above an open end of the tank, the at least one fluid jet cutting head having an orifice to generate a high pressure fluid jet and a fluid jet outlet from which to discharge the high pressure fluid jet , characterized in that the cutting head is located relative to the tank such that, during the workpiece processing operation, the high pressure fluid jet discharges from the fluid jet outlet beneath an upper surface of the fluid within the tank , cuts through the workpiece, and dissipates within a region of the fluid in the tank , located adjacent a side of the workpiece opposite the cutting head
A method of detecting colorectal cancer in a human subject, the method comprising: determining a methylation status of at least a portion of each of the following DMRs of Table 9: chr start end SEQ ID NO. 7 96997902 96999222 SEQ ID NO.: 92 8 96145538 96145718 SEQ ID NO.: 108 2 100322218 100322818 SEQ ID NO.: 28 2 29115776 29116791 SEQ ID NO.: 17 identified in DNA from a sample obtained from the subject, and determining whether the subject has colorectal cancer based at least in part on the determined methylation status of at least a portion of each of the DMRs of Table 9., determining a methylation status of at least a portion of each of the following DMRs of Table 9: chr start end SEQ ID NO. 7 96997902 96999222 SEQ ID NO.: 92 8 96145538 96145718 SEQ ID NO.: 108 2 100322218 100322818 SEQ ID NO.: 28 2 29115776 29116791 SEQ ID NO.: 17 identified in DNA from a sample obtained from the subject, and determining whether the subject has colorectal cancer based at least in part on the determined methylation status of at least a portion of each of the DMRs of Table 9., identified in DNA from a sample obtained from the subject, and determining whether the subject has colorectal cancer based at least in part on the determined methylation status of at least a portion of each of the DMRs of Table 9.,
Apparatus for the provision of a predetermined amount of a flowable material in the form of a powder, particulate and/or plant material from a reservoir into at least one container cavity via an opening therein, said apparatus including a supply of the flowable material , a support means to support said at least one container and, intermediate the said supply and the said at least one container there is provided a filling assembly, said filling assembly including a channel for said at least one container, said channel having a first part with an entrance opening located at a surface of a reservoir in which the said supply is located so as to allow flowable material moved by a wiper blade in said reservoir, to move downwardly from the supply into the channel and a second part with an exit opening part slidably movable relative to the first part , such as to allow the flowable material to flow from the channel into the container cavity and characterised in that the apparatus includes movement means provided to cause relative movement between the at least one container and the reservoir with which said channel of the filling assembly is located to allow the said channel to be at least partially located within the container cavity when the flowable material is in the channel and a stop located with one part on the surface and with the other part provided to contact with the underside of the said reservoir when the reservoir is moved towards the container and so define, in conjunction with the contact of the exit opening of the channel with a base of said at least one container, the extent of axial movement of said first and second parts of the said channel and the volume of said channel and so define the quantity of the said flowable material dispensed into the said channel and subsequently dispensed into the at least one container from said channel .
A processing machine capable of performing additive manufacturing and subtractive manufacturing for a workpiece, the processing machine comprising: a splash guard that defines and forms a processing area ; a tool spindle that holds a rotating tool for the subtractive manufacturing for the workpiece and is movable inside the processing area in an axial direction of a first axis parallel to a horizontal direction and an axial direction of a second axis parallel to the horizontal direction and orthogonal to the first axis; an additive-manufacturing head that is connected to the tool spindle , discharges material powder to the workpiece, and irradiates the workpiece with a laser beam; and a line body that extends from the additive-manufacturing head , is drawn from an inside to an outside of the processing area , and supplies the material powder and the laser beam to the additive-manufacturing head , the processing machine being characterized in that the tool spindle is configured such that a maximum movement amount of the tool spindle in the axial direction of the second axis is shorter than a maximum movement amount of the tool spindle in the axial direction of the first axis, and the line body is configured such that a drawing direction of the line body from the inside to the outside of the processing area is a direction intersecting the axial direction of the first axis in top view. a splash guard that defines and forms a processing area ; a tool spindle that holds a rotating tool for the subtractive manufacturing for the workpiece and is movable inside the processing area in an axial direction of a first axis parallel to a horizontal direction and an axial direction of a second axis parallel to the horizontal direction and orthogonal to the first axis; an additive-manufacturing head that is connected to the tool spindle , discharges material powder to the workpiece, and irradiates the workpiece with a laser beam; and a line body that extends from the additive-manufacturing head , is drawn from an inside to an outside of the processing area , and supplies the material powder and the laser beam to the additive-manufacturing head , the processing machine being characterized in that the tool spindle is configured such that a maximum movement amount of the tool spindle in the axial direction of the second axis is shorter than a maximum movement amount of the tool spindle in the axial direction of the first axis, and the line body is configured such that a drawing direction of the line body from the inside to the outside of the processing area is a direction intersecting the axial direction of the first axis in top view.
A pump assembly comprising - an impeller with a rotor axis (R), - a pump housing accommodating the impeller , - a drive motor with a stator and a rotor for driving the impeller , - a rotor can accommodating the rotor , and - a stator housing accommodating the stator , wherein the rotor can is shaped by rolling, expanding, cutting, milling and/or punching of a single integral metal piece and comprises a rotor can flange having a lateral rotor can flange face fitting within a peripheral wall of the pump housing , wherein the lateral rotor can flange face has at least three radial projections abutting against the peripheral wall of the pump housing and centring the rotor can with respect to the peripheral wall of the pump housing . - an impeller with a rotor axis (R), - a pump housing accommodating the impeller , - a drive motor with a stator and a rotor for driving the impeller , - a rotor can accommodating the rotor , and - a stator housing accommodating the stator ,