mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for automatic network architecture configuration maintenance, the method comprising: initiating a proxy service connection with an external cloud system by sending an initiation request to a proxy system, wherein the initiation request includes identification information associated with the external cloud system based on which the proxy system communicates with the external cloud system to establish the proxy connection; transmitting a configurations retrieval request to the external cloud system via the proxy service connection; retrieving , from the external cloud system , an updated device configurations data object via the proxy service connection; identifying a vulnerable networked device set based at least in part on a detected networked device set and the updated device configurations data object; generating a device cyber risk score data object set comprising a device cyber risk score data object associated with one or more vulnerable network devices of the vulnerable networked device set; and outputting the device cyber risk score data object set. initiating a proxy service connection with an external cloud system by sending an initiation request to a proxy system, wherein the initiation request includes identification information associated with the external cloud system based on which the proxy system communicates with the external cloud system to establish the proxy connection; transmitting a configurations retrieval request to the external cloud system via the proxy service connection; retrieving , from the external cloud system , an updated device configurations data object via the proxy service connection; identifying a vulnerable networked device set based at least in part on a detected networked device set and the updated device configurations data object; generating a device cyber risk score data object set comprising a device cyber risk score data object associated with one or more vulnerable network devices of the vulnerable networked device set; and outputting the device cyber risk score data object set.
A three-dimensional fabrication method comprising: (a) depositing a first polymer layer; (b) printing a first ink layer on to the first polymer layer; (c) depositing a second polymer layer on to the first ink layer; (d) printing a second ink layer on to the second polymer layer; and (e) repeating steps (a)-(d) to form a three-dimensional object, characterized in that at least one of the first and second ink layers includes an ink comprising electroless metallization catalysts. (a) depositing a first polymer layer; (b) printing a first ink layer on to the first polymer layer; (c) depositing a second polymer layer on to the first ink layer; (d) printing a second ink layer on to the second polymer layer; and (e) repeating steps (a)-(d) to form a three-dimensional object, characterized in that at least one of the first and second ink layers includes an ink comprising electroless metallization catalysts.
A grinding device comprising a grinding mechanism , a driving mechanism capable of driving the grinding mechanism to operate, and a grinding seat located between the grinding mechanism and the driving mechanism , the grinding mechanism comprising a rotating shaft unit inserted in and protruded from the grinding seat to be rotatably connected to the driving mechanism , an inner grinding unit sleeved on the rotating shaft unit , and an outer grinding unit surrounding and spaced from the inner grinding unit , the driving mechanism being able to drive the rotating shaft unit to bring the inner grinding unit to rotate and grind the substance to be ground in cooperation with the outer grinding unit , the grinding mechanism further comprising a supporting unit sleeved on and abutted against the rotating shaft unit , the supporting unit comprising a first supporting seat and a first supporting assembly connected to the first supporting seat , the first supporting assembly defining a first supporting hole , the supporting unit further comprising a second supporting assembly assembled to the first supporting seat and located between the inner grinding unit and the grinding seat , the second supporting assembly defining a second supporting hole , the top end of the rotating shaft unit rotationally inserted in the first supporting hole , the bottom end of the rotating shaft unit rotationally inserted in the second supporting hole , characterized in that the driving mechanism is located under the grinding mechanism , the driving mechanism is provided with an assembling hole under the second supporting hole , the bottom end of the rotating shaft unit is further detachably inserted into the assembling hole of the driving mechanism , and the first supporting seat is detachably assembled and connected to the grinding seat , so that the grinding mechanism is able to be detached from or assembled to the grinding seat .
A whisking accessory for a household food preparation appliance, the whisking accessory comprising a drive part provided with a first rotation axis (X1) and with at least one arm , the whisking accessory comprising at least one beater , the or each beater being mounted in a freely rotatable manner on the or one of the arms according to a second rotation axis (X2, X3) eccentric with respect to the first rotation axis (X1), the or at least one of the beaters , preferably the or each beater , comprising a base provided with mixing means moving above and at a distance from said at least one arm during the rotation of said at least one beater , characterised in that the base is at least partially annular and in that the mixing means comprise corrugations distributed around and/or below the base , to promote the stirring and the emulsion of a small food preparation amount.
A data transmission method, comprising: independently encoding, by a terminal device, data to be transmitted on each transmission resource in multiple transmission resources; transmitting, by the terminal device, the independently encoded data on each transmission resource of the multiple transmission resources without grant, wherein each transmission resource of the multiple transmission resources comprises at least one resource unit, and the at least one resource unit comprised in the each transmission resource satisfy a pre-agreed condition, characterized in that the pre-agreed condition comprises: an index P of a starting resource unit in the at least one resource unit comprised in the each transmission resource satisfies P mod N=k, where N is a quantity of the resource units in the each transmission resource, k is a non-negative integer smaller than N; wherein the starting resource unit in the at least one resource unit comprised in the each transmission resource comprises a resource unit with an even index in the at least one resource unit. independently encoding, by a terminal device, data to be transmitted on each transmission resource in multiple transmission resources; transmitting, by the terminal device, the independently encoded data on each transmission resource of the multiple transmission resources without grant, wherein each transmission resource of the multiple transmission resources comprises at least one resource unit, and the at least one resource unit comprised in the each transmission resource satisfy a pre-agreed condition, characterized in that the pre-agreed condition comprises: an index P of a starting resource unit in the at least one resource unit comprised in the each transmission resource satisfies P mod N=k, where N is a quantity of the resource units in the each transmission resource, k is a non-negative integer smaller than N; wherein the starting resource unit in the at least one resource unit comprised in the each transmission resource comprises a resource unit with an even index in the at least one resource unit. an index P of a starting resource unit in the at least one resource unit comprised in the each transmission resource satisfies P mod N=k, where N is a quantity of the resource units in the each transmission resource, k is a non-negative integer smaller than N; wherein the starting resource unit in the at least one resource unit comprised in the each transmission resource comprises a resource unit with an even index in the at least one resource unit.
A pharmaceutical composition comprising a peptide and a first antibody, wherein the peptide has an active sequence represented by SEQ ID NO:1, and the antibody is against an immune checkpoint protein selected from the group consisting of: CTLA-4, PD-1, PD-L1, and PD-L2.
An electronic device comprising: a first power rail configured to be held at a first voltage ; a second power rail configured to be held at a second voltage ; a load power rail ; multiple power-multiplexer tiles coupled in series in a chained arrangement and configured to jointly perform a power-multiplexing operation responsive to a power-rail switching signal, each power-multiplexer tile configured to switch between coupling the load power rail to the first power rail and coupling the load power rail to the second power rail ; and a power-multiplexer control circuitry coupled to the first power rail and the second power rail, the power-multiplexer control circuitry including a comparator configured to produce a relative voltage signal based on the first voltage and the second voltage, the electronic device being characterised in that the power-multiplexer control circuitry is including: a power-multiplexer initiation circuitry configured tc receive a voltage-level indication signal from a voltage controller and to generate the power-rail switching signal based on the relative voltage signal and the voltage-level indication signal , the voltage-level indication signal indicative of the voltage controller issuing a command to change a second voltage level of the second voltage on the second power rail. a first power rail configured to be held at a first voltage ; a second power rail configured to be held at a second voltage ; a load power rail ; multiple power-multiplexer tiles coupled in series in a chained arrangement and configured to jointly perform a power-multiplexing operation responsive to a power-rail switching signal, each power-multiplexer tile configured to switch between coupling the load power rail to the first power rail and coupling the load power rail to the second power rail ; and a power-multiplexer control circuitry coupled to the first power rail and the second power rail, the power-multiplexer control circuitry including a comparator configured to produce a relative voltage signal based on the first voltage and the second voltage, the electronic device being characterised in that the power-multiplexer control circuitry is including: a power-multiplexer initiation circuitry configured tc receive a voltage-level indication signal from a voltage controller and to generate the power-rail switching signal based on the relative voltage signal and the voltage-level indication signal , the voltage-level indication signal indicative of the voltage controller issuing a command to change a second voltage level of the second voltage on the second power rail. a power-multiplexer initiation circuitry configured tc receive a voltage-level indication signal from a voltage controller and to generate the power-rail switching signal based on the relative voltage signal and the voltage-level indication signal , the voltage-level indication signal indicative of the voltage controller issuing a command to change a second voltage level of the second voltage on the second power rail.
A method of directing a flow of liquid resin through a preform, the method comprising: positioning a preform on a tool surface with the preform covering over grooves in the tool surface ; positioning at least one of a fluid impervious sheet, a second tool and a vacuum bag on the tool surface over the preform ; sealing the at least one of the fluid impervious sheet, the second tool and the vacuum bag on the tool surface over the preform forming a sealed volume between the fluid impervious sheet and the tool surface ; supplying a pressure differential into the sealed volume ; supplying a flow of liquid resin into the sealed volume ; and, directing the flow of liquid resin supplied into the sealed volume through the preform by the pressure differential pulling the flow of liquid resin through the grooves in the tool surface with the grooves in the tool surface directing the flow of liquid resin into discrete areas on the tool surface , including directing different volumes of the flow of liquid resin supplied into the sealed volume to the discrete areas on the tool surface through grooves in the tool surface having different length dimensions and/or different cross-section dimensions and/or different configurations, so that a need for a resin distribution media on the tool surface is eliminated. positioning a preform on a tool surface with the preform covering over grooves in the tool surface ; positioning at least one of a fluid impervious sheet, a second tool and a vacuum bag on the tool surface over the preform ; sealing the at least one of the fluid impervious sheet, the second tool and the vacuum bag on the tool surface over the preform forming a sealed volume between the fluid impervious sheet and the tool surface ; supplying a pressure differential into the sealed volume ; supplying a flow of liquid resin into the sealed volume ; and, directing the flow of liquid resin supplied into the sealed volume through the preform by the pressure differential pulling the flow of liquid resin through the grooves in the tool surface with the grooves in the tool surface directing the flow of liquid resin into discrete areas on the tool surface , including directing different volumes of the flow of liquid resin supplied into the sealed volume to the discrete areas on the tool surface through grooves in the tool surface having different length dimensions and/or different cross-section dimensions and/or different configurations, so that a need for a resin distribution media on the tool surface is eliminated.
An air handling system comprising a fan array fan section, the fan array fan section comprising: a plurality of fan units arranged in a fan array and positioned within an air handling compartment, each fan unit comprising: a fan; a motor ; and an inlet cone ; and a plurality of fan unit cells connected to one another to form a modular unit system, each of the fan units arranged in a corresponding fan unit cell , and each fan unit cell comprising: a frame, supporting acoustically absorptive insulation surfaces , the insulation surfaces configured to function as a coplanar silencer to at least partially dissipate sound produced by the fan, and characterized in that the insulation surface includes open cell foam with a rigid perforated facing . a plurality of fan units arranged in a fan array and positioned within an air handling compartment, each fan unit comprising: a fan; a motor ; and an inlet cone ; a fan; a motor ; and an inlet cone ; and a plurality of fan unit cells connected to one another to form a modular unit system, each of the fan units arranged in a corresponding fan unit cell , and each fan unit cell comprising: a frame, supporting acoustically absorptive insulation surfaces , the insulation surfaces configured to function as a coplanar silencer to at least partially dissipate sound produced by the fan, and characterized in that the insulation surface includes open cell foam with a rigid perforated facing .
An antibody or an antigen-binding fragment thereof that binds each of the following antigen complexes: i) human LTBP1-proTGFβ1; ii) human LTBP3-proTGFβ1; iii) human GARP-proTGFβ1; and, iv) human LRRC33-proTGFβ1; wherein the antibody or the fragment thereof comprises a heavy chain variable domain according to SEQ ID NO: 13 and a light chain variable domain according to SEQ ID NO: 15. i) human LTBP1-proTGFβ1; ii) human LTBP3-proTGFβ1; iii) human GARP-proTGFβ1; and, iv) human LRRC33-proTGFβ1;
A portable programmable device including a battery, a memory, a screen and a terminal connectable to earpieces, the device including in the memory a calibration file, parameter or parameters relating to audio sensitivity of the earpieces, the device being configured to play media data including audio, and to provide audio output to the earpieces, the device being further configured to, using the calibration file, parameter or parameters, calculate a noise dose relating to a sound exposure of a user resulting from audio output provided to the earpieces, and to record the noise dose on the device, wherein the device is configured to adjust audio output level in response to: (a) audio content included in played media data; (b) the calibration file, parameter or parameters, and (c) noise dose data of the user recorded on the device; characterised in that the device is configured to prompt the user to identify the earpieces when the earpieces are connected to the device, and to calculate the noise dose using subsampling from signals going to the earpieces. (a) audio content included in played media data; (b) the calibration file, parameter or parameters, and (c) noise dose data of the user recorded on the device; characterised in that the device is configured to prompt the user to identify the earpieces when the earpieces are connected to the device, and to calculate the noise dose using subsampling from signals going to the earpieces.
A rotor assembly for a gas turbine engine, comprising: a first rotor disk configured to rotate about a rotational axis ; a second rotor disk configured to rotate about the rotational axis ; and a plurality of rotor blades arranged circumferentially around the rotational axis , each of the plurality of rotor blades mounted to the first rotor disk and to the second rotor disk , and the plurality of rotor blades comprising a first rotor blade ; the first rotor blade comprising an attachment projecting axially along the rotational axis into a first pocket in the first rotor disk and a second pocket in the second rotor disk , and the attachment having a dovetail cross-sectional geometry when viewed in a plane perpendicular to the rotational axis ; and a portion of the first rotor disk extending circumferentially across and thereby circumferentially covering the attachment ; characterised in that the first pocket is formed by a circumferentially uninterrupted annular rim of the first rotor disk . a first rotor disk configured to rotate about a rotational axis ; a second rotor disk configured to rotate about the rotational axis ; and a plurality of rotor blades arranged circumferentially around the rotational axis , each of the plurality of rotor blades mounted to the first rotor disk and to the second rotor disk , and the plurality of rotor blades comprising a first rotor blade ; the first rotor blade comprising an attachment projecting axially along the rotational axis into a first pocket in the first rotor disk and a second pocket in the second rotor disk , and the attachment having a dovetail cross-sectional geometry when viewed in a plane perpendicular to the rotational axis ; and a portion of the first rotor disk extending circumferentially across and thereby circumferentially covering the attachment ; characterised in that the first pocket is formed by a circumferentially uninterrupted annular rim of the first rotor disk .
A rotary electric shaver comprising: a handle assembly including a housing , a motor disposed in the housing , a drive shaft operatively connected to the motor and extending through the housing , and a socket for securing a shaver head assembly thereto, and the shaver head assembly including cutters and a coupling for detachable press-fit coupling to the socket , the coupling being insertable into the socket such that the coupling is releasably engaged within the socket in a manner that allows the coupling to be pulled out of the socket , wherein the coupling is keyed to the socket such that the shape of the coupling matches a corresponding shape of the socket in a keyed orientation of the shaver head assembly relative to the handle assembly , and wherein the coupling is configured to allow the shaver head assembly to be detachably coupled to the handle assembly in at least two different keyed orientations of the shaver head assembly relative to the handle assembly characterised in that the cutters are positioned differently relative to the handle assembly in each of the at least two different orientations of the shaver head assembly . a handle assembly including a housing , a motor disposed in the housing , a drive shaft operatively connected to the motor and extending through the housing , and a socket for securing a shaver head assembly thereto, and the shaver head assembly including cutters and a coupling for detachable press-fit coupling to the socket , the coupling being insertable into the socket such that the coupling is releasably engaged within the socket in a manner that allows the coupling to be pulled out of the socket , wherein the coupling is keyed to the socket such that the shape of the coupling matches a corresponding shape of the socket in a keyed orientation of the shaver head assembly relative to the handle assembly , and wherein the coupling is configured to allow the shaver head assembly to be detachably coupled to the handle assembly in at least two different keyed orientations of the shaver head assembly relative to the handle assembly characterised in that the cutters are positioned differently relative to the handle assembly in each of the at least two different orientations of the shaver head assembly .
A braking apparatus for work machines comprising at least two brakes each having at least one braking circuit , wherein the braking circuits can be actuated via at least one control valve each and the control valves can be controlled independently of one another; a processing unit by which the control valves can be controlled or regulated; an operating circuit via which the braking circuits can be controlled or regulated manually; and at least one pressure supply (p1), wherein the at least two control valves are controlled or regulated under predetermined conditions by the processing unit , and wherein the at least two control valves are controlled or regulated under predetermined conditions by the processing unit , and wherein the operating circuit and the control valves are coupled to the at least two braking circuits via one respective shuttle valve each, characterized in that at least one further valve is connected upstream of the at least two control valves , said further valve being a safety valve and controlling or regulating the inflow of hydraulic fluid from a hydraulic fluid source to the at least two control valves , with the safety valve being able to be controlled or regulated by the processing unit .
A numerical control method which uses a servo control unit to drive a feed axis of a machine tool , the numerical control method comprising steps of measuring (S1) a closed loop transfer function (G BP ) of a position loop at the servo control unit of the machine tool by using a frequency response of the feed axis, finding (S2) a control coverage, P P , of the position loop by using the measured closed loop transfer function, G BP , using the following equation: P P = G BP K PP 1 − G BP , wherein K PP is the position proportional gain of the position loop, finding (S3) a modeling error (ΔP P ) of the position loop from the control coverage (P P ), and calculating (S5) the position proportional gain K pp of the position loop as a control parameter from the closed loop transfer function G BP of the position loop and the modeling error (ΔP p ) of the position loop, wherein i) the closed loop transfer function (G BP ) is set to not cross the modeling error (ΔP P ) and ii) the small gain theorem is used to find K PP using the following equation: ΔP p < T − 1 , wherein T is the closed-loop transfer function G BP and is shifted toward the modeling error (ΔP P ) in a direction where frequency increases.