mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing a photosensitive printing form for a flexographic printing method, the manufacturing method comprising the following steps: • preparing a rasterized file from at least one file of graphical and/or textual content to be reproduced; • processing, using the rasterized file , a flexographic plate in order to form a first series of relief patterns which are borne by a base in an image area of the flexographic plate , the first series of relief patterns representing the graphical and/or textual content to be reproduced and having a first elevation (e1) with respect to the base ; wherein the preparation of the rasterized file also comprises the definition of a second series of patterns, which is placed outside the image area , the features of the second series of patterns being such that after the processing of the flexographic plate , the latter has a second series of relief patterns , the patterns of the second series of relief patterns having an elevation (e2) with respect to the base , which is lower than the first elevation (e1). • preparing a rasterized file from at least one file of graphical and/or textual content to be reproduced; • processing, using the rasterized file , a flexographic plate in order to form a first series of relief patterns which are borne by a base in an image area of the flexographic plate , the first series of relief patterns representing the graphical and/or textual content to be reproduced and having a first elevation (e1) with respect to the base ;
A cable comprising: a twisted pair electronic wire in which two electronic wires are twisted together; and a jacket coated on the twisted pair electronic wire , wherein an outer peripheral surface of the jacket is a polyurethane resin, the electronic wire includes: a conductor made of annealed copper; and a resin insulating layer coated on the conductor , the conductor is a double twisted wire in which twisted wires formed by twisting a plurality of wires are twisted, a diameter of each wire of the plurality of wires is 0.05 mm or more and 0.2 mm or less, a cross-sectional area of the conductor is 1.0 mm 2 or more and 3.0 mm 2 or less, a breaking elongation of the conductor is 10% or more and 17% or less, a tensile strength of the conductor is 200 MPa or more and 400 MPa or less, and the insulating layer has a solid structure disposed to be in close contact with the conductor . a twisted pair electronic wire in which two electronic wires are twisted together; and a jacket coated on the twisted pair electronic wire , wherein an outer peripheral surface of the jacket is a polyurethane resin, the electronic wire includes: a conductor made of annealed copper; and a resin insulating layer coated on the conductor , a conductor made of annealed copper; and a resin insulating layer coated on the conductor , the conductor is a double twisted wire in which twisted wires formed by twisting a plurality of wires are twisted, a diameter of each wire of the plurality of wires is 0.05 mm or more and 0.2 mm or less, a cross-sectional area of the conductor is 1.0 mm 2 or more and 3.0 mm 2 or less, a breaking elongation of the conductor is 10% or more and 17% or less, a tensile strength of the conductor is 200 MPa or more and 400 MPa or less, and the insulating layer has a solid structure disposed to be in close contact with the conductor .
A method for wireless communications, performed by a user equipment, UE, the method comprising: communicating with a serving base station on a serving cell carrier frequency using a first set of one or more receive antennas during a normal operational period; transmitting signaling to the serving base station to establish measurement gaps for performing receive antenna diversity measurements, wherein the signaling comprises a capability to perform receive antenna diversity measurements during measurement gaps; receiving a configuration from the serving base station of measurement gaps for performing receive antenna diversity measurements with a second set of one or more receive antennas; performing receive antenna diversity measurements on the serving cell carrier frequency with the second set of one or more receive antennas during measurement gaps between normal operational periods, wherein performing receive antenna diversity measurements comprises alternating between taking inter-frequency or inter-RAT measurements in first measurement gaps and Rx antenna diversity measurements in second measurement gaps ; and selecting one or more receive antennas for at least one of use or combining, based on the receive antenna diversity measurements. communicating with a serving base station on a serving cell carrier frequency using a first set of one or more receive antennas during a normal operational period; transmitting signaling to the serving base station to establish measurement gaps for performing receive antenna diversity measurements, wherein the signaling comprises a capability to perform receive antenna diversity measurements during measurement gaps; receiving a configuration from the serving base station of measurement gaps for performing receive antenna diversity measurements with a second set of one or more receive antennas; performing receive antenna diversity measurements on the serving cell carrier frequency with the second set of one or more receive antennas during measurement gaps between normal operational periods, wherein performing receive antenna diversity measurements comprises alternating between taking inter-frequency or inter-RAT measurements in first measurement gaps and Rx antenna diversity measurements in second measurement gaps ; and selecting one or more receive antennas for at least one of use or combining, based on the receive antenna diversity measurements.
A 3D printing device having at least one printing nozzle for a layer-by-layer application of a printing material provided for the production of a component to be printed along a direction of application (R), wherein the 3D printing device has a temperature control device , characterized in that the temperature control device comprises a plurality of temperature control elements (41a-41e; 41a-42e; 43a-43e) provided for cooling already applied printing material and a plurality of temperature control elements (41a-41e; 41a-42e; 43a-43e) provided for warming already applied printing material , wherein the temperature control device comprises first and second supports which each extend at least partially around the printing nozzle and are arranged concentrically, and wherein the temperature control elements (41a-41e; 41a-42e; 43a-43e) are provided on sections of the first and second supports of the temperature control device .
A bicycle frame element comprising a frame tube comprising a recess for storage of bicycle accessories, and at least one holding element extending across the recess , wherein, in the area of the recess , the frame tube is formed as a profile closed in the circumferential direction , characterized in that on a surface of the recess , the frame tube is at least partially coated to prevent a sliding or shifting of bicycle accessories arranged in the recess.
An overhead conductor comprising a bare conductor coated with a dried coating, the dried coating having an emissivity coefficient of 0.5 or greater and comprising: an inorganic binder comprising one or more of a metal silicate, peptized aluminum oxide monohydrate, colloidal silica, and aluminum phosphate; and a heat radiating agent comprising one or more of gallium oxide, cerium oxide, zirconium oxide, silicon hexaboride, carbon tetraboride, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, zinc oxide, cupric chromite, magnesium oxide, silicon dioxide, manganese oxide, chromium oxides, iron oxide, boron carbide, boron silicide, copper chromium oxide, tricalcium phosphate, titanium dioxide, aluminum nitride, boron nitride, magnesium oxide, and calcium oxide; and wherein the operating temperature of the overhead conductor is lower than the operating temperature of a bare conductor by at least 5°C, when uncoated and the same current is applied in accordance with ANSI C119.4-2004. an inorganic binder comprising one or more of a metal silicate, peptized aluminum oxide monohydrate, colloidal silica, and aluminum phosphate; and a heat radiating agent comprising one or more of gallium oxide, cerium oxide, zirconium oxide, silicon hexaboride, carbon tetraboride, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, zinc oxide, cupric chromite, magnesium oxide, silicon dioxide, manganese oxide, chromium oxides, iron oxide, boron carbide, boron silicide, copper chromium oxide, tricalcium phosphate, titanium dioxide, aluminum nitride, boron nitride, magnesium oxide, and calcium oxide; and wherein the operating temperature of the overhead conductor is lower than the operating temperature of a bare conductor by at least 5°C, when uncoated and the same current is applied in accordance with ANSI C119.4-2004.
Alert system for warning vulnerable road users in a given road section , comprising a receiver unit with a communications interface for receiving a multiplicity of movement data of detected road users in relation to the road section , characterized in that a memory unit is provided, the latter having at least three or more prediction modules with a decreasing prediction quality and the first prediction module being designed to make at least one prediction of the position of the detected road users if specific first conditions are satisfied and the second prediction module being designed to make at least one prediction of the position of the detected road users if the first conditions are not satisfied and only specific second conditions are satisfied, and the third prediction module being designed to make at least one prediction of the position of the detected road users if the first conditions and the second conditions are not satisfied, and wherein a test module is provided, the latter being designed to test whether the first conditions or the second conditions or the third conditions are satisfied in relation to the road section and the road user and, in sequence of decreasing quality and depending on satisfied conditions, to select the prediction module with the highest prediction quality, and wherein a processor is provided, the latter being designed to predict at least the future position of the detected road users on the basis of the selected prediction module . a memory unit is provided, the latter having at least three or more prediction modules with a decreasing prediction quality and the first prediction module being designed to make at least one prediction of the position of the detected road users if specific first conditions are satisfied and the second prediction module being designed to make at least one prediction of the position of the detected road users if the first conditions are not satisfied and only specific second conditions are satisfied, and the third prediction module being designed to make at least one prediction of the position of the detected road users if the first conditions and the second conditions are not satisfied, and wherein a test module is provided, the latter being designed to test whether the first conditions or the second conditions or the third conditions are satisfied in relation to the road section and the road user and, in sequence of decreasing quality and depending on satisfied conditions, to select the prediction module with the highest prediction quality, and wherein a processor is provided, the latter being designed to predict at least the future position of the detected road users on the basis of the selected prediction module .
A method of rapidly constructing a high throughput sequencing library for detecting chromosome copy number variation, characterized in that , the method comprises the following steps: subjecting DNAs to be tested to random fragmentation by a double-strand DNA fragmentation enzyme; end-filling and adding poly-adenine at the 3' end of the fragmented DNAs; connecting the end-filled DNAs having a 3' end poly-adenine with sequencing linkers to obtain connected products; purifying the connected products to obtain the sequencing library; wherein steps - are performed in a single reaction tube; wherein the DNAs are as less as lOng; and wherein the method does not comprise a step of PCR amplification. subjecting DNAs to be tested to random fragmentation by a double-strand DNA fragmentation enzyme; end-filling and adding poly-adenine at the 3' end of the fragmented DNAs; connecting the end-filled DNAs having a 3' end poly-adenine with sequencing linkers to obtain connected products; purifying the connected products to obtain the sequencing library; wherein steps - are performed in a single reaction tube; wherein the DNAs are as less as lOng; and wherein the method does not comprise a step of PCR amplification. wherein steps - are performed in a single reaction tube; wherein the DNAs are as less as lOng; and wherein the method does not comprise a step of PCR amplification.
An electrical power transmitter , comprising: a primary inductor (Lprimary); a drive transistor (Q1-Q4) coupled to the primary inductor, the transistor having a gate; and a rising edge control circuit including a voltage controlled oscillator, VCO, having a power carrier frequency input, configured to generate m stage outputs, and configured to generate a clock signal output at a frequency n times greater than the power carrier frequency; a rising edge multiplexer having m sub-portion inputs coupled to the m stage outputs, a select input, and a rising edge multiplexer output; a rising edge divider circuit having an input coupled to the clock signal output and having n rising edge portion outputs; and rising edge logic circuitry having inputs coupled to the rising edge multiplexer output and the n rising edge portion outputs, and having a rising edge control output coupled to the drive transistor gate. a primary inductor (Lprimary); a drive transistor (Q1-Q4) coupled to the primary inductor, the transistor having a gate; and a rising edge control circuit including a voltage controlled oscillator, VCO, having a power carrier frequency input, configured to generate m stage outputs, and configured to generate a clock signal output at a frequency n times greater than the power carrier frequency; a rising edge multiplexer having m sub-portion inputs coupled to the m stage outputs, a select input, and a rising edge multiplexer output; a rising edge divider circuit having an input coupled to the clock signal output and having n rising edge portion outputs; and rising edge logic circuitry having inputs coupled to the rising edge multiplexer output and the n rising edge portion outputs, and having a rising edge control output coupled to the drive transistor gate.
A surgical instrument , comprising: a first jaw comprising a distal jaw end; a second jaw movable relative to said first jaw to capture the tissue of a patient between said first jaw and said second jaw; and a cutting member movable toward said distal jaw end during a cutting stroke, wherein said cutting member comprises: a coupling portion comprising a first cam configured to engage said first jaw and a second cam configured to engage said second jaw during said cutting stroke; and a bar comprising a plurality of layers attached to said coupling portion, characterised in that said bar comprises a cutting edge configured to cut the patient tissue during said cutting stroke. a first jaw comprising a distal jaw end; a second jaw movable relative to said first jaw to capture the tissue of a patient between said first jaw and said second jaw; and a cutting member movable toward said distal jaw end during a cutting stroke, wherein said cutting member comprises: a coupling portion comprising a first cam configured to engage said first jaw and a second cam configured to engage said second jaw during said cutting stroke; and a bar comprising a plurality of layers attached to said coupling portion, characterised in that said bar comprises a cutting edge configured to cut the patient tissue during said cutting stroke. a coupling portion comprising a first cam configured to engage said first jaw and a second cam configured to engage said second jaw during said cutting stroke; and a bar comprising a plurality of layers attached to said coupling portion, characterised in that said bar comprises a cutting edge configured to cut the patient tissue during said cutting stroke.
An infusion catheter system , comprising: an elongate catheter shaft having a proximal end region , a distal end region , a distal opening , and a lumen extending between the proximal end region and the distal opening , wherein the distal end region includes a coiled portion having a preformed coiled configuration including a plurality of helically wound rings ; a plurality of apertures formed through a sidewall of the coiled portion and in fluid communication with the lumen of the elongate catheter shaft ; and a guidewire configured to be slidably disposed within the lumen of the elongate catheter shaft , the guidewire including a proximal end region having a first outer diameter , a distal end region having a second outer diameter , the second outer diameter greater than the first outer diameter , and an intermediate region disposed between the proximal end region of the guidewire and the distal end region of the guidewire ; wherein the distal end region of the guidewire is configured to be within or just outside of the distal opening of the elongate catheter shaft during delivery of a fluid through the lumen of the elongate catheter shaft . an elongate catheter shaft having a proximal end region , a distal end region , a distal opening , and a lumen extending between the proximal end region and the distal opening , wherein the distal end region includes a coiled portion having a preformed coiled configuration including a plurality of helically wound rings ; a plurality of apertures formed through a sidewall of the coiled portion and in fluid communication with the lumen of the elongate catheter shaft ; and a guidewire configured to be slidably disposed within the lumen of the elongate catheter shaft , the guidewire including a proximal end region having a first outer diameter , a distal end region having a second outer diameter , the second outer diameter greater than the first outer diameter , and an intermediate region disposed between the proximal end region of the guidewire and the distal end region of the guidewire ; wherein the distal end region of the guidewire is configured to be within or just outside of the distal opening of the elongate catheter shaft during delivery of a fluid through the lumen of the elongate catheter shaft .
A method for checking the integrity of the alignment on a plurality of landmarks (14-1,...,14-N) during the geolocation of a mobile device following one or more faults of predetermined types, comprising the following steps: - acquisition of a first probability value ( P d ) corresponding to the probability of detection of a fault and of a second probability value ( P fa ) corresponding to the probability of a false alarm; - determination of an estimated state vector ( X̂ ) from a vector of measurements ( Y ) comprising measurements of the position of the landmarks (14-1, ..., 14-N), measurements direction of the landmarks (14-1, ..., 14-N) and measurements of the distance to the landmarks (14-1, ..., 14-N) from the mobile device ; - determination of a test variable ( T ) corresponding to a distance between the vector of measurements ( Y ) and theoretical measurements associated with the estimated state vector ( X̂ ), the test variable ( T ) following a predetermined distribution law; - determination of a decentralisation value ( λ ) of the distribution law for the first and second probability values (P d , P fa ); - for the or each type of failure, determination of a minimum detectable bias ( B min,i,j ) from the decentralisation value ( λ ), the test variable ( T ) and a characteristic vector ( W i,j ) associated with this type of failure; - determination of a protection radius (HPL) from the or each minimum detectable bias ( B min,i,j ), the integrity of the measurements in the said protection radius (HPL) being guaranteed with the first probability value ( P d ) in the absence of a false alarm with the second probability value ( P fa ). - acquisition of a first probability value ( P d ) corresponding to the probability of detection of a fault and of a second probability value ( P fa ) corresponding to the probability of a false alarm; - determination of an estimated state vector ( X̂ ) from a vector of measurements ( Y ) comprising measurements of the position of the landmarks (14-1, ..., 14-N), measurements direction of the landmarks (14-1, ..., 14-N) and measurements of the distance to the landmarks (14-1, ..., 14-N) from the mobile device ; - determination of a test variable ( T ) corresponding to a distance between the vector of measurements ( Y ) and theoretical measurements associated with the estimated state vector ( X̂ ), the test variable ( T ) following a predetermined distribution law; - determination of a decentralisation value ( λ ) of the distribution law for the first and second probability values (P d , P fa ); - for the or each type of failure, determination of a minimum detectable bias ( B min,i,j ) from the decentralisation value ( λ ), the test variable ( T ) and a characteristic vector ( W i,j ) associated with this type of failure; - determination of a protection radius (HPL) from the or each minimum detectable bias ( B min,i,j ), the integrity of the measurements in the said protection radius (HPL) being guaranteed with the first probability value ( P d ) in the absence of a false alarm with the second probability value ( P fa ).