mhurhangee/patent-ind-claim-en huggingface dataset:
A communication system comprising a base station and a communication terminal , the communication terminal comprising: a controller configured to set a retuning time, wherein when a first narrowband to be used for a first subframe to transmit ACK/NACK to downlink data on PUCCH is different from a second narrowband to be used for a second subframe to transmit uplink data on PUSCH, the second subframe following the first subframe, the controller is configured to set the first two symbols of the second subframe as the retuning time; and when a first narrowband to be used for a first subframe to transmit uplink data on PUSCH is different from a second narrowband to be used for a second subframe to transmit ACK/NACK to downlink data on PUCCH, the second subframe following the first subframe, the controller is configured to set the last two symbols of the first subframe as the retuning time; and a transmitter configured to transmit the uplink data on PUSCH and the ACK/NACK on PUCCH. a controller configured to set a retuning time, wherein when a first narrowband to be used for a first subframe to transmit ACK/NACK to downlink data on PUCCH is different from a second narrowband to be used for a second subframe to transmit uplink data on PUSCH, the second subframe following the first subframe, the controller is configured to set the first two symbols of the second subframe as the retuning time; and when a first narrowband to be used for a first subframe to transmit uplink data on PUSCH is different from a second narrowband to be used for a second subframe to transmit ACK/NACK to downlink data on PUCCH, the second subframe following the first subframe, the controller is configured to set the last two symbols of the first subframe as the retuning time; and a transmitter configured to transmit the uplink data on PUSCH and the ACK/NACK on PUCCH.
Filter device for reducing electromagnetic interferences, having a modular mounting construction, wherein the filter device has a filter plate for receiving first annular core holders , which are slid into guide rails of the filter plate and contain a first number of ferrite rings, insulated alternating current cables (4-L) for alternating current phases (L) and a neutral conductor (4-N) or insulated direct current cable (4-DC) for direct currents (DC) being wound around the first annular core holders multiple times to form a current-compensated throttle of the filter device , the alternating current cable (4-L) and the neutral conductor (4-N) or direct current cable (4-DC) being connected to terminal contacts of the filter device and also being passed through second annular core holders , which are mounted on the filter plate of the filter device and contain a second number of ferrite rings.
A vehicle control method, comprising: driving a vehicle entering a cruise control mode to travel at a cruise target speed corresponding to the cruise control mode; determining whether a torque strength outputted to a power system of the vehicle is greater than or equal to a predetermined torque strength and is continuously outputted for a predetermined period of time when the vehicle does not travel at the cruise target speed; and changing the cruise target speed to a current speed of the vehicle when determining that the torque strength outputted to the power system of the vehicle is greater than or equal to the predetermined torque strength and is continuously outputted for the predetermined period of time. driving a vehicle entering a cruise control mode to travel at a cruise target speed corresponding to the cruise control mode; determining whether a torque strength outputted to a power system of the vehicle is greater than or equal to a predetermined torque strength and is continuously outputted for a predetermined period of time when the vehicle does not travel at the cruise target speed; and changing the cruise target speed to a current speed of the vehicle when determining that the torque strength outputted to the power system of the vehicle is greater than or equal to the predetermined torque strength and is continuously outputted for the predetermined period of time.
A system for reinforcing a supporting post of a construction and for setting up the supporting post for the passage of a heat transfer medium, - with a reinforcing cage for reinforcing the supporting post, and - a pipe through which the heat transfer medium can flow, wherein the pipe has at least one region which is of helically curved configuration and which can be compressed or pulled apart in the direction of the helix axis of the region , wherein the region of helically curved configuration can be introduced into the reinforcing cage , wherein the region of helically curved configuration can be compressed or pulled apart to be adapted to the dimensions existing in each case of the reinforcing cage , and in that the pipe can be attached or fastened to the reinforcing cage while maintaining the length of the region of helically curved configuration that has been adjusted in this way. - with a reinforcing cage for reinforcing the supporting post, and - a pipe through which the heat transfer medium can flow,
A liquid propellant engine (1; 50) comprising: at least one combustor comprising, in turn, a combustion chamber , an injection plate ; a combustible liquid feeding assembly ; and an oxidising mixture feeding assembly ; said feeding assemblies each comprising a respective pump and a respective turbine for driving said corresponding pump ; the engine (1;50) further comprising a combustible liquid heating circuit; the heating circuit comprising an outlet port for the heated combustible liquid, fluidly connected to an inlet mouth of the turbine of the combustible liquid feeding assembly by means of a first pipe ; the turbine of the combustible liquid feeding assembly having an outlet connected to the said injection plate by means of a second pipe ; the oxidising mixture feeding assembly comprising an oxidising mixture forming burner , an outlet mouth of the burner being fluidly connected to an inlet mouth of the turbine of the oxidising mixture feeding assembly ; said combustible liquid and oxidising mixture feeding assemblies being mechanically separate and independently controllable from each other; the turbine of the oxidising mixture feeding assembly having an outlet mouth connected to the said injection plate by means of a third pipe ; characterized in that said feeding assemblies comprise a single burner defined by said oxidising mixture forming burner , and in that the inlet mouth of the turbine of the combustible liquid feeding assembly is fluidly connected only to said outlet port .
An electronic circuit comprising: - a first input terminal (IN1) configured to receive a first input signal (Vin); - an output terminal (U) configured to issue an output signal (Vout); - a feedback loop (L) connecting an internal circuit node (N) with said output terminal (U); - an amplifier (A) having a first terminal, or non-inverting terminal, connected to the first input terminal (IN1) and a second terminal, or inverting terminal, connected to the node (N), said amplifier (A) being configured to receive in input said first input signal (Vin) and to generate in output said output signal (U); - a first impedance (Zr), or reference impedance, connected to said node (N) and to said output terminal (U) along said feedback loop (L); and - an actuator (ACT) configured to generate a physical quantity, the impedance of said actuator (ACT), or second impedance, being dependent on said physical quantity; wherein said actuator (ACT) is connected to said internal circuit node (N) in such a way that the output signal (Vout) depends on the input signal (Vin), on the reference impedance (Zr) and on the physical quantity; characterized in that said electronic circuit comprises a second input terminal (IN2) configured for receiving a second input signal (Vr), and in that said actuator (ACT) is connected to said second input terminal (IN2). - a first input terminal (IN1) configured to receive a first input signal (Vin); - an output terminal (U) configured to issue an output signal (Vout); - a feedback loop (L) connecting an internal circuit node (N) with said output terminal (U); - an amplifier (A) having a first terminal, or non-inverting terminal, connected to the first input terminal (IN1) and a second terminal, or inverting terminal, connected to the node (N), said amplifier (A) being configured to receive in input said first input signal (Vin) and to generate in output said output signal (U); - a first impedance (Zr), or reference impedance, connected to said node (N) and to said output terminal (U) along said feedback loop (L); and - an actuator (ACT) configured to generate a physical quantity, the impedance of said actuator (ACT), or second impedance, being dependent on said physical quantity;
A continuous ozone generator, comprising: - at least two electrodes , with a dielectric positioned between the electrodes, which define, between them, discharge gaps , - an inlet end (E) for circulation, in the gaps, of a gas charged with oxygen up to an outlet end (S), - at least one electrode being composed of at least two segments, positioned one behind the other in the direction of flow of the gas, - means for cooling the generator, - and means (A) for supplying with electric current, in order to establish a voltage between the electrodes and to bring about discharges in the gaps where the gas is circulating, the segments of the electrode being divided into at least two electrically separated groups , one of the groups being closer to the gas inlet and the other group being closer to the outlet, and the means (A) for supplying with electric current comprising at least two separate electrical supply stages (PSU1, PSU2) respectively associated with each group of segments, each supply stage being constituted by independent source of electrical energy (PSU1, PSU2) characterized in that it comprises means (G1, G2) for optimizing the furnishing of energy which are provided in order to respectively control each electrical supply stage (PSU1, PSU2) and in order to make use of the different local concentrations of ozone in order to independently control how the energy is supplied to the different sections of the generator localized between the gas inlet and outlet in the generator, by being capable of acting on the power and/or the voltage and/or the current and/or the frequency and/or the waveform of the supply and/or, in the case of a pulsed supply, on the cyclic ratio. - at least two electrodes , with a dielectric positioned between the electrodes, which define, between them, discharge gaps , - an inlet end (E) for circulation, in the gaps, of a gas charged with oxygen up to an outlet end (S), - at least one electrode being composed of at least two segments, positioned one behind the other in the direction of flow of the gas, - means for cooling the generator, - and means (A) for supplying with electric current, in order to establish a voltage between the electrodes and to bring about discharges in the gaps where the gas is circulating,
A bicomponent extruded mesh (10; 100) comprising: a first layer (1; 112) of parallel strands running in a longitudinal direction; a second layer (2; 116) of an elastic material on one side of the first layer; and a third layer (3; 120) of parallel strands on the opposite side of the second layer (2; 116) as the first layer (1; 112) and running in the same direction as those of the first layer, characterized in that the first (1; 112), second (2; 116), and third (3; 120) layers are co-extruded together such that the strands in the first layer (1; 112) are positioned or aligned within the space between strands in the third layer (3; 120), wherein materials for the first, second, and third layers are selected such that the layers are bonded together as a result of being co-extruded. a first layer (1; 112) of parallel strands running in a longitudinal direction; a second layer (2; 116) of an elastic material on one side of the first layer; and a third layer (3; 120) of parallel strands on the opposite side of the second layer (2; 116) as the first layer (1; 112) and running in the same direction as those of the first layer, characterized in that the first (1; 112), second (2; 116), and third (3; 120) layers are co-extruded together such that the strands in the first layer (1; 112) are positioned or aligned within the space between strands in the third layer (3; 120), wherein materials for the first, second, and third layers are selected such that the layers are bonded together as a result of being co-extruded.
A light directing article comprising: a body layer having a Tg of at least 30°C comprising a (meth)acrylic polymer and polyvinyl acetal polymer comprising polymerized units having the following formula wherein R 1 is hydrogen or a C1-C7 alkyl group; and a second layer proximate the body layer, wherein the second layer comprises optical elements , wherein the optical elements comprise microstructured elements being cube-corner elements. a body layer having a Tg of at least 30°C comprising a (meth)acrylic polymer and polyvinyl acetal polymer comprising polymerized units having the following formula wherein R 1 is hydrogen or a C1-C7 alkyl group; and a second layer proximate the body layer, wherein the second layer comprises optical elements , wherein the optical elements comprise microstructured elements being cube-corner elements.
A dental bar for accurately determining the separation and relative orientation of two coping cylinders projecting from dental implants in a patient's mouth to receive a prosthesis, the dental bar comprising two sockets , for fitting over and securing to the two coping cylinders, connected to one another by a limb formed of telescopically collapsible sections of which the end sections are formed integrally with, or permanently secured to, the two sockets in predetermined positions, wherein, within each pair of adjacent sections of the limb, one is a shaft and the other is a tubular housing within which the shaft is slidably received, the exterior of the shaft and the interior of the housing having different cross-sectional shapes, at least one of the cross-sectional shapes being a polygon, so as to define at least one empty volume therebetween, and wherein a port is provided in each housing for injecting a bonding material into the or each volume in order to lock all the limb sections permanently relative to one another.
Rubber composition, characterized in that it comprises at least one phenol-aldehyde resin based: - on at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two -O-H groups in the meta position relative to one another, the two positions ortho to at least one of the -O-H groups being unsubstituted; and - on at least one aldehyde of formula W: in which: - each Ar 1 and Ar 2 group represents, independently of one another, an optionally substituted aromatic ring; and - SP is a connecting group that connects at least the Ar 1 and Ar 2 groups to one another, SP separating the Ar 1 and Ar 2 groups by at least 2 covalent bonds. - on at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two -O-H groups in the meta position relative to one another, the two positions ortho to at least one of the -O-H groups being unsubstituted; and - on at least one aldehyde of formula W: in which: - each Ar 1 and Ar 2 group represents, independently of one another, an optionally substituted aromatic ring; and - SP is a connecting group that connects at least the Ar 1 and Ar 2 groups to one another, SP separating the Ar 1 and Ar 2 groups by at least 2 covalent bonds. - each Ar 1 and Ar 2 group represents, independently of one another, an optionally substituted aromatic ring; and - SP is a connecting group that connects at least the Ar 1 and Ar 2 groups to one another, SP separating the Ar 1 and Ar 2 groups by at least 2 covalent bonds.
A lung volume reduction elastic implant, wherein the implant is tubular having a lumen and has an open proximal end , the implant further comprising an elastic deformation section having a distal end and a lumen, wherein the elastic deformation section has a shape memory characteristic and has a plurality of cutout grooves formed in a spaced-apart manner along its lengthwise direction, wherein each cutout groove communicates with the lumen of the elastic deformation section , wherein a flexible guide section is connected with the distal end of the elastic deformation section and, under the action of the same external force, the flexible guide section deforms more easily than the elastic deformation section , wherein the flexible guide section has a distal end and a proximal end and, under the action of the same external force, the bending resistance of the flexible guide section is gradually enhanced from its distal end to its proximal end, characterized in that the flexible guide section comprises a tubular body which is cut from a nickel-titanium tube and has continuous spiral cutout grooves and wherein a gap is provided between every two adjacent cutout grooves of the flexible guide section and the gap is gradually increased along the axial direction of the flexible guide section from the distal end to the proximal end of the flexible guide section . the implant further comprising an elastic deformation section having a distal end and a lumen, wherein the elastic deformation section has a shape memory characteristic and has a plurality of cutout grooves formed in a spaced-apart manner along its lengthwise direction, wherein each cutout groove communicates with the lumen of the elastic deformation section , wherein a flexible guide section is connected with the distal end of the elastic deformation section and, under the action of the same external force, the flexible guide section deforms more easily than the elastic deformation section , wherein the flexible guide section has a distal end and a proximal end and, under the action of the same external force, the bending resistance of the flexible guide section is gradually enhanced from its distal end to its proximal end, characterized in that the flexible guide section comprises a tubular body which is cut from a nickel-titanium tube and has continuous spiral cutout grooves and wherein a gap is provided between every two adjacent cutout grooves of the flexible guide section and the gap is gradually increased along the axial direction of the flexible guide section from the distal end to the proximal end of the flexible guide section .
A laser machining method, comprising: emitting a laser beam having a wavelength of 900 nm to 1100 nm for cutting a sheet metal (W) from a nozzle to irradiate the sheet metal (W) with the laser beam, the nozzle being attached to a tip end of a machining head and having an opening formed therein; cutting the sheet metal (W) by relatively moving the machining head with respect to a surface of the sheet metal (W); and vibrating the laser beam in a parallel direction with a cutting advancing direction of the sheet metal (W) when the sheet metal (W) is cut, characterized in that a calculation value Va is expressed by the following expression, Va = Qx + rtop + 2 × rbottom where an amplitude amount at a time of vibrating the laser beam is Qx, a radius of a first circular region having an area occupying 86% beam energy at a center side of total beam energy in a sectional area of the laser beam on a top surface of the sheet metal (W) is rtop, and a radius of a second circular region having an area occupying 86% beam energy at a center side of total beam energy in a sectional area of the laser beam in a bottom surface of the sheet metal (W) is rbottom, and when a standard deviation of the calculation value Va at a time of cutting sheet metals (W) of a plurality of plate thicknesses is Vasd, a nozzle having a diameter of an opening between a minimum value obtained by 2Va - Vasd, and a maximum value obtained by 2.5 Va + Vasd is used as the nozzle . emitting a laser beam having a wavelength of 900 nm to 1100 nm for cutting a sheet metal (W) from a nozzle to irradiate the sheet metal (W) with the laser beam, the nozzle being attached to a tip end of a machining head and having an opening formed therein; cutting the sheet metal (W) by relatively moving the machining head with respect to a surface of the sheet metal (W); and vibrating the laser beam in a parallel direction with a cutting advancing direction of the sheet metal (W) when the sheet metal (W) is cut, characterized in that a calculation value Va is expressed by the following expression, Va = Qx + rtop + 2 × rbottom where an amplitude amount at a time of vibrating the laser beam is Qx, a radius of a first circular region having an area occupying 86% beam energy at a center side of total beam energy in a sectional area of the laser beam on a top surface of the sheet metal (W) is rtop, and a radius of a second circular region having an area occupying 86% beam energy at a center side of total beam energy in a sectional area of the laser beam in a bottom surface of the sheet metal (W) is rbottom, and when a standard deviation of the calculation value Va at a time of cutting sheet metals (W) of a plurality of plate thicknesses is Vasd, a nozzle having a diameter of an opening between a minimum value obtained by 2Va - Vasd, and a maximum value obtained by 2.5 Va + Vasd is used as the nozzle .
A method of making a library of synthetic light chain variable domain polypeptides comprising variant CDRL1 and/or CDRL2 sequences, the method comprising: (a) providing a reference set of light chain sequences comprising CDRL1 and/or CDRL2 sequences, wherein the reference set contains light chain sequences with VL segments selected from the group consisting of sequences found in, or encoded by, a single IGVL germline gene and sequences found in, or encoded by, allelic variants of the single IGVL germline gene; (b) calculating a diversity index for positions in the CDRL1 and/or CDRL2 sequences; (c) selecting the positions within the CDRL1 and/or CDRL2 sequences to vary based on the diversity index of (b); (d) varying the positions of (c) to include the two to four most frequently occurring amino acid residues at the corresponding positions within a germline in the reference set of light chain sequences; and (e) synthesizing the polypeptides comprising the variant CDRL1 and/or CDRL2 sequences of (d). (a) providing a reference set of light chain sequences comprising CDRL1 and/or CDRL2 sequences, wherein the reference set contains light chain sequences with VL segments selected from the group consisting of sequences found in, or encoded by, a single IGVL germline gene and sequences found in, or encoded by, allelic variants of the single IGVL germline gene; (b) calculating a diversity index for positions in the CDRL1 and/or CDRL2 sequences; (c) selecting the positions within the CDRL1 and/or CDRL2 sequences to vary based on the diversity index of (b); (d) varying the positions of (c) to include the two to four most frequently occurring amino acid residues at the corresponding positions within a germline in the reference set of light chain sequences; and (e) synthesizing the polypeptides comprising the variant CDRL1 and/or CDRL2 sequences of (d).