mhurhangee/patent-ind-claim-en huggingface dataset:
A method of measuring parameters of a patterned structure comprising applying scatterometry and scanning electron microscopy, i.e. SEM, measurements to the structure, the method comprising the following steps: (a) operating a handling system, operable for moving the patterned structure between first (MZ 1 ) and second (MZ 2 ) measurement zones, to locate the structure in a first measurement zone (MZ 1 ) and support the structure during measurement, applying the scatterometry measurements to the structure while in the first measurement zone (MZ 1 ), and generating first measured data presenting first measurement results indicative of at least one predetermined parameter of the structure; (b) operating that handling system to locate the structure in a second measurement zone (MZ 2 ) and support the structure during measurements, applying SEM measurements to the structure while in the second measuring zone (MZ 2 ), and generating second measured data presenting second measurement results indicative of profile parameters; (c) analyzing the first and second measured data to use either one of said first and second measured results for optimizing the other measurement results, wherein the optimization of the SEM measurement results comprises analyzing the SEM measured data to obtain data indicative of structure parameters other than the critical dimensions of the pattern. (a) operating a handling system, operable for moving the patterned structure between first (MZ 1 ) and second (MZ 2 ) measurement zones, to locate the structure in a first measurement zone (MZ 1 ) and support the structure during measurement, applying the scatterometry measurements to the structure while in the first measurement zone (MZ 1 ), and generating first measured data presenting first measurement results indicative of at least one predetermined parameter of the structure; (b) operating that handling system to locate the structure in a second measurement zone (MZ 2 ) and support the structure during measurements, applying SEM measurements to the structure while in the second measuring zone (MZ 2 ), and generating second measured data presenting second measurement results indicative of profile parameters; (c) analyzing the first and second measured data to use either one of said first and second measured results for optimizing the other measurement results, wherein the optimization of the SEM measurement results comprises analyzing the SEM measured data to obtain data indicative of structure parameters other than the critical dimensions of the pattern.
A disc refiner comprising a housing having portions defining a stock inlet and portions defining a stock outlet , a refining chamber between the stock inlet and the stock outlet , a shaft which extends into the housing , a rotating disc connected to and driven by the shaft for rotation within the housing , a sliding head plate within the housing , the sliding head plate having a front face and a rear face , a nonrotating movable refiner disc attached to the front face of the sliding head plate , the nonrotating movable refiner disc being adjacent the rotating disc so that a small adjustable refining gap is between the nonrotating movable refiner disc and the rotating disc, an actuator attached to the housing for moving the sliding head plate relative to the rotating disc , a guide rod support plate within the housing , the guide rod support plate having a plurality of spaced apart guide rod openings , a counterweight connected to the actuator , a plurality of spaced apart guide rods , each of which extends through a respective one of the guide rod openings , each guide rod having a first end attached to the rear face of the sliding head plate and a second end attached to the counterweight , the sliding head plate being on one side of the guide rod support plate and the counterweight being on the other side of the guide rod support plate , an actuator mounting plate attached to the housing , and a structural component attached to and extending between the actuator mounting plate and the guide rod support plate , the actuator mounting plate being spaced apart from the guide rod support plate , with the counterweight positioned between the actuator mounting plate and the guide rod support plate . a guide rod support plate within the housing , the guide rod support plate having a plurality of spaced apart guide rod openings , a counterweight connected to the actuator , a plurality of spaced apart guide rods , each of which extends through a respective one of the guide rod openings , each guide rod having a first end attached to the rear face of the sliding head plate and a second end attached to the counterweight , the sliding head plate being on one side of the guide rod support plate and the counterweight being on the other side of the guide rod support plate , an actuator mounting plate attached to the housing , and a structural component attached to and extending between the actuator mounting plate and the guide rod support plate , the actuator mounting plate being spaced apart from the guide rod support plate , with the counterweight positioned between the actuator mounting plate and the guide rod support plate .
A polytetrafluoroethylene tube having a tensile elongation at break of 350% or more being measured at a pulling rate of 50 mm/min at a temperature of 23°C±2°C, a melting energy of 0.6 J/g or more which is calculated from an endothermic peak at 370°C±5°C in a procedure of increasing a temperature in differential scanning calorimetry (DSC), and a thickness of 0.1 mm or less or a thickness of 5% or less of an outer diameter.
A linear motor compressor comprising: a compressor housing ; a cylinder housing having a plurality of opposing compression chambers ; a piston freely reciprocating within the cylinder housing , a linear electric motor positioned to reciprocate the piston ; and a piston position feedback control system configured to provide adaptive current output as a function of position feedback and/or velocity feedback from the piston and/or the electric motor , characterized in that the linear electric motor is a three-phase permanent magnet motor and the piston position feedback control system is configured to form and control a traveling wave within the electric motor that moves the piston. a compressor housing ; a cylinder housing having a plurality of opposing compression chambers ; a piston freely reciprocating within the cylinder housing , a linear electric motor positioned to reciprocate the piston ; and a piston position feedback control system configured to provide adaptive current output as a function of position feedback and/or velocity feedback from the piston and/or the electric motor ,
A method of processing High Dynamic Range, HDR, video data, the method comprising: receiving one or more syntax elements that contain information specifying how to determine parameters for performing an inverse dynamic range adjustment process, wherein the one or more parameters comprise one or more of a range parameter, a scale parameter, or an offset parameter, wherein receiving the one or more syntax elements comprises receiving the one or more syntax elements in one or more syntax structures, and wherein the information includes a minimum value and a maximum value for one or more color components and one or more of a first number of fractional bits used for determining a range parameter, a second number of fractional bits used for determining a scale parameter, and a third number of fractional bits used for determining an offset parameter; determining the one or more parameters based on the minimum value and the maximum value for the one or more color components and based on the first, second and third number of fractional bits; decoding video data; and performing the inverse dynamic range adjustment process on the decoded video data using fixed-point computing in accordance with the one or more parameters. receiving one or more syntax elements that contain information specifying how to determine parameters for performing an inverse dynamic range adjustment process, wherein the one or more parameters comprise one or more of a range parameter, a scale parameter, or an offset parameter, wherein receiving the one or more syntax elements comprises receiving the one or more syntax elements in one or more syntax structures, and wherein the information includes a minimum value and a maximum value for one or more color components and one or more of a first number of fractional bits used for determining a range parameter, a second number of fractional bits used for determining a scale parameter, and a third number of fractional bits used for determining an offset parameter; determining the one or more parameters based on the minimum value and the maximum value for the one or more color components and based on the first, second and third number of fractional bits; decoding video data; and performing the inverse dynamic range adjustment process on the decoded video data using fixed-point computing in accordance with the one or more parameters.
A capacitor comprising as components: i an electrode body made of an electrode material , wherein a dielectric at least partially covers the surface of this electrode material and forms an anode body , ii. wherein the anode body is at least partially coated with a solid electrolyte and forms a capacitor body , iii. wherein on the solid electrolyte layer there follows a layer of an organic impregnating agent , wherein the capacitor has the following properties: (α1) a decrease of the capacitance of at most 20%; on reducing the temperature from 20°C to -45°C; and (α2) a breakdown voltage of at least 50 V; wherein the organic impregnating agent is a polyalkylene glycol or a polyalkylene glycol derivative, or a combination thereof. i an electrode body made of an electrode material , wherein a dielectric at least partially covers the surface of this electrode material and forms an anode body , ii. wherein the anode body is at least partially coated with a solid electrolyte and forms a capacitor body , iii. wherein on the solid electrolyte layer there follows a layer of an organic impregnating agent , (α1) a decrease of the capacitance of at most 20%; on reducing the temperature from 20°C to -45°C; and (α2) a breakdown voltage of at least 50 V;
Line feedthrough (1; 100) for guiding at least one line through a component, comprising a cladding tube , at least one element which is mounted within the cladding tube and can rotate relative to the cladding tube , and comprising a sealing element which is designed as a flexible hose body and arranged within the cladding tube and the rotatable element , the sealing element designed as a flexible hose body being connected to the element in an axial end region and it being possible to displace said sealing element by means of a rotational movement between a closed position, in which the sealing element designed as a flexible hose body at least partially closes a passage through the sealing element designed as a flexible hose body, and an open position, in which a passage through the sealing element designed as a flexible hose body is at least partially unblocked, characterized in that, a guide element (41; 141) is provided which can be displaced in the longitudinal direction (L) relative to the cladding tube and which cooperates with a guide track of the rotatable element , the guide track of the rotatable element being in a spiral shape, such that a displacement of the guide element (41; 141) in the longitudinal direction (L) leads to a rotation of the rotatable element relative to the cladding tube .
A method of multiplexing a plurality of channels (C 1 , C 2 , C N ), wherein the channels can have different bandwidths, to generate an analog transport signal (S T ), for communicating from a distributed unit to a remote radio unit of a fronthaul for a radio access network , the method comprising: dividing the plurality of channels into channel sets (SG 1 , SG 2 , SG 3 ); defining a plurality of frequency bands (b 1 , b 2 , b 3 , b n ) within the analog transport signal, each frequency band being of the same predetermined width and immediately abutting another of the plurality of frequency bands; assigning a respective frequency band to each channel set; constructing a frequency domain representation of the analog transport signal by, for each channel set, arranging each channel within the frequency band assigned to the channel set so that, if the analog transport signal is sampled at a frequency equal to twice the predetermined width, each channel of each channel set has the same center frequency as a corresponding channel of at least one other channel set; and generating the analog transport signal by converting the frequency domain representation of the analog transport signal to the time domain. dividing the plurality of channels into channel sets (SG 1 , SG 2 , SG 3 ); defining a plurality of frequency bands (b 1 , b 2 , b 3 , b n ) within the analog transport signal, each frequency band being of the same predetermined width and immediately abutting another of the plurality of frequency bands; assigning a respective frequency band to each channel set; constructing a frequency domain representation of the analog transport signal by, for each channel set, arranging each channel within the frequency band assigned to the channel set so that, if the analog transport signal is sampled at a frequency equal to twice the predetermined width, each channel of each channel set has the same center frequency as a corresponding channel of at least one other channel set; and generating the analog transport signal by converting the frequency domain representation of the analog transport signal to the time domain.
A terminal comprising: a control section configured to control communication by using a first time unit or a second time unit set per frequency band, the first time unit being formed with one or more symbols each having a length of a symbol in accordance with a first subcarrier spacing and the second time unit being formed with one or more symbols each having a length of a symbol in accordance with a second subcarrier spacing and being longer than the first time unit; and a receiving section configured to receive a downlink signal by using any of the first time unit and the second time unit; and a transmitting section configured to transmit an uplink signal by using any of the first time unit and the second time unit; wherein the control section is configured to determine the first time unit per frequency band based on configuration information provided from a base station by higher layer signaling. a control section configured to control communication by using a first time unit or a second time unit set per frequency band, the first time unit being formed with one or more symbols each having a length of a symbol in accordance with a first subcarrier spacing and the second time unit being formed with one or more symbols each having a length of a symbol in accordance with a second subcarrier spacing and being longer than the first time unit; and a receiving section configured to receive a downlink signal by using any of the first time unit and the second time unit; and a transmitting section configured to transmit an uplink signal by using any of the first time unit and the second time unit; wherein the control section is configured to determine the first time unit per frequency band based on configuration information provided from a base station by higher layer signaling.
A turbomachine assembly comprising: • a first rotor module comprising a disk centered on a turbomachine longitudinal axis (X-X), a first blade mounted on the external periphery of the disk from which it extends, the first blade comprising an airfoil , a platform , a support and a root embedded in a recess of the disk , • a second rotor module , connected to the first rotor module , and comprising ∘ a second blade with a smaller length than the first blade , and ∘ a ferrule comprising a circumferential extension extending toward the platform of the first blade , and • a damping device comprising a first radial external surface supported with friction against the first module , on an internal surface of the platform of the first blade , as well as a second radial external surface supported with friction against the second module , against the circumferential extension of the ferrule , so as to couple the modules for the purpose of damping their respective vibrational movements during operation, the damping device also comprising two shoulders on either side of a notch provided at an internal surface of the damping device , characterized in that the shoulders are supported against the ferrule . • a first rotor module comprising a disk centered on a turbomachine longitudinal axis (X-X), a first blade mounted on the external periphery of the disk from which it extends, the first blade comprising an airfoil , a platform , a support and a root embedded in a recess of the disk , • a second rotor module , connected to the first rotor module , and comprising ∘ a second blade with a smaller length than the first blade , and ∘ a ferrule comprising a circumferential extension extending toward the platform of the first blade , and ∘ a second blade with a smaller length than the first blade , and ∘ a ferrule comprising a circumferential extension extending toward the platform of the first blade , and • a damping device comprising a first radial external surface supported with friction against the first module , on an internal surface of the platform of the first blade , as well as a second radial external surface supported with friction against the second module , against the circumferential extension of the ferrule , so as to couple the modules for the purpose of damping their respective vibrational movements during operation, the damping device also comprising two shoulders on either side of a notch provided at an internal surface of the damping device , characterized in that the shoulders are supported against the ferrule .
A height-adjustable table leg having a receiving device for fastening the table leg to a crossbar of a table support or to a tabletop or to a leg extension or for supporting the table leg on a floor, a threaded spindle and a bearing flange , via which the threaded spindle is rotatably supported on a bottom of the receiving device , characterized in that a sensor arm having a strain measurement device is fastened to the receiving device and rests against a part of the bearing flange fixed to the bottom .
A computer implemented method of forming a URI, said method comprising the steps of receiving one or more values, each said value having a respective format corresponding to the semantic content of said value, converting each said value into a converted value in a first common data type, concatenating said converted values to obtain a concatenated value, converting said concatenated value to an alphanumeric datatype, and adding a root value at the beginning of said converted concatenated value. receiving one or more values, each said value having a respective format corresponding to the semantic content of said value, converting each said value into a converted value in a first common data type, concatenating said converted values to obtain a concatenated value, converting said concatenated value to an alphanumeric datatype, and adding a root value at the beginning of said converted concatenated value.
A vector comprising a first expression control sequence operably linked to a first nucleic acid sequence, the first nucleic acid sequence encoding a shRNA to knockdown HPRT, wherein the shRNA has at least 95% sequence identity to that of SEQ ID NO: 30; and a second expression control sequence operably linked to a second nucleic acid sequence, the second nucleic acid sequence encoding a gamma-globin gene.
Method to provide a winding structure for an electrical machine using the needle winding technique, the method comprising: - winding in a first direction a number of coil-forming loops around a first tooth group resulting in a first partial coil; - leading the coil-forming wire to bypass an odd number of teeth ; - winding in the same direction a predetermined number of coil-forming loops around another tooth group resulting in another partial coil; - optionally, repeating once or multiple times the previous two steps; - connecting the first partial coil to a corresponding commutator hook and connecting the last partial coil to a corresponding commutator hook ; - repeating the aforementioned steps, beginning with a tooth group following the last tooth group wrapped or provided with windings in the previous step until a uniform coil configuration is obtained in at least all tooth groups, wherein the adjacent partial coils (10,9,8; 9,10,11) do not lie directly on top of one another. - winding in a first direction a number of coil-forming loops around a first tooth group resulting in a first partial coil; - leading the coil-forming wire to bypass an odd number of teeth ; - winding in the same direction a predetermined number of coil-forming loops around another tooth group resulting in another partial coil; - optionally, repeating once or multiple times the previous two steps; - connecting the first partial coil to a corresponding commutator hook and connecting the last partial coil to a corresponding commutator hook ; - repeating the aforementioned steps, beginning with a tooth group following the last tooth group wrapped or provided with windings in the previous step until a uniform coil configuration is obtained in at least all tooth groups, wherein the adjacent partial coils (10,9,8; 9,10,11) do not lie directly on top of one another.
A method performed by a mobile telephone for providing information to a base station , the method comprising: receiving (S703), from said base station , a RRC Connection Reconfiguration message which is configurable to include a power consumption state request of information identifying a current power consumption state and a request of handover measurements; determining (S709) whether said information related to power consumption should be sent to said base station based on said RRC Connection Reconfiguration message; generating (S711) said information if it is determined that said information should be sent to said base station ; and sending (S713, S714) said information to said base station in a RRC Measurement Report message. receiving (S703), from said base station , a RRC Connection Reconfiguration message which is configurable to include a power consumption state request of information identifying a current power consumption state and a request of handover measurements; determining (S709) whether said information related to power consumption should be sent to said base station based on said RRC Connection Reconfiguration message; generating (S711) said information if it is determined that said information should be sent to said base station ; and sending (S713, S714) said information to said base station in a RRC Measurement Report message.