mhurhangee/patent-ind-claim-en huggingface dataset:
A microwave applicator having a longitudinal axis for connection to a generator having a generator impedance Z G , the microwave applicator comprising: a first transmission line segment including a first inner conductor and a first outer conductor circumscribing the first inner conductor, the first outer conductor having a first outer diameter, the first transmission line segment having an impedance Z 1 equal to the generator impedance Z G ; a second transmission line segment including a second inner conductor and a second outer conductor circumscribing the second inner conductor, the second outer conductor having a second outer diameter less than the first outer diameter; and a third transmission line segment including a third inner conductor , a third outer conductor circumscribing the third inner conductor, the third outer conductor having a third outer diameter less than the second outer diameter, and a dielectric material disposed between the third inner conductor and the third outer conductor, the dielectric material extending distally beyond a distal end of the third outer conductor; wherein the junction of the first transmission line segment and the second transmission line segment has a junction impedance of Z LOAD ; wherein the length ( l 3 ) of the third transmission line segment is selected so as to provide impedance matching of the junction impedance Z LOAD to the impedance Z1 of the first transmission line segment and therefore to the generator impedance Z G . a first transmission line segment including a first inner conductor and a first outer conductor circumscribing the first inner conductor, the first outer conductor having a first outer diameter, the first transmission line segment having an impedance Z 1 equal to the generator impedance Z G ; a second transmission line segment including a second inner conductor and a second outer conductor circumscribing the second inner conductor, the second outer conductor having a second outer diameter less than the first outer diameter; and a third transmission line segment including a third inner conductor , a third outer conductor circumscribing the third inner conductor, the third outer conductor having a third outer diameter less than the second outer diameter, and a dielectric material disposed between the third inner conductor and the third outer conductor, the dielectric material extending distally beyond a distal end of the third outer conductor; wherein the junction of the first transmission line segment and the second transmission line segment has a junction impedance of Z LOAD ; wherein the length ( l 3 ) of the third transmission line segment is selected so as to provide impedance matching of the junction impedance Z LOAD to the impedance Z1 of the first transmission line segment and therefore to the generator impedance Z G .
A method of wireless communication, comprising: determining , at a network entity, a synchronization channel raster corresponding to a set of frequencies; and transmitting , from the network entity, one or more synchronization signals and a physical broadcast channel, PBCH, in a frequency of the set of frequencies of the synchronization channel raster to at least one user equipment, UE, wherein a master information block, MIB, of the PBCH includes a first portion of bits indicating a common control subband for carrying minimum system information block, MSIB, scheduling information, wherein the common control subband corresponds to a common search space physical downlink control channel, PDCCH, wherein the MSIB scheduling information includes at least one of a location information corresponding to a frequency of the set of frequencies of the synchronization channel raster where the one or more synchronization signals are transmitted, a numerology, and a bandwidth. determining , at a network entity, a synchronization channel raster corresponding to a set of frequencies; and transmitting , from the network entity, one or more synchronization signals and a physical broadcast channel, PBCH, in a frequency of the set of frequencies of the synchronization channel raster to at least one user equipment, UE, wherein a master information block, MIB, of the PBCH includes a first portion of bits indicating a common control subband for carrying minimum system information block, MSIB, scheduling information, wherein the common control subband corresponds to a common search space physical downlink control channel, PDCCH, wherein the MSIB scheduling information includes at least one of a location information corresponding to a frequency of the set of frequencies of the synchronization channel raster where the one or more synchronization signals are transmitted, a numerology, and a bandwidth.
Safety system for fail-safe securing the environment of at least one object , the safety system comprising a first safety laser scanner associated with a first defined reference target and a second safety laser scanner associated with a second defined reference target, a safety laser scanner comprises: - a light transmitter , - a light deflection unit for periodically deflecting the light into a scanning plane, - a receiver for providing reception signals in dependence on light remitted from objects present in the field of view of the scanner, - and an evaluation unit for evaluating the received signals with respect to angle and distance of the object and for providing a safety signal, characterized in that the scanning planes of both scanners are coplanar and the first scanner (16, 116 and 18, 118 respectively) forms the second reference target and the second scanner (118, 18 and 116, 16 respectively) forms the first reference target. - a light transmitter , - a light deflection unit for periodically deflecting the light into a scanning plane, - a receiver for providing reception signals in dependence on light remitted from objects present in the field of view of the scanner, - and an evaluation unit for evaluating the received signals with respect to angle and distance of the object and for providing a safety signal,
A substrate, comprising; a plurality of embossed grooves; a line of material provided in the vicinity of at least one of the embossed grooves; wherein in a first region of the substrate, the line of material has a fixed positional relationship with at least one of the embossed grooves to provide a first visual effect when the substrate is viewed from a first angle, and a second visual effect when the substrate is viewed from a second angle; wherein in a second region of the substrate, there is a deviation in the fixed positional relationship between the line of material and the at least one of the plurality of embossed grooves to provide a third visual effect in the second region when the substrate is viewed from the first angle and a fourth visual effect when the substrate is viewed from the second angle; characterised in that further material is provided on one or more relatively flat regions of the substrate located between adjacent grooves, the further material across a plurality of such flat regions constituting a fixed image that is substantially visible regardless of the viewing angle due to being located on those flat regions, the third and fourth visual effects constituting a variable image the visibility of which varies more than the fixed image with viewing angle.
Method for parallel processing of data (D) in a computer system • having a number of computer units (K1 to K4), wherein the cores of a multicore processor (M) are used as computer units (K1 to K4), • and a voter facility (V) arranged downstream hereof, wherein • for its storage the data (D) is encoded in a computer unit-specific manner and in each case is stored together in computer-unit specific storage units to form computer-unit specific blocks (B1 to B4), wherein a memory (S) common to all computer units (K1 to K4) is used as storage units, • following its storage the data (D) is fed to each computer unit (K1 to K4) and in the computer units (K1 to K4) a calculation signature (BS1 to BS4) is determined in each case separately with each computer cycle using storage addresses taken into account in terms of command and a respectively assigned register value, • the determined calculation signatures (BS1 to BS4) of the computer units (K1 to K4) are fed to the voter facility (V), and • the voter facility (V) signals an identical data processing when the calculation signatures (BS1 to BS4) match the number of computer units (K1 to K4). • having a number of computer units (K1 to K4), wherein the cores of a multicore processor (M) are used as computer units (K1 to K4), • and a voter facility (V) arranged downstream hereof, wherein • for its storage the data (D) is encoded in a computer unit-specific manner and in each case is stored together in computer-unit specific storage units to form computer-unit specific blocks (B1 to B4), wherein a memory (S) common to all computer units (K1 to K4) is used as storage units, • following its storage the data (D) is fed to each computer unit (K1 to K4) and in the computer units (K1 to K4) a calculation signature (BS1 to BS4) is determined in each case separately with each computer cycle using storage addresses taken into account in terms of command and a respectively assigned register value, • the determined calculation signatures (BS1 to BS4) of the computer units (K1 to K4) are fed to the voter facility (V), and • the voter facility (V) signals an identical data processing when the calculation signatures (BS1 to BS4) match the number of computer units (K1 to K4).
Gripping device comprising a base part and a contact surface toward which a workpiece can be brought for gripping, and comprising gripping means provided on the contact surface for exerting a holding force on the workpiece , characterized in that the contact surface is designed as a plate-like component made of an electrically conductive material and in that a measuring device is provided which is designed to measure the electrical capacitance of the contact surface with respect to the base part , the contact surface being electrically insulated with respect to the base part .
A coin transport mechanism comprising: a first coin rotor including at least one coin receptacle for receiving a coin; a second coin rotor including at least one coin receptacle , the second coin rotor disposed proximal to the first coin rotor; a coin sensor adapted to provide signals indicative of coin characteristics; a coin output path ; and wherein the first coin rotor is noncoplanar with the second coin rotor and includes a gated coin aperture, and wherein the second coin rotor is adapted to transport coins from a coin hopper to the first coin rotor wherein the first coin rotor is housed within a coin receiving compartment disposed within the coin hopper that communicates with a coin input conduit , wherein the first coin rotor includes a plurality of radially projecting arm members which upon rotation of said first coin rotor traverse a substantially circular coin path disposed circumferentially of the first coin rotor and traversing said coin sensor , wherein the substantially circular coin path includes at least one diverter member for guiding a coin from the substantially circular coin path to the coin output path , wherein a coin expelled from the gated coin aperture is urged to traverse the substantially circular coin path by one of the plurality of radially projecting arm members acting upon the coin under rotation of the first coin rotor , wherein the substantially circular coin path includes a retractable coin ejector, and wherein operation of the retractable coin ejector on a traversing coin ejects said coin out of the substantially circular coin path into the coin hopper. a first coin rotor including at least one coin receptacle for receiving a coin; a second coin rotor including at least one coin receptacle , the second coin rotor disposed proximal to the first coin rotor; a coin sensor adapted to provide signals indicative of coin characteristics; a coin output path ; and wherein the first coin rotor is noncoplanar with the second coin rotor and includes a gated coin aperture, and wherein the second coin rotor is adapted to transport coins from a coin hopper to the first coin rotor wherein the first coin rotor is housed within a coin receiving compartment disposed within the coin hopper that communicates with a coin input conduit , wherein the first coin rotor includes a plurality of radially projecting arm members which upon rotation of said first coin rotor traverse a substantially circular coin path disposed circumferentially of the first coin rotor and traversing said coin sensor , wherein the substantially circular coin path includes at least one diverter member for guiding a coin from the substantially circular coin path to the coin output path , wherein a coin expelled from the gated coin aperture is urged to traverse the substantially circular coin path by one of the plurality of radially projecting arm members acting upon the coin under rotation of the first coin rotor , wherein the substantially circular coin path includes a retractable coin ejector, and wherein operation of the retractable coin ejector on a traversing coin ejects said coin out of the substantially circular coin path into the coin hopper.
A load-carrying, vibration-damping and sound-insulating sill-pad for placement between two building elements, in the form of an extruded, preferably co-extruded, profile, comprising: a load-carrying base block made of rubber, and at least one sealing lip made of rubber and formed on said base block , wherein said base block has a U-shaped cross-section, comprising a first load-carrying section a second load-carrying section , and a joining section , said first load-carrying section and said second load-carrying section being transversally spaced and joined by said joining section , so that a gap for a fire swelling strip or a reinforcement strip is formed between said first load-carrying section and said-second load-carrying section, characterized in that the sill-pad further comprises at least one sealing lip made of rubber and formed on said base block , wherein said base block is made of rubber having a first hardness, wherein said at least one sealing lip is made of rubber having a second hardness, wherein said second hardness is different from said first hardness and preferably is lower than said first hardness. a load-carrying base block made of rubber, and at least one sealing lip made of rubber and formed on said base block , wherein said base block has a U-shaped cross-section, comprising a first load-carrying section a second load-carrying section , and a joining section , said first load-carrying section and said second load-carrying section being transversally spaced and joined by said joining section , so that a gap for a fire swelling strip or a reinforcement strip is formed between said first load-carrying section and said-second load-carrying section, characterized in that the sill-pad further comprises at least one sealing lip made of rubber and formed on said base block , wherein said base block is made of rubber having a first hardness, wherein said at least one sealing lip is made of rubber having a second hardness, wherein said second hardness is different from said first hardness and preferably is lower than said first hardness.
An adaptive cruise control system for controlling speed of a vehicle (H) in relation to moving or stationary objects (A', B') by accelerating or retarding the vehicle (H), said system comprising: a vehicle throttle controller , a vehicle braking system controller , at least one object detection sensor arranged to detect moving or stationary objects (A', B') in the surroundings in front of said vehicle (H), and a control unit configured to control the speed of said vehicle (H) in relation to a selected one of the detected moving or stationary objects (A', B') by controlling the throttle controller and the vehicle braking system controller , said adaptive cruise control system further comprising: a steering system with a steering wheel arranged to allow the provision of manual steering input to the steering system of the vehicle (H) and a steering angle sensor , characterized in that the steering system is configured to identify a specific momentary manual steering wheel actuation for target object selection initiated as a result of a steering wheel actuation of a threshold magnitude out from and back to a steering wheel neutral position within a threshold time duration, wherein the neutral position is a position in which the host vehicle is driven substantially straight ahead without turning so that the specific momentary manual steering wheel actuation is differentiable from a steering wheel actuation for change of vehicle (H) driving directions, by comparing data from the steering angle sensor with predetermined thresholds, and to select a next one of the moving or stationary objects (A', B') in the surroundings in front of said vehicle (H) to control the speed of said vehicle (H) in relation to, based on the direction of the specific momentary manual steering wheel actuation indicated by the steering angle sensor .
A pump system , comprising: a vibration actuator which can be electromagnetically driven by applying an alternating-current voltage (E) thereto; a sealed chamber connected to a suction port and a discharge port ; a movable wall for changing a volume of the sealed chamber ; a cuff to be attached to a measurement target part of a user; a pressure sensor for detecting pressure in the cuff ; and a control device for controlling drive of the vibration actuator based on the pressure in the cuff detected by the pressure sensor , wherein the movable wall is displaced due to the drive of the vibration actuator to supply fluid in the sealed chamber into the cuff , wherein the control device is configured to calculate a target effective value of the alternating-current voltage (E) for allowing an amplitude (Y) of the vibration actuator to be a target amplitude (Yt) based on the pressure in the cuff detected by the pressure sensor and control the alternating-current voltage (E) so that an effective value of the alternating-current voltage (E) coincides with the target effective value. a vibration actuator which can be electromagnetically driven by applying an alternating-current voltage (E) thereto; a sealed chamber connected to a suction port and a discharge port ; a movable wall for changing a volume of the sealed chamber ; a cuff to be attached to a measurement target part of a user; a pressure sensor for detecting pressure in the cuff ; and a control device for controlling drive of the vibration actuator based on the pressure in the cuff detected by the pressure sensor , wherein the movable wall is displaced due to the drive of the vibration actuator to supply fluid in the sealed chamber into the cuff , wherein the control device is configured to calculate a target effective value of the alternating-current voltage (E) for allowing an amplitude (Y) of the vibration actuator to be a target amplitude (Yt) based on the pressure in the cuff detected by the pressure sensor and control the alternating-current voltage (E) so that an effective value of the alternating-current voltage (E) coincides with the target effective value.
A combination comprising hyaluronic acid, or a pharmaceutically acceptable salt thereof, and xylitol, for use in the treatment of disrupted nasal mucosa and nasal epithelial barrier, wherein the treatment comprises a reduction in the formation of nasal crusts in comparison to non-treatment.
A treatment probe for treating an eye of a patient, the eye having a sclera, the treatment probe comprising: an elongate body defining a handle having a proximal end and a distal end; a treatment fiber housed in the elongate body and configured for delivering treatment light energy to the eye from a distal end of the treatment fiber; and a contact member disposed on an end of the elongate body, the contact member including: a contact surface for positioning on a surface of the eye; two side edges that are positioned on opposite sides of the contact surface; characterised in that the probe further comprises a fluid channel; wherein the contact surface conforms to the shape of the sclera and the two side edges are shaped to direct fluid on the surface of the eye toward the fluid channel when the contact member is moved laterally across the surface of the eye such that the fluid aggregates within the fluid channel and contacts the distal end of the treatment fiber. an elongate body defining a handle having a proximal end and a distal end; a treatment fiber housed in the elongate body and configured for delivering treatment light energy to the eye from a distal end of the treatment fiber; and a contact member disposed on an end of the elongate body, the contact member including: a contact surface for positioning on a surface of the eye; two side edges that are positioned on opposite sides of the contact surface; a contact surface for positioning on a surface of the eye; two side edges that are positioned on opposite sides of the contact surface; characterised in that the probe further comprises a fluid channel; wherein the contact surface conforms to the shape of the sclera and the two side edges are shaped to direct fluid on the surface of the eye toward the fluid channel when the contact member is moved laterally across the surface of the eye such that the fluid aggregates within the fluid channel and contacts the distal end of the treatment fiber.
A combustion device comprising a burner , a combustion chamber downstream of the burner , a lance projecting into the burner for fuel and air injection, a main distribution plenum , an inner plenum ; an outer plenum that houses the inner plenum and the burner ; the inner plenum being connected to the burner to supply air (F3) to the burner ; the outer plenum being connected to the lance to supply air (F4) to the lance ; characterized in that , the main distribution plenum being configured for supply air received from a compressor bleed to the outer plenum at a first flow rate (F8) and to the inner plenum at a second flow rate (F1) that is greater than the first flow rate (F8); a first row of turbine vanes downstream the combustion chamber and an outlet plenum configured to supply air received from the main distribution plenum to outlet guide vanes upstream the burner ; wherein the main distribution plenum , the inner plenum and the outer plenum are configured such that a pressure at which air is fed to the lance is higher than a pressure within the inner plenum .