mhurhangee/patent-ind-claim-en huggingface dataset:
A device for separating a substrate from a carrier substrate bonded to the substrate by a bonding layer , comprising - a carrier substrate mount with a mounting surface for mounting the carrier substrate , - a substrate mount arranged opposite the carrier substrate mount , - separating means for the parallel displacement of the substrate with respect to the carrier substrate in a bonded state of the substrate and the carrier substrate , wherein the separating means comprise a guide carriage drivable by means of a linear drive for the parallel displacement of the substrate with respect to the carrier substrate , and wherein a drive control is assigned to the linear drive, with which the speed with the parallel displacement by means of the guide carriage can be regulated with force measuring means for measuring the detachment force during the detachment, characterised in that the substrate mount comprises a substrate mounting surface , which can be arranged parallel to the mounting surface , for mounting the substrate and that the separating means comprise retaining means , i.e. stops fitted on the carrier substrate mount , said retaining means acting against the parallel displacement. - a carrier substrate mount with a mounting surface for mounting the carrier substrate , - a substrate mount arranged opposite the carrier substrate mount , - separating means for the parallel displacement of the substrate with respect to the carrier substrate in a bonded state of the substrate and the carrier substrate , wherein the separating means comprise a guide carriage drivable by means of a linear drive for the parallel displacement of the substrate with respect to the carrier substrate , and wherein a drive control is assigned to the linear drive, with which the speed with the parallel displacement by means of the guide carriage can be regulated with force measuring means for measuring the detachment force during the detachment,
A dental cartridge , in particular for insertion into an injector, having a cylinder body with a gripping shoulder at one end face and having a cylinder chamber into which dental material can be filled, with a dispensing nozzle which is arranged at an end face of the cylinder body opposite the gripping shoulder , wherein the cylinder body and the dispensing nozzle are connected via a joint , characterized in that - the joint is formed with a joint head in the form of a ball as an integral part of the dispensing nozzle and with a joint socket complementary to the joint head as an integral part of the cylinder body at the end face opposite the gripping shoulder , and in that the dispensing nozzle can be swiveled relative to the cylinder body in a three-dimensional swivel range, - wherein the diameter of the joint head is larger than the diameter of the cylinder chamber . - the joint is formed with a joint head in the form of a ball as an integral part of the dispensing nozzle and with a joint socket complementary to the joint head as an integral part of the cylinder body at the end face opposite the gripping shoulder , and in that the dispensing nozzle can be swiveled relative to the cylinder body in a three-dimensional swivel range, - wherein the diameter of the joint head is larger than the diameter of the cylinder chamber .
A load applying unit configured to apply a predetermined torque to a test piece (T1) while rotating together with the test piece (T1), the load applying unit comprising: - a stepped cylindrical casing having a cylindrically shaped motor accommodation unit , a first cylindrically shaped shaft part at one end of the stepped cylindrical casing for rotatable support by a first bearing unit , and a second cylindrically shaped shaft part at the other end of the stepped cylindrical casing for rotatable support by a second bearing unit ; a shaft part to which a slip ring of a slip ring part is attached; characterized by a pair of bearings provided on an inner circumferential surface of the first cylindrically shaped shaft part ; an electric servo motor fixedly accommodated in the cylindrical casing and having a drive shaft ; and a joint shaft having one end which is connected to the electric servo motor drive shaft and the other end which protrudes outward from the cylindrical casing and is rotatably supported by the pair of bearings . a stepped cylindrical casing having a cylindrically shaped motor accommodation unit , a first cylindrically shaped shaft part at one end of the stepped cylindrical casing for rotatable support by a first bearing unit , and a second cylindrically shaped shaft part at the other end of the stepped cylindrical casing for rotatable support by a second bearing unit ; a shaft part to which a slip ring of a slip ring part is attached; characterized by a pair of bearings provided on an inner circumferential surface of the first cylindrically shaped shaft part ; an electric servo motor fixedly accommodated in the cylindrical casing and having a drive shaft ; and a joint shaft having one end which is connected to the electric servo motor drive shaft and the other end which protrudes outward from the cylindrical casing and is rotatably supported by the pair of bearings .
An Earth terminal configured to transmit signals to a geostationary "GSO" satellite using a GSO frequency spectrum, and to transmit signals to the GSO satellite using an extended frequency spectrum, the extended frequency spectrum including the GSO frequency spectrum and a non-geostationary "NGSO" frequency spectrum, the Earth terminal being configured to be instructed by a command center to: transmit signals to the GSO satellite using only the GSO frequency spectrum, when an NGSO satellite is expected to be in-line with respect to the Earth terminal and the GSO satellite; and transmit signals to the GSO satellite using the extended frequency spectrum, when no NGSO satellite is expected to be in-line with respect to the Earth terminal and the GSO satellite. transmit signals to the GSO satellite using only the GSO frequency spectrum, when an NGSO satellite is expected to be in-line with respect to the Earth terminal and the GSO satellite; and transmit signals to the GSO satellite using the extended frequency spectrum, when no NGSO satellite is expected to be in-line with respect to the Earth terminal and the GSO satellite.
A computer-implemented method for determining migration of fluid saturations in a formation, comprising: formulating a logical reservoir model of an underground hydrocarbon-containing formation based on data of an actual underground hydrocarbon-containing formation, the reservoir model comprising a plurality of grid blocks; simulating reactions of the formation to hydrocarbon extraction over a plurality of time steps within the logical reservoir model, the simulating within each time step by: making a first approximation of migration of saturations for at least one grid block of the plurality of grid blocks of the reservoir model, wherein migration of the saturations within at least one time step spans more than one grid block; wherein the method further comprises: correcting the first approximation of migration of saturations of the reservoir model by determining a fluid flow value based on a change in saturation for the at least one of the grid blocks and by determining a fluid velocity at the interfaces of the at least one of the grid blocks, and correcting for a physical effect not considered in the first approximation. formulating a logical reservoir model of an underground hydrocarbon-containing formation based on data of an actual underground hydrocarbon-containing formation, the reservoir model comprising a plurality of grid blocks; simulating reactions of the formation to hydrocarbon extraction over a plurality of time steps within the logical reservoir model, the simulating within each time step by: making a first approximation of migration of saturations for at least one grid block of the plurality of grid blocks of the reservoir model, wherein migration of the saturations within at least one time step spans more than one grid block; wherein the method further comprises: correcting the first approximation of migration of saturations of the reservoir model by determining a fluid flow value based on a change in saturation for the at least one of the grid blocks and by determining a fluid velocity at the interfaces of the at least one of the grid blocks, and correcting for a physical effect not considered in the first approximation.
A medical apparatus comprising: - a high intensity focused ultrasound system comprising an ultrasound transducer with multiple transducer elements for focusing ultrasound into a sonication volume , wherein there is a near field region between the ultrasonic transducer and the sonication volume, wherein the multiple transducer elements are controllable in groups, and wherein portions of the near field region overlap if two or more sonication volumes are adjacent to each other and/or within a predetermined distance; - a memory for storing machine executable instructions ; - a processor for controlling the medical apparatus, wherein execution of the instructions causes the processor to: - receive location data descriptive of multiple sonication points ; - determine a sonication path for each of the multiple sonication points using a geometric transducer element model ; - detect the overlap region using the sonication path for each of the multiple sonication points, wherein the overlap region indicates an overlap of the sonication path of two or more sonication points in the near field region; - determine transducer control commands using the overlap region, wherein the transducer commands are operable to control the multiple transducer elements to reduce the deposition of ultrasonic energy in the overlap region during sonication of the two or more sonication points; and - control the high intensity focused ultrasound system to sequentially sonicate the multiple sonication points using the transducer control commands. - a high intensity focused ultrasound system comprising an ultrasound transducer with multiple transducer elements for focusing ultrasound into a sonication volume , wherein there is a near field region between the ultrasonic transducer and the sonication volume, wherein the multiple transducer elements are controllable in groups, and wherein portions of the near field region overlap if two or more sonication volumes are adjacent to each other and/or within a predetermined distance; - a memory for storing machine executable instructions ; - a processor for controlling the medical apparatus, wherein execution of the instructions causes the processor to: - receive location data descriptive of multiple sonication points ; - determine a sonication path for each of the multiple sonication points using a geometric transducer element model ; - detect the overlap region using the sonication path for each of the multiple sonication points, wherein the overlap region indicates an overlap of the sonication path of two or more sonication points in the near field region; - determine transducer control commands using the overlap region, wherein the transducer commands are operable to control the multiple transducer elements to reduce the deposition of ultrasonic energy in the overlap region during sonication of the two or more sonication points; and - control the high intensity focused ultrasound system to sequentially sonicate the multiple sonication points using the transducer control commands.
A surface cleaning apparatus , comprising: a housing including an upright handle assembly and a cleaning head mounted to the upright handle assembly and adapted for movement across a surface to be cleaned; a fluid delivery system comprising: a supply tank assembly ; a fluid dispenser provided on the cleaning head in fluid communication with the supply tank assembly; and a fluid recovery system comprising: a suction source ; a suction nozzle provided on the cleaning head in fluid communication with the suction source ; and a recovery tank container having a bottom end and a top end opposite the bottom end; characterized by a strainer removably mounted within the recovery tank container and comprising: a strainer base at the bottom end of the recovery tank container , the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container . a housing including an upright handle assembly and a cleaning head mounted to the upright handle assembly and adapted for movement across a surface to be cleaned; a fluid delivery system comprising: a supply tank assembly ; a fluid dispenser provided on the cleaning head in fluid communication with the supply tank assembly; and a supply tank assembly ; a fluid dispenser provided on the cleaning head in fluid communication with the supply tank assembly; and a fluid recovery system comprising: a suction source ; a suction nozzle provided on the cleaning head in fluid communication with the suction source ; and a recovery tank container having a bottom end and a top end opposite the bottom end; characterized by a strainer removably mounted within the recovery tank container and comprising: a strainer base at the bottom end of the recovery tank container , the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container . a suction source ; a suction nozzle provided on the cleaning head in fluid communication with the suction source ; and a recovery tank container having a bottom end and a top end opposite the bottom end; characterized by a strainer removably mounted within the recovery tank container and comprising: a strainer base at the bottom end of the recovery tank container , the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container . a strainer base at the bottom end of the recovery tank container , the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container .
A method for transmitting device-to-device, D2D, data, by a first terminal, in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, signaling related to a configuration of a zero padding operation; receiving, from the base station, a resource pool used in a D2D communication via higher layer signaling, wherein the resource pool includes at least one of a scheduling assignment, SA, resource pool related to a resource region where the SA is transmitted or a data resource pool related to a resource region where the D2D data is transmitted; receiving, from the base station, a first downlink control information, DCI, format defined for the D2D communication; generating an SA based on the received DCI format; transmitting (S4720), to a second terminal, the generated SA, wherein the generated SA includes information related to a D2D data transmission; and transmitting (S4730), to the second terminal, the D2D data, wherein the first DCI format is Cyclic Redundancy Check, CRC, scrambled by a specific Radio Network Temporary Identifier, RNTI, wherein the specific RNTI is a D2D RNTI, wherein at least one padding bit is appended until a size of the first DCI format is equal to a size of a DCI format 0, and wherein the at least one padding bit is appended based on the received RRC signaling if the first terminal receives a signal related to an activation of the zero padding operation. receiving, from a base station, a radio resource control, RRC, signaling related to a configuration of a zero padding operation; receiving, from the base station, a resource pool used in a D2D communication via higher layer signaling, wherein the resource pool includes at least one of a scheduling assignment, SA, resource pool related to a resource region where the SA is transmitted or a data resource pool related to a resource region where the D2D data is transmitted; receiving, from the base station, a first downlink control information, DCI, format defined for the D2D communication; generating an SA based on the received DCI format; transmitting (S4720), to a second terminal, the generated SA, wherein the generated SA includes information related to a D2D data transmission; and transmitting (S4730), to the second terminal, the D2D data, wherein the first DCI format is Cyclic Redundancy Check, CRC, scrambled by a specific Radio Network Temporary Identifier, RNTI, wherein the specific RNTI is a D2D RNTI, wherein at least one padding bit is appended until a size of the first DCI format is equal to a size of a DCI format 0, and wherein the at least one padding bit is appended based on the received RRC signaling if the first terminal receives a signal related to an activation of the zero padding operation.
A pixel comprising - a semiconductor body having a first surface configured as an entrance surface and a light-capturing region configured for capturing light incident on the first surface ; - a structured interface arranged on a side of the pixel that comprises the first surface , or on a side of the pixel facing away from the first surface ; - isolation layers on at least two surfaces of the semiconductor body that are perpendicular to the first surface ; and - a filter element arranged at a distance from the first surface such that light incident on the first surface at an angle of incidence (α) smaller than a critical angle (αc) impinges on the filter element and has to traverse the filter element before entering the semiconductor body , wherein - the filter element is configured to reflect light if the angle of incidence (α) is larger than the critical value (αc) and to transmit light if the angle of incidence (α) is less than or equal to the critical value (αc). - a semiconductor body having a first surface configured as an entrance surface and a light-capturing region configured for capturing light incident on the first surface ; - a structured interface arranged on a side of the pixel that comprises the first surface , or on a side of the pixel facing away from the first surface ; - isolation layers on at least two surfaces of the semiconductor body that are perpendicular to the first surface ; and - a filter element arranged at a distance from the first surface such that light incident on the first surface at an angle of incidence (α) smaller than a critical angle (αc) impinges on the filter element and has to traverse the filter element before entering the semiconductor body , wherein - the filter element is configured to reflect light if the angle of incidence (α) is larger than the critical value (αc) and to transmit light if the angle of incidence (α) is less than or equal to the critical value (αc).
An agent that inhibits HER2 for use in a method of treating a subject having a micropapillary carcinoma, wherein the carcinoma comprises an alteration in HER2, wherein the alteration is a substitution at residue 310 of HER2 or a substitution at residue 157 of HER2.
Temporary cooling device , comprising: - a structure comprising a frame and a base supporting the frame ; and - a system for cooling the air nearby the structure, comprising a connector for connecting to an inlet for supplying fluid characterized in that the device comprises: - a plurality of seats positioned close to the base, each system comprising the system for cooling the air nearby the structure and acting as heat exchanger between the fluid and the ambient air, wherein at least one seat surrounds the base at least partially, the device comprises: - - at least one line for transporting the fluid in at least two seats, the transport lines of at least two seats being connected to each other; and/or - - a connector comprising a transport line connected to a transport line of at least two seats , wherein the base comprises a line for transporting fluid towards the frame , wherein the transport line of the base and the transport line of at least two seats are linked, the device comprising a means for diffusing fluid at the location of the frame and a flowmeter for the fluid diffused at the location of the frame , the fluid supply connector being activated as a function of the diffused fluid flow rate measured by the flowmeter. - a structure comprising a frame and a base supporting the frame ; and - a system for cooling the air nearby the structure, comprising a connector for connecting to an inlet for supplying fluid - a plurality of seats positioned close to the base, each system comprising the system for cooling the air nearby the structure and acting as heat exchanger between the fluid and the ambient air, wherein at least one seat surrounds the base at least partially, - - at least one line for transporting the fluid in at least two seats, the transport lines of at least two seats being connected to each other; and/or - - a connector comprising a transport line connected to a transport line of at least two seats ,
A rail vehicle having a device for measuring wheel vertical forces (Q 1 -Q 8 ) of the rail vehicle comprising an undercarriage and at least two bogies coupled to the undercarriage , wherein each bogie has a bogie frame and respectively at least two wheel axles, mounted through primary spring systems in an axle bearing housing, having wheels , wherein the primary spring systems are arranged between the bogie frame and the axle bearing housing, wherein the device has an evaluation unit and per wheel at least one strain gauge sensor (22a-d, 22e-h), which is connected to the evaluation unit , characterized in that the strain gauge sensors (22a-h) are attached at the sensitive locations on the bogie frame of the respective bogie , which are assigned to the respective wheel vertical force of the respective strain gauge sensor (22a-h), wherein the evaluation unit is configured to determine the wheel vertical force in each wheel by way of the measurement signals of the strain gauge sensors (22a-h).
A dopant gas composition comprising: a boron-containing dopant gas composition comprising diborane (B 2 H 6 ) at a level ranging from 0.1 vol.% - 10 vol.%, H 2 ranging from 5 vol.% - 15 vol.% and the balance is BF 3 , wherein at a selected operating arc voltage in the range of from 80 V to 120 V of an ion source utilized during generation and implantation of boron ions of the general formula B+ said B 2 H 6 has an ionization cross-section higher than that of said BF 3 ; wherein said boron-containing dopant gas composition increases boron ion beam current and extends ion source life in comparison to a beam current generated from boron trifluoride (BF 3 ). a boron-containing dopant gas composition comprising diborane (B 2 H 6 ) at a level ranging from 0.1 vol.% - 10 vol.%, H 2 ranging from 5 vol.% - 15 vol.% and the balance is BF 3 , wherein at a selected operating arc voltage in the range of from 80 V to 120 V of an ion source utilized during generation and implantation of boron ions of the general formula B+ said B 2 H 6 has an ionization cross-section higher than that of said BF 3 ; wherein said boron-containing dopant gas composition increases boron ion beam current and extends ion source life in comparison to a beam current generated from boron trifluoride (BF 3 ).