mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger in which heat is exchanged between refrigerant flowing inside and air flowing outside, the heat exchanger comprising: at least one upstream-side flat tube ; at least two downstream-side flat tubes on a downstream side of the upstream-side flat tube in a direction of air flow; and a space formation member that defines distribution space in which the refrigerant coming out of the upstream-side flat tube is distributed to the at least two downstream-side flat tubes, characterized in that the downstream-side flat tubes include at least one first downstream-side flat tube and at least one second downstream-side flat tube on a downstream side of the first downstream-side flat tube in the direction of air flow, wherein a first communicating channel and a second communicating channel are provided in the distribution space to lead the refrigerant coming out of the upstream-side flat tube to the first downstream-side flat tube and the second downstream-side flat tube , respectively, and a flow path defined by the first communicating channel is wider than a flow path defined by the second communicating channel . at least one upstream-side flat tube ; at least two downstream-side flat tubes on a downstream side of the upstream-side flat tube in a direction of air flow; and a space formation member that defines distribution space in which the refrigerant coming out of the upstream-side flat tube is distributed to the at least two downstream-side flat tubes, characterized in that the downstream-side flat tubes include at least one first downstream-side flat tube and at least one second downstream-side flat tube on a downstream side of the first downstream-side flat tube in the direction of air flow, wherein a first communicating channel and a second communicating channel are provided in the distribution space to lead the refrigerant coming out of the upstream-side flat tube to the first downstream-side flat tube and the second downstream-side flat tube , respectively, and a flow path defined by the first communicating channel is wider than a flow path defined by the second communicating channel .
A quick-action screw coupling for connecting multi-part assemblies that can be fixed in place in different positions relative to one another, in particular assemblies for electrical engineering devices or applications, consisting of a first connecting part, configured as a threaded rod or a screw or bolt , each having an external thread, and a second connecting part, configured as a counter piece or a nut, each having an internal thread that is complementary to the external thread, wherein both the external thread and the internal thread are cleared or flattened on at least two opposing longitudinal sides (2; 3, 10; 11) extending in the screwing direction, wherein further the counter piece or the nut is split into at least a first and a second nut piece transversely to the screwing direction, wherein the first and second nut pieces (4; 5) can be rotated and clamped with respect to each other by means of an external/internal thread pair (6; 7), characterized in that the nut pieces (4; 5) each have a slot formed in the longitudinal direction for lateral fitting onto the respective threaded rod or screw, such that the structure consisting of the first and second nut pieces (4; 5) can be slid onto the threaded rod from the side.
An apparatus for wireless communication at a base station, comprising: a memory; and at least one processor coupled to the memory and configured to: configure a user equipment, UE to receive multiple repetitions of a transmission using a slot aggregation; indicate to the UE one or more beams used for each repetition of the transmission; and transmit the multiple repetitions of the transmission based on the one or more beams indicated to the UE; whereby at least one of the multiple repetitions of the transmission is transmitted in a slot based on single frequency network, SFN, operation using more than one beams, characterized in that at least one of the multiple repetitions of the transmission is transmitted in a slot based on non-SFN operation using a single beam. a memory; and at least one processor coupled to the memory and configured to: configure a user equipment, UE to receive multiple repetitions of a transmission using a slot aggregation; indicate to the UE one or more beams used for each repetition of the transmission; and transmit the multiple repetitions of the transmission based on the one or more beams indicated to the UE; whereby at least one of the multiple repetitions of the transmission is transmitted in a slot based on single frequency network, SFN, operation using more than one beams, characterized in that at least one of the multiple repetitions of the transmission is transmitted in a slot based on non-SFN operation using a single beam. configure a user equipment, UE to receive multiple repetitions of a transmission using a slot aggregation; indicate to the UE one or more beams used for each repetition of the transmission; and transmit the multiple repetitions of the transmission based on the one or more beams indicated to the UE; whereby at least one of the multiple repetitions of the transmission is transmitted in a slot based on single frequency network, SFN, operation using more than one beams, characterized in that at least one of the multiple repetitions of the transmission is transmitted in a slot based on non-SFN operation using a single beam.
Electrical connector having a plastic moulded body defining a central main member for engaging a complementary connector and, two lateral mounting bush each being provided with a hole for engaging a fixation screw tightened in a face of a fuel injector and wherein, a knock sensor adapted to deliver data representative of the operation of said fuel injector is integrally overmoulded in one of the mounting bush , said knock sensor comprising a piezoelectric member arranged between a base member and a seismic member and, wherein said piezoelectric , base and seismic members have a washer-like shape defining a hole extending throughout the sensor and arranged aligned with the bush hole so that, in use, the fixation screw extends through the sensor and, wherein, when tightened, the fixation screw generates a compression force in the piezoelectric member .
Arrangement for determining the magnitude of a current (I S ) flowing through a busbar, with - a busbar , - a measurement conductor which is electrically connected to the busbar at a first contact point (A) and which extends from the first contact point (A) to a second contact point (B), - a third contact point (C) which is arranged at the busbar spaced apart from the first contact point (A), - a voltage measurement device which is set up for measuring a voltage which occurs between the second contact point (B) and the third contact point (C), and - a controlled current source which is set up for introducing a measurement current (I L ) into the measurement conductor, characterized in that - the magnitude of the measurement current (I L ) is controlled in such a way that the voltage which occurs between the second contact point (B) and the third contact point (C) assumes a preselected value, in particular the value zero, and - the arrangement has an evaluation device which determines the magnitude of the current (I S ) flowing through the busbar from the magnitude of the measurement current (I L ), the cross-sectional area of the measurement conductor which is effective for the current line and the cross-sectional area of the busbar which is effective for the current line. - a busbar , - a measurement conductor which is electrically connected to the busbar at a first contact point (A) and which extends from the first contact point (A) to a second contact point (B), - a third contact point (C) which is arranged at the busbar spaced apart from the first contact point (A), - a voltage measurement device which is set up for measuring a voltage which occurs between the second contact point (B) and the third contact point (C), and - a controlled current source which is set up for introducing a measurement current (I L ) into the measurement conductor, - the magnitude of the measurement current (I L ) is controlled in such a way that the voltage which occurs between the second contact point (B) and the third contact point (C) assumes a preselected value, in particular the value zero, and - the arrangement has an evaluation device which determines the magnitude of the current (I S ) flowing through the busbar from the magnitude of the measurement current (I L ), the cross-sectional area of the measurement conductor which is effective for the current line and the cross-sectional area of the busbar which is effective for the current line.
A rotor blade shell for a rotor blade of a wind turbine , including: - a rotor blade shell body having a recess surrounding an interior space of the rotor blade and including an outer side facing away from the interior space , - an overvoltage protection device having a first connection and a second connection , characterized in that the overvoltage protection device is completely arranged within the recess and is electrically contactable from the interior space or the outer side of the rotor blade shell . - a rotor blade shell body having a recess surrounding an interior space of the rotor blade and including an outer side facing away from the interior space , - an overvoltage protection device having a first connection and a second connection , characterized in that the overvoltage protection device is completely arranged within the recess and is electrically contactable from the interior space or the outer side of the rotor blade shell .
Method for protecting confidential data, wherein - the data are stored in a memory of a chip card , - a status information item is associated with the data stored in a file and is stored in an appurtenant additional file , and - the status information item stored in the appurtenant status file is modified upon the first read access to the data, wherein the data stored in the file and the status information item stored in the appurtenant additional file are accessed only by means of a processing unit of the chip card . - the data are stored in a memory of a chip card , - a status information item is associated with the data stored in a file and is stored in an appurtenant additional file , and - the status information item stored in the appurtenant status file is modified upon the first read access to the data, wherein the data stored in the file and the status information item stored in the appurtenant additional file are accessed only by means of a processing unit of the chip card .
A DNA molecule comprising a DNA sequence selected from the group consisting of: a) a sequence with at least 85 percent sequence identity to SEQ ID NO: 627 and having the gene-regulatory activity of SEQ ID NO:627; b) a sequence comprising SEQ ID NO: 627; and c) a fragment of SEQ ID NO: 627, wherein the fragment has the gene-regulatory activity of SEQ ID NO:627; wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule. a) a sequence with at least 85 percent sequence identity to SEQ ID NO: 627 and having the gene-regulatory activity of SEQ ID NO:627; b) a sequence comprising SEQ ID NO: 627; and c) a fragment of SEQ ID NO: 627, wherein the fragment has the gene-regulatory activity of SEQ ID NO:627;
A method for monitoring alignment of a sensor in an automotive detection system , comprising: transmitting transmitted signals into a region; receiving reflected signals generated by reflection of the transmitted signals and generating receive signals indicative of the reflected signals; receiving the receive signals; processing the receive signals to generate detections of one or more objects in the region, each of the detections being associated with a position in a two-dimensional orthogonal coordinate system in a plane in which the sensor is moving; characterized in that the method comprises detecting a pattern of detections within a plurality of thin rectangles superimposed over the two-dimensional orthogonal coordinate system; rotating the thin rectangles through a series of angles, and at each of the series of angles, counting a number of the detections within each rectangle, determining an angle of an axis of the thin rectangles with respect to a reference direction in the two-dimensional orthogonal coordinate system at which the count is at a maximum; and determining an angle of misalignment of the sensor from the angle at which the count is at a maximum with respect to the reference direction. transmitting transmitted signals into a region; receiving reflected signals generated by reflection of the transmitted signals and generating receive signals indicative of the reflected signals; receiving the receive signals; processing the receive signals to generate detections of one or more objects in the region, each of the detections being associated with a position in a two-dimensional orthogonal coordinate system in a plane in which the sensor is moving; characterized in that the method comprises detecting a pattern of detections within a plurality of thin rectangles superimposed over the two-dimensional orthogonal coordinate system; rotating the thin rectangles through a series of angles, and at each of the series of angles, counting a number of the detections within each rectangle, determining an angle of an axis of the thin rectangles with respect to a reference direction in the two-dimensional orthogonal coordinate system at which the count is at a maximum; and determining an angle of misalignment of the sensor from the angle at which the count is at a maximum with respect to the reference direction.
An aerial vehicle , comprising: a fuselage ; six motor arms coupled to and extending from the fuselage; six motors , each motor coupled to a respective motor arm and positioned around the fuselage; six propellers , each propeller coupled to and configured to be rotated by a respective motor, wherein at least one propeller blade of the six propellers comprises at least one of a flap , a protrusion , or a modifiable section configured to adjust the at least one propeller blade between a first configuration and a second configuration to modify torque associated with the at least one propeller blade; a ring wing coupled to outer ends of the six motor arms and positioned around the fuselage, the six motors, and the six propellers; and a controller configured to at least: detect a fault associated with a first motor of the six motors, a blade of the six propellers, and/or a propeller of the six propellers; and responsive to the detected fault, adjust the at least one of the flap, the protrusion, or the modifiable section of the at least one propeller blade, wherein the first configuration is associated with normal operation of the aerial vehicle and the second configuration is associated with degraded operation of the aerial vehicle caused by the fault. a fuselage ; six motor arms coupled to and extending from the fuselage; six motors , each motor coupled to a respective motor arm and positioned around the fuselage; six propellers , each propeller coupled to and configured to be rotated by a respective motor, wherein at least one propeller blade of the six propellers comprises at least one of a flap , a protrusion , or a modifiable section configured to adjust the at least one propeller blade between a first configuration and a second configuration to modify torque associated with the at least one propeller blade; a ring wing coupled to outer ends of the six motor arms and positioned around the fuselage, the six motors, and the six propellers; and a controller configured to at least: detect a fault associated with a first motor of the six motors, a blade of the six propellers, and/or a propeller of the six propellers; and responsive to the detected fault, adjust the at least one of the flap, the protrusion, or the modifiable section of the at least one propeller blade, detect a fault associated with a first motor of the six motors, a blade of the six propellers, and/or a propeller of the six propellers; and responsive to the detected fault, adjust the at least one of the flap, the protrusion, or the modifiable section of the at least one propeller blade, wherein the first configuration is associated with normal operation of the aerial vehicle and the second configuration is associated with degraded operation of the aerial vehicle caused by the fault.
Apparatus for treating a vehicle surface with a fluid , having a rotation device pivotably mounted about an axis of rotation (D) and a fluid supply device which is disposed concentrically with respect to the rotation device and which has an inlet opening for the supply of fluid, characterized in that a groove is formed in the fluid supply device , said groove being fluidically connected to the inlet opening and extending in the circumferential direction (U) with respect to the axis of rotation (D) over a limited circumferential angular range (Δα) of the fluid supply device , and the rotation device has a plurality of separate fluid channels , each of which opens into openings , said openings being disposed in such a manner that, irrespective of the angular position of the rotation device to the fluid supply device with respect to the axis of rotation (D), at least one of the openings of the rotation device is fluidically connected to the groove of the fluid supply device . a rotation device pivotably mounted about an axis of rotation (D) and a fluid supply device which is disposed concentrically with respect to the rotation device and which has an inlet opening for the supply of fluid, a groove is formed in the fluid supply device , said groove being fluidically connected to the inlet opening and extending in the circumferential direction (U) with respect to the axis of rotation (D) over a limited circumferential angular range (Δα) of the fluid supply device , and the rotation device has a plurality of separate fluid channels , each of which opens into openings , said openings being disposed in such a manner that, irrespective of the angular position of the rotation device to the fluid supply device with respect to the axis of rotation (D), at least one of the openings of the rotation device is fluidically connected to the groove of the fluid supply device .
A method for dynamically balancing processing of sensor-based data and signals in vehicles, comprising the following operations performed via one or more processors associated with a device within the vehicle: receiving signals associated with sensors in the vehicle, transmitting the signals over a network, to a control center, for offboard processing; making a request for authorization to process the signals onboard the vehicle; receiving a response to the request; and selectively processing the signals onboard the vehicle based on the response, characterised in that the request is made in response to an increase in required processing at the control center, and in that the increase in required processing is determined based on at least one of a location of the vehicle, a weather condition, a traffic condition, a meteo condition, and historical driver behavior. receiving signals associated with sensors in the vehicle, transmitting the signals over a network, to a control center, for offboard processing; making a request for authorization to process the signals onboard the vehicle; receiving a response to the request; and selectively processing the signals onboard the vehicle based on the response,
A waveguide comprising: at least one waveguide substrate ; at least one grating including a degree of birefringence; at least one birefringence compensation layer comprising at least one stack of refractive index layers disposed on at least one optical surface of the waveguide, wherein at least one layer in the stack of refractive index layers has an isotropic refractive index and at least one layer in the stack of refractive index layers has an anisotropic refractive index, and wherein each layer of the at least one stack of refractive index layers extends in a direction parallel to the extending direction of the at least one waveguide substrate; a light source for outputting light; an input coupler for directing the light into total internal reflection paths within the waveguide; and an output coupler for extracting light from the waveguide, wherein the interaction of the light with the birefringence compensation layer and the grating provides a predefined characteristic of light extracted from the waveguide. at least one waveguide substrate ; at least one grating including a degree of birefringence; at least one birefringence compensation layer comprising at least one stack of refractive index layers disposed on at least one optical surface of the waveguide, wherein at least one layer in the stack of refractive index layers has an isotropic refractive index and at least one layer in the stack of refractive index layers has an anisotropic refractive index, and wherein each layer of the at least one stack of refractive index layers extends in a direction parallel to the extending direction of the at least one waveguide substrate; a light source for outputting light; an input coupler for directing the light into total internal reflection paths within the waveguide; and an output coupler for extracting light from the waveguide, wherein the interaction of the light with the birefringence compensation layer and the grating provides a predefined characteristic of light extracted from the waveguide.
A one-part tooth implant (10, 10', 10"), comprising: - an anchoring region (30, 30', 30"), and - an abutment region (20, 20', 20"), wherein the one-part tooth implant further comprises: - a bending region (40, 40', 40"), which is arranged on an end of the abutment region (20, 20', 20") facing toward the anchoring region, between the abutment region (20, 20', 20") and the anchoring region (30, 30', 30"), - a bearing region (60, 60', 60"), which is arranged on an end of the anchoring region (30, 30', 30") facing toward the abutment region, between the bending region (40, 40', 40") and the anchoring region (30, 30', 30"), wherein the bending region (40, 40', 40") has a smallest cross section , which is arranged in a half of the bending region (40, 40', 40") facing toward the anchoring region, characterized in that the cross section of the bending region (40, 40', 40") continuously enlarges, originating from the smallest cross section toward an end of the bending region (40, 40', 40") facing toward the abutment region, so that, in the event of bending stress, under the effect of the bending torque, which increases linearly toward the abutment region, after exceeding the yield stress, the flowing procedures are homogeneously distributed in the material volume of the bending region and no local damage of the material microstructure thus results. - an anchoring region (30, 30', 30"), and - an abutment region (20, 20', 20"), - a bending region (40, 40', 40"), which is arranged on an end of the abutment region (20, 20', 20") facing toward the anchoring region, between the abutment region (20, 20', 20") and the anchoring region (30, 30', 30"), - a bearing region (60, 60', 60"), which is arranged on an end of the anchoring region (30, 30', 30") facing toward the abutment region, between the bending region (40, 40', 40") and the anchoring region (30, 30', 30"),
A transparent glass sheet comprising a surface compressive layer and an inner layer adjacent to the surface compressive layer , wherein between 0°C and 300°C the difference of the coefficient of thermal expansion of the inner layer and the surface compressive layer is greater than 50x10 -7 °C -1 , characterised in that the surface compressive layer has a compressive stress of at least 300 MPa and a ratio of the thickness of the inner layer to the thickness of the transparent glass sheet is less than 0.9.