mhurhangee/patent-ind-claim-en huggingface dataset:
A system for conducting a seismic survey, comprising: at least one seismic sensor configured to supply a signal responsive to reflections of acoustic energy from an earth surface; sampling circuitry in electrical communication with the at least one seismic sensor and configured to convert the signal to a sequence of samples, wherein each sample is represented by a bit string, the system characterized by : at least one processor and a computer memory accessible to the at least one processor , the at least one processor configured to: create a sample block by storing at least a portion of the sequence of samples in memory units in the computer memory, wherein each sample is stored in a corresponding memory unit; number the at least one bit of each sample; and compress data contained in the sample block by encoding a sequence of bits making up a particular bit number for all the samples of the sample block to produce compressed seismic data; a data communication device configured to transmit the compressed seismic data; and a recording computer configured to receive the compressed seismic data. at least one processor and a computer memory accessible to the at least one processor , the at least one processor configured to: create a sample block by storing at least a portion of the sequence of samples in memory units in the computer memory, wherein each sample is stored in a corresponding memory unit; number the at least one bit of each sample; and compress data contained in the sample block by encoding a sequence of bits making up a particular bit number for all the samples of the sample block to produce compressed seismic data; create a sample block by storing at least a portion of the sequence of samples in memory units in the computer memory, wherein each sample is stored in a corresponding memory unit; number the at least one bit of each sample; and compress data contained in the sample block by encoding a sequence of bits making up a particular bit number for all the samples of the sample block to produce compressed seismic data; a data communication device configured to transmit the compressed seismic data; and a recording computer configured to receive the compressed seismic data.
A method of forming a solder wire, the method comprising: extruding a billet at a temperature of from 220 °C to 250 °C and a pressure of from 12410 kPa to 13445 kPa (1800 psi to 1950 psi) to form a solder wire having a diameter of less than 1 millimeter; heat treating the extruded wire at a temperature of between 93 °C and 121 °C; and winding the heat treated extruded wire onto a spool while the extruded wire is above its solidus temperature; and wherein the solder wire consists of: 85 to 95 weight percent bismuth; 8 to 12 weight percent copper; and 0.001 to 0.1 weight percent gallium. extruding a billet at a temperature of from 220 °C to 250 °C and a pressure of from 12410 kPa to 13445 kPa (1800 psi to 1950 psi) to form a solder wire having a diameter of less than 1 millimeter; heat treating the extruded wire at a temperature of between 93 °C and 121 °C; and winding the heat treated extruded wire onto a spool while the extruded wire is above its solidus temperature; and wherein the solder wire consists of: 85 to 95 weight percent bismuth; 8 to 12 weight percent copper; and 0.001 to 0.1 weight percent gallium. 85 to 95 weight percent bismuth; 8 to 12 weight percent copper; and 0.001 to 0.1 weight percent gallium.
An isolator assembly , comprising: an isolator having a hydraulic damper fillable with a damping fluid; and a damping coefficient-regulating inductive heating system , comprising: a sensor configured to monitor data indicative of a damping fluid temperature; characterized by an inductive heating device positioned around a periphery of the hydraulic damper in a non-contacting relationship; and a controller operably coupled to the inductive heating device and the sensor , the controller configured to receive the data from the sensor and, in response thereto, control the inductive heating device to selectively apply inductive input energy to the hydraulic damper to heat the damping fluid contained therein. an isolator having a hydraulic damper fillable with a damping fluid; and a damping coefficient-regulating inductive heating system , comprising: a sensor configured to monitor data indicative of a damping fluid temperature; characterized by an inductive heating device positioned around a periphery of the hydraulic damper in a non-contacting relationship; and a controller operably coupled to the inductive heating device and the sensor , the controller configured to receive the data from the sensor and, in response thereto, control the inductive heating device to selectively apply inductive input energy to the hydraulic damper to heat the damping fluid contained therein. a sensor configured to monitor data indicative of a damping fluid temperature; characterized by an inductive heating device positioned around a periphery of the hydraulic damper in a non-contacting relationship; and a controller operably coupled to the inductive heating device and the sensor , the controller configured to receive the data from the sensor and, in response thereto, control the inductive heating device to selectively apply inductive input energy to the hydraulic damper to heat the damping fluid contained therein.
A method for compensation for a Thermal Expansion Coefficient mismatch of a stacked device to a silicon substrate of the device, the method comprising: providing a first silicon dioxide layer on the silicon substrate ; depositing a modifier layer on the first silicon dioxide layer, wherein the modifier layer comprises a group one metal, a group two metal, Lithium Niobate, Lead Lanthanum Zirconate Titanate, Lead Zirconate Titanate, Barium Titanate, Strontium Titanate, or Barium Strontium Titanate; depositing a second silicon dioxide layer on the modifier layer to form a multilayer initial oxide ; and annealing the multilayer initial oxide resulting in an annealed multilayer initial oxide, wherein the annealing causes diffusion of modifier species from the modifier layer into the first and second silicon dioxide layers and results in amorphous polysilicates. providing a first silicon dioxide layer on the silicon substrate ; depositing a modifier layer on the first silicon dioxide layer, wherein the modifier layer comprises a group one metal, a group two metal, Lithium Niobate, Lead Lanthanum Zirconate Titanate, Lead Zirconate Titanate, Barium Titanate, Strontium Titanate, or Barium Strontium Titanate; depositing a second silicon dioxide layer on the modifier layer to form a multilayer initial oxide ; and annealing the multilayer initial oxide resulting in an annealed multilayer initial oxide, wherein the annealing causes diffusion of modifier species from the modifier layer into the first and second silicon dioxide layers and results in amorphous polysilicates.
A transesophageal echocardiography probe, comprising: a containment frame ; a first control input located external to the containment frame; a first shaft located internal to the containment frame and coupled to the first control input; a first elongated flexible member comprising a first end and a second end, wherein the first elongated flexible member is wrapped around the first shaft; a first pull cable attachment coupled to the first end of the first elongated flexible member; a second pull cable attachment coupled to the second end of the first elongated flexible member; a first pull cable attached to the first pull cable attachment; and a second pull cable attached to the second pull cable attachment, wherein, when the first control input is actuated, the first shaft is rotated such that the first and second ends of the first elongated flexible member move linearly, causing one of the first or second pull cable to move in a first direction and causing the other of the first or second pull cable to move in an opposite, second direction, and wherein a distal portion of a gastroscope coupled to the first and second pull cables is flexed according to movements of the first and second pull cables. a containment frame ; a first control input located external to the containment frame; a first shaft located internal to the containment frame and coupled to the first control input; a first elongated flexible member comprising a first end and a second end, wherein the first elongated flexible member is wrapped around the first shaft; a first pull cable attachment coupled to the first end of the first elongated flexible member; a second pull cable attachment coupled to the second end of the first elongated flexible member; a first pull cable attached to the first pull cable attachment; and a second pull cable attached to the second pull cable attachment, wherein, when the first control input is actuated, the first shaft is rotated such that the first and second ends of the first elongated flexible member move linearly, causing one of the first or second pull cable to move in a first direction and causing the other of the first or second pull cable to move in an opposite, second direction, and wherein a distal portion of a gastroscope coupled to the first and second pull cables is flexed according to movements of the first and second pull cables.
A high pressure turbine (HPT) blade or vane comprising: a substantially arcuate trailing edge , an arrangement of trailing edge cooling holes , arranged at the substantially arcuate trailing edge and configured as fluid injection elements to inject fluid there from at one or more angles to the main flow to create vorticity that mixes out the wake, such that aerodynamic losses due to wake and shock interactions are reduced to a desired level, and further such that thermal wake segregation effects are reduced to a desired level, and one or more turbine blade or vane geometric elements, wherein the one or more geometric elements in combination with the one or more fluid injection elements are together configured to mix the wakes generated via the HPT turbine blade or vane , and the one or more geometric elements comprise a trailing edge slot, wherein at least one wall of the slot is crenulated in a spanwise direction of the slot on both an inner and an outer side of said wall. a substantially arcuate trailing edge , an arrangement of trailing edge cooling holes , arranged at the substantially arcuate trailing edge and configured as fluid injection elements to inject fluid there from at one or more angles to the main flow to create vorticity that mixes out the wake, such that aerodynamic losses due to wake and shock interactions are reduced to a desired level, and further such that thermal wake segregation effects are reduced to a desired level, and one or more turbine blade or vane geometric elements, wherein the one or more geometric elements in combination with the one or more fluid injection elements are together configured to mix the wakes generated via the HPT turbine blade or vane , and the one or more geometric elements comprise a trailing edge slot, wherein at least one wall of the slot is crenulated in a spanwise direction of the slot on both an inner and an outer side of said wall.
Method for automatically optimizing a predictive dynamic bending light function of a lighting system of a vehicle, comprising - configuring a bending light control unit for controlling a lighting system of a vehicle with initial bending light control parameter values as bending light control parameter values to be used; - configuring a classification unit for automatically classifying a performance of the bending light control unit into a desired performance class and at least one further performance class, depending on output values of the bending light control unit; - configuring a control parameter optimization unit for ascertaining updated bending light control parameter values depending on input values of the bending light control unit and classifications of the performance of the bending light control unit assigned to the input values; - acquiring journey trajectory parameter values as the input values of the bending light control unit during at least one journey of the vehicle; - ascertaining output values of the bending light control unit, and automatically classifying the performance of the bending light control unit depending on the ascertained output values during the at least one journey; and - ascertaining updated bending light control parameter values, and adapting the bending light control parameter values to be used to the updated bending light control parameter values, wherein the ascertainment of updated bending light control parameter values comprises the application of a genetic algorithm with which a frequency of a classification of the performance of the bending light control unit into the desired performance class is increased. - configuring a bending light control unit for controlling a lighting system of a vehicle with initial bending light control parameter values as bending light control parameter values to be used; - configuring a classification unit for automatically classifying a performance of the bending light control unit into a desired performance class and at least one further performance class, depending on output values of the bending light control unit; - configuring a control parameter optimization unit for ascertaining updated bending light control parameter values depending on input values of the bending light control unit and classifications of the performance of the bending light control unit assigned to the input values; - acquiring journey trajectory parameter values as the input values of the bending light control unit during at least one journey of the vehicle; - ascertaining output values of the bending light control unit, and automatically classifying the performance of the bending light control unit depending on the ascertained output values during the at least one journey; and - ascertaining updated bending light control parameter values, and adapting the bending light control parameter values to be used to the updated bending light control parameter values, wherein
A data processor configured to arrange data and a set of data resource descriptors in a cache memory , wherein the set of data resource descriptors comprises data resource descriptors of different types and different sizes, wherein the cache memory is linewise accessible by a data processing device, the data processor being configured to: determine a combined resource descriptor size and a cache line size such that one of those sizes is an integer multiple of the other one of those sizes; receive the data resource descriptors; define a plurality of non-overlapping storage areas in the cache memory, each storage area being aligned to either (i) a line of the cache or (ii) a location offset from a line of the cache by an integer multiple of the determined combined resource descriptor size; form a series of groups of data resource descriptors, each group being of a size less than or equal to the combined resource descriptor size; and store each group of data resource descriptors in a respective one of the plurality of the defined non-overlapping storage areas. determine a combined resource descriptor size and a cache line size such that one of those sizes is an integer multiple of the other one of those sizes; receive the data resource descriptors; define a plurality of non-overlapping storage areas in the cache memory, each storage area being aligned to either (i) a line of the cache or (ii) a location offset from a line of the cache by an integer multiple of the determined combined resource descriptor size; form a series of groups of data resource descriptors, each group being of a size less than or equal to the combined resource descriptor size; and store each group of data resource descriptors in a respective one of the plurality of the defined non-overlapping storage areas.
A pyrazolo[3,4-d]pyrimidine compound represented by General formula (I) below or a salt thereof for use in a method of treating a HER2-positive tumor that is resistant or intractable to an anti-HER2 antibody: (wherein, X represents a saturated, optionally substituted nitrogen-containing 4-10-membered heterocyclic group; Y represents -C(R 4 )=C(R 5 )(R 6 ); Z 1 , Z 2 , Z 3 and Z 4 identically or differently represent a hydrogen atom, a halogen atom, a cyano group, a C2-C6 alkenyl group, an optionally substituted C1-C6 alkoxy group, an optionally substituted C1-C6 alkyl group, an optionally substituted amino group, an optionally substituted C3-C7 cycloalkyl group, a C6-C14 aromatic hydrocarbon group or an unsaturated 4-14-membered heterocyclic group, or Z 1 and Z 2 or Z 3 and Z 4 may form, together with carbon atoms that bind thereto, a benzene ring or a saturated or unsaturated 5-7-membered heterocycle; W represents -CH 2 -, an oxygen atom or -NH-; n represents an integer of 0 to 2; R 1 represents an optionally substituted amino group; R 2 and R 3 identically or differently represent a hydrogen atom, an optionally substituted C1-C6 alkoxy group, an optionally substituted C1-C6 alkyl group or an optionally substituted C6-C14 aromatic hydrocarbon group, or R 2 and R 3 may form, together with a nitrogen atom that binds thereto, a saturated, optionally substituted nitrogen-containing 4-8-membered heterocyclic group; and R 4 , R 5 and R 6 identically or differently represent a hydrogen atom or an optionally substituted C1-C6 alkyl group). (wherein, X represents a saturated, optionally substituted nitrogen-containing 4-10-membered heterocyclic group; Y represents -C(R 4 )=C(R 5 )(R 6 ); Z 1 , Z 2 , Z 3 and Z 4 identically or differently represent a hydrogen atom, a halogen atom, a cyano group, a C2-C6 alkenyl group, an optionally substituted C1-C6 alkoxy group, an optionally substituted C1-C6 alkyl group, an optionally substituted amino group, an optionally substituted C3-C7 cycloalkyl group, a C6-C14 aromatic hydrocarbon group or an unsaturated 4-14-membered heterocyclic group, or Z 1 and Z 2 or Z 3 and Z 4 may form, together with carbon atoms that bind thereto, a benzene ring or a saturated or unsaturated 5-7-membered heterocycle; W represents -CH 2 -, an oxygen atom or -NH-; n represents an integer of 0 to 2; R 1 represents an optionally substituted amino group; R 2 and R 3 identically or differently represent a hydrogen atom, an optionally substituted C1-C6 alkoxy group, an optionally substituted C1-C6 alkyl group or an optionally substituted C6-C14 aromatic hydrocarbon group, or R 2 and R 3 may form, together with a nitrogen atom that binds thereto, a saturated, optionally substituted nitrogen-containing 4-8-membered heterocyclic group; and R 4 , R 5 and R 6 identically or differently represent a hydrogen atom or an optionally substituted C1-C6 alkyl group).
A mobile terminal comprising: a flexible display configured to be deformed by changing the display from an unfolded state to a folded state; a first body configured to support a first region of the display; a second body configured to support a remaining region of the display; and a hinge rotatably coupling the first body with the second body , wherein movement of the first body relative to the second body about the hinge permits the display to be changed between the unfolded state and the folded state, wherein the second body comprises: a first plate coupled to the hinge ; and a second plate slidably coupled to the first plate to permit the second plate to be moved in a direction that extends from the hinge to permit the display to be changed to the unfolded state and to be moved in a direction that is towards the hinge to permit the display to be changed to the folded state, and characterized in that the first body comprises a receiving space formed to be recessed on one side of the first body, wherein the receiving space is sized to receive the second body and the remaining region of the display when the display is in the folded state. a flexible display configured to be deformed by changing the display from an unfolded state to a folded state; a first body configured to support a first region of the display; a second body configured to support a remaining region of the display; and a hinge rotatably coupling the first body with the second body , wherein movement of the first body relative to the second body about the hinge permits the display to be changed between the unfolded state and the folded state, wherein the second body comprises: a first plate coupled to the hinge ; and a second plate slidably coupled to the first plate to permit the second plate to be moved in a direction that extends from the hinge to permit the display to be changed to the unfolded state and to be moved in a direction that is towards the hinge to permit the display to be changed to the folded state, and characterized in that the first body comprises a receiving space formed to be recessed on one side of the first body, wherein the receiving space is sized to receive the second body and the remaining region of the display when the display is in the folded state. a first plate coupled to the hinge ; and a second plate slidably coupled to the first plate to permit the second plate to be moved in a direction that extends from the hinge to permit the display to be changed to the unfolded state and to be moved in a direction that is towards the hinge to permit the display to be changed to the folded state, and characterized in that the first body comprises a receiving space formed to be recessed on one side of the first body, wherein the receiving space is sized to receive the second body and the remaining region of the display when the display is in the folded state.
An organic light-emitting device substrate for an organic light-emitting device comprising: a base substrate ; a patterned structure formed on the base substrate , and a planarization layer disposed on the patterned structure , the planarization layer being formed from a two-dimensional material and to planarize a surface of the patterned structure , wherein the planarization layer comprises a multilayer formed from a plurality of single layers, and a thickness of the multilayer is 5 nm or less, characterised in that the patterned structure serves as a light scattering layer to scatter light that exits the organic light-emitting device to improve a light extraction efficiency of the organic light-emitting device. a base substrate ; a patterned structure formed on the base substrate , and a planarization layer disposed on the patterned structure , the planarization layer being formed from a two-dimensional material and to planarize a surface of the patterned structure , wherein the planarization layer comprises a multilayer formed from a plurality of single layers, and a thickness of the multilayer is 5 nm or less, characterised in that the patterned structure serves as a light scattering layer to scatter light that exits the organic light-emitting device to improve a light extraction efficiency of the organic light-emitting device.