mhurhangee/ep-ind-claims huggingface dataset:
Surveying pole comprising: • at least two pole sections being telescopically insertable into each other so that a height adjustment of the pole is provided, • a pointing tip at the lower end of the pole for setting the pole on a terrain point, • a position giving means (5,6) arranged on the pole, • a height measuring system for measuring the height of the position giving means (5,6) relative to the terrain point, characterized in that the height measuring system comprises • a magneto-strictive wire placed inside of the pole, • a magnet interacting with the wire, the positioning of the magnet relative to the wire being linked to the height adjustment of the pole, • a sensor circuitry for emitting current pulses through the wire, • a signal transducer, in particular comprising a sensing coil, for transforming mechanical waves of the wire into electrical signals, and • a decoder for evaluating the signals and the current pulses, and therewith deriving the height of the position giving means (5,6). • at least two pole sections being telescopically insertable into each other so that a height adjustment of the pole is provided, • a pointing tip at the lower end of the pole for setting the pole on a terrain point, • a position giving means (5,6) arranged on the pole, • a height measuring system for measuring the height of the position giving means (5,6) relative to the terrain point, characterized in that the height measuring system comprises • a magneto-strictive wire placed inside of the pole, • a magnet interacting with the wire, the positioning of the magnet relative to the wire being linked to the height adjustment of the pole, • a sensor circuitry for emitting current pulses through the wire, • a signal transducer, in particular comprising a sensing coil, for transforming mechanical waves of the wire into electrical signals, and • a decoder for evaluating the signals and the current pulses, and therewith deriving the height of the position giving means (5,6).
A method for remoting applications, the applications including one or more framework applications that have their respective visual components stored as a structural representation in a corresponding visual tree, such as Windows Presentation Foundation, WPF, applications, comprising: relating one or more visual components to be displayed, the one or more visual components corresponding to the visual output generated by one or more applications running in a desktop at a server computing device; upon creation of a framework application, transitioning a graphics system of the server computing device from a single immediate drawing mode to a structural redirection mode and creating a visual tree, wherein in the structural redirection mode, the one or more visual components corresponding to the visual output generated by the one or more applications running in the desktop and the visual components of the framework application are represented as structural representations in the visual tree; collecting structural information associated with the visual tree and transferring the structural information to a remote client to enable the remote client to construct a corresponding visual tree at the remote client based on the structural information, wherein the structural information includes data that specifies placement of the visual components on the desktop when displayed. relating one or more visual components to be displayed, the one or more visual components corresponding to the visual output generated by one or more applications running in a desktop at a server computing device; upon creation of a framework application, transitioning a graphics system of the server computing device from a single immediate drawing mode to a structural redirection mode and creating a visual tree, wherein in the structural redirection mode, the one or more visual components corresponding to the visual output generated by the one or more applications running in the desktop and the visual components of the framework application are represented as structural representations in the visual tree; collecting structural information associated with the visual tree and transferring the structural information to a remote client to enable the remote client to construct a corresponding visual tree at the remote client based on the structural information, wherein the structural information includes data that specifies placement of the visual components on the desktop when displayed.
A computer implemented method for selecting a target from real-time tracking data, comprising: receiving real-time tracking data for at least one potential target from a real-time data source; comparing the real-time tracking data for each of the at least one potential targets by: discriminating the relative velocities and directions of each of the at least one potential targets; analyzing the relative velocities and directions of each of the at least one potential targets over a period of time; and identifying each of the at least one potential targets capable of being intercepted by determining the ability of a countermeasure to successfully intercept each of the at least one potential targets based on a comparison of a projected track of each potential target and predetermined performance capabilities of the countermeasure; and characterized by selecting, for engagement, by comparing the real-time tracking data to a known set of parametric bounds for a predetermined threat, a lead track from the at least one potential targets that is capable of being intercepted, wherein the lead track comprises an interceptable threat that is within a predetermined threshold corresponding to a set of parametric bounds for a known threat. receiving real-time tracking data for at least one potential target from a real-time data source; comparing the real-time tracking data for each of the at least one potential targets by: discriminating the relative velocities and directions of each of the at least one potential targets; analyzing the relative velocities and directions of each of the at least one potential targets over a period of time; and identifying each of the at least one potential targets capable of being intercepted by determining the ability of a countermeasure to successfully intercept each of the at least one potential targets based on a comparison of a projected track of each potential target and predetermined performance capabilities of the countermeasure; and characterized by discriminating the relative velocities and directions of each of the at least one potential targets; analyzing the relative velocities and directions of each of the at least one potential targets over a period of time; and identifying each of the at least one potential targets capable of being intercepted by determining the ability of a countermeasure to successfully intercept each of the at least one potential targets based on a comparison of a projected track of each potential target and predetermined performance capabilities of the countermeasure; and characterized by selecting, for engagement, by comparing the real-time tracking data to a known set of parametric bounds for a predetermined threat, a lead track from the at least one potential targets that is capable of being intercepted, wherein the lead track comprises an interceptable threat that is within a predetermined threshold corresponding to a set of parametric bounds for a known threat.
A method of transmitting broadcast signals, the method comprising: input processing input streams to output PLP data for multiple Physical Layer Paths, PLPs; inner coding the input processed PLP data by a Low Density Parity Check, LDPC, scheme per each of the PLPs; dividing the inner coded PLP data into two bitstreams; Quadrature Amplitude Modulation, QAM, mapping data in a first bitstream to respective symbols using a High Order Quadrature Amplitude Modulation, HOQ, mapping method; QAM mapping data in a second bitstream to respective symbols using a Low Order Quadrature Amplitude Modulation, LOQ, mapping method; time interleaving the QAM mapped data; building signal frames including the time interleaved data; frequency interleaving data in the built signal frames; and modulating data in the signal frame by an Orthogonal Frequency Division Multiplex, OFDM, scheme, wherein data in the signal frames are processed by a Multi-Input Multi-Output, MIMO, scheme. input processing input streams to output PLP data for multiple Physical Layer Paths, PLPs; inner coding the input processed PLP data by a Low Density Parity Check, LDPC, scheme per each of the PLPs; dividing the inner coded PLP data into two bitstreams; Quadrature Amplitude Modulation, QAM, mapping data in a first bitstream to respective symbols using a High Order Quadrature Amplitude Modulation, HOQ, mapping method; QAM mapping data in a second bitstream to respective symbols using a Low Order Quadrature Amplitude Modulation, LOQ, mapping method; time interleaving the QAM mapped data; building signal frames including the time interleaved data; frequency interleaving data in the built signal frames; and modulating data in the signal frame by an Orthogonal Frequency Division Multiplex, OFDM, scheme,
A lighting system, comprising: (a) a reflector having two or more reflector segments (210a-c; 322) forming a closed reflector, wherein each reflector segment (210a-c; 322) is substantially paraboloidal and has a central axis of symmetry; and (b) an illumination portion having two or more light sources (100a-c; 324), each light source (100a-c; 324) corresponding to one of the rejector segments (210a-c; 322) and having a central illumination axis, wherein each central illumination axis is (i) directed toward the corresponding reflector segment (210a-c; 322) and (ii) substantially perpendicular to the central axis of symmetry of the corresponding reflector segment (210a-c; 322), characterized in that the axis of symmetry of each reflector segment (210a-c; 322) is offset from a central reflector axis of the closed reflector, wherein each light source (100a-c; 324) is positioned at the focus of the corresponding reflector segment (210a-c; 322), and wherein the reflector includes exactly three reflector segments (210a-c; 322), wherein each reflector segment (210a-c) is formed by approximately 130 degrees of revolution, wherein each light source (100a-c; 324) is an LED, which LED distributes light in a substantially hemispherical pattern, wherein the central illumination axis runs through the spherical center and the apex of the hemisphere of said hemispherical pattern. (a) a reflector having two or more reflector segments (210a-c; 322) forming a closed reflector, wherein each reflector segment (210a-c; 322) is substantially paraboloidal and has a central axis of symmetry; and (b) an illumination portion having two or more light sources (100a-c; 324), each light source (100a-c; 324) corresponding to one of the rejector segments (210a-c; 322) and having a central illumination axis, wherein each central illumination axis is (i) directed toward the corresponding reflector segment (210a-c; 322) and (ii) substantially perpendicular to the central axis of symmetry of the corresponding reflector segment (210a-c; 322),
A method of applying a touch film to a rigid surface having a compound curvature, the rigid surface being an inner surface of an outer door screen of a laundry treating appliance, the touch film comprising an integrated flexible printed circuit board with touch buttons and a pressure sensitive adhesive located on a facing surface of the touch film, the pressure sensitive adhesive being transparent, the method comprising: applying the pressure sensitive adhesive to the facing surface of the touch film: placing the facing surface against the rigid surface: rolling a roller over the touch film: and activating the pressure sensitive adhesive to adhere the touch film to the rigid surface: wherein the roller has an exterior layer of low durometer material to conform to the compound curvature of the rigid surface and wherein the durometer of the exterior layer is in the range of 28A to 40A, according to the ASTM D2240 standard. rolling a roller over the touch film: and activating the pressure sensitive adhesive to adhere the touch film to the rigid surface:
A method for regulating the activity of Cas13 protein, comprising a step of treating a first fragment containing the N-terminal segment of Cas13 protein and a first regulatory protein; and a second fragment containing a second regulatory protein and the C-terminal segment of Cas13 protein with a compound or light irradiation, wherein the compound treatment or light irradiation induces dimerization of the first regulatory protein and the second regulatory protein; and wherein the dimerization occurs between the segment from the N-terminus to the 272nd amino acid according to SEQ. ID. NO: 1 and the segment from the 273rd amino acid to the C-terminus according to SEQ. ID. NO: 2; the segment from the N-terminus to the 286th amino acid according to SEQ. ID. NO: 3 and the segment from the 287th amino acid to the C-terminus according to SEQ. ID. NO: 4; the segment from the N-terminus to the 351st amino acid according to SEQ. ID. NO: 5 and the segment from the 352nd amino acid to the C-terminus according to SEQ. ID. NO: 6; the segment from the N-terminus to the 480th amino acid according to SEQ. ID. NO: 7 and the segment from the 481st amino acid to the C-terminus according to SEQ. ID. NO: 8; or the segment from the N-terminus to the 928th amino acid according to SEQ. ID. NO: 15 and the segment from the 929th amino acid to the C-terminus according to SEQ. ID. NO: 16. wherein the dimerization occurs between the segment from the N-terminus to the 272nd amino acid according to SEQ. ID. NO: 1 and the segment from the 273rd amino acid to the C-terminus according to SEQ. ID. NO: 2; the segment from the N-terminus to the 286th amino acid according to SEQ. ID. NO: 3 and the segment from the 287th amino acid to the C-terminus according to SEQ. ID. NO: 4; the segment from the N-terminus to the 351st amino acid according to SEQ. ID. NO: 5 and the segment from the 352nd amino acid to the C-terminus according to SEQ. ID. NO: 6; the segment from the N-terminus to the 480th amino acid according to SEQ. ID. NO: 7 and the segment from the 481st amino acid to the C-terminus according to SEQ. ID. NO: 8; or the segment from the N-terminus to the 928th amino acid according to SEQ. ID. NO: 15 and the segment from the 929th amino acid to the C-terminus according to SEQ. ID. NO: 16.
A method for aggregating carriers over a backhaul link at a relay node operating in half duplex mode, comprising: determining a first set of subframes of at least a first carrier of a plurality of carriers configured for communicating with an evolved node B, eNB over a backhaul link; determining a second set of subframes of at least a second carrier of the plurality of carriers configured for backhaul link communications, wherein the second set of subframes is different from the first set of subframes, and wherein the second set of subframes is a subset of the first set of subframes; determining the first carrier as a primary component carrier, PCC for the backhaul link based at least in part on determining that the second set of subframes is a subset of the first set of subframes; determining that the first carrier is a secondary component carrier for access link communications, the secondary component carrier for access link communications only including subframes not included in the first set of subframes; and communicating data received over a plurality of access link carriers to the eNB over the first carrier and the second carrier based on the first set of subframes and the second set of subframes. determining a first set of subframes of at least a first carrier of a plurality of carriers configured for communicating with an evolved node B, eNB over a backhaul link; determining a second set of subframes of at least a second carrier of the plurality of carriers configured for backhaul link communications, wherein the second set of subframes is different from the first set of subframes, and wherein the second set of subframes is a subset of the first set of subframes; determining the first carrier as a primary component carrier, PCC for the backhaul link based at least in part on determining that the second set of subframes is a subset of the first set of subframes; determining that the first carrier is a secondary component carrier for access link communications, the secondary component carrier for access link communications only including subframes not included in the first set of subframes; and communicating data received over a plurality of access link carriers to the eNB over the first carrier and the second carrier based on the first set of subframes and the second set of subframes.
A method for separating labeled particles and non-labeled particles, comprising: supplying a suspension comprising labeled particles and non-labeled particles into a flow channel from one end of the flow channel; deflecting the labeled particles in the flow channel in a direction that is different from the gravity direction; fixing the labeled particles onto an inner wall surface of the flow channel; and ejecting the suspension in the flow channel from an end of the flow channel by introducing a gas phase into the flow channel from one end of the flow channel in a state in which the labeled particles are fixed on the inner wall surface of the flow channel, and collecting the non-labeled particles. supplying a suspension comprising labeled particles and non-labeled particles into a flow channel from one end of the flow channel; deflecting the labeled particles in the flow channel in a direction that is different from the gravity direction; fixing the labeled particles onto an inner wall surface of the flow channel; and ejecting the suspension in the flow channel from an end of the flow channel by introducing a gas phase into the flow channel from one end of the flow channel in a state in which the labeled particles are fixed on the inner wall surface of the flow channel, and collecting the non-labeled particles.
An actuator comprising: a rod having a socket portion and a planar face at one distal end of the rod; and a swivel cap including: a base portion having an inner surface and an outer surface; a raised domed portion disposed on the inner surface of the base portion and mounted in the socket portion of the rod; and a raised region located on at least one of the raised domed portion or the socket portion; wherein the swivel cap tilts relative to the rod in response to angular misalignment with a load to a tilt angle, wherein it comprises a gap between the planar face of the distal end of the rod and the base portion of the swivel cap around the raised domed portion and characterized in that the gap is positioned between the planar face and the inner surface of the base portion so that tilting the swivel cap relative to the rod at a maximum tilt angle causes the inner surface to contact the planar face and close the gap, wherein tilting the swivel cap relative to the rod beyond the maximum tilt angle causes a dent on the inner surface. a rod having a socket portion and a planar face at one distal end of the rod; and a swivel cap including: a base portion having an inner surface and an outer surface; a raised domed portion disposed on the inner surface of the base portion and mounted in the socket portion of the rod; and a raised region located on at least one of the raised domed portion or the socket portion; a base portion having an inner surface and an outer surface; a raised domed portion disposed on the inner surface of the base portion and mounted in the socket portion of the rod; and a raised region located on at least one of the raised domed portion or the socket portion; wherein the swivel cap tilts relative to the rod in response to angular misalignment with a load to a tilt angle, wherein it comprises a gap between the planar face of the distal end of the rod and the base portion of the swivel cap around the raised domed portion and characterized in that the gap is positioned between the planar face and the inner surface of the base portion so that tilting the swivel cap relative to the rod at a maximum tilt angle causes the inner surface to contact the planar face and close the gap, wherein tilting the swivel cap relative to the rod beyond the maximum tilt angle causes a dent on the inner surface.
A downhole expandable apparatus for restricting ingress of solids in a wellbore, comprising: a base pipe, wherein the base pipe comprises at least one aperture in a wall thereof; a fluid permeable expandable foam material mounted on the base pipe configurable between a non-expanded and an expanded configuration, wherein the at least one aperture is positioned on a section of the base pipe that is under the expandable foam material mounted on the base pipe; and a retractable sleeve moveable between a first configuration in which the retractable sleeve retains the expandable foam material in the non-expanded configuration, and a second configuration in which the retractable sleeve is retracted to provide a free portion of some or all of the expandable foam material, permitted to radially expand towards the expanded configuration and into engagement with a surface in the wellbore. a base pipe, wherein the base pipe comprises at least one aperture in a wall thereof; a fluid permeable expandable foam material mounted on the base pipe configurable between a non-expanded and an expanded configuration, wherein the at least one aperture is positioned on a section of the base pipe that is under the expandable foam material mounted on the base pipe; and a retractable sleeve moveable between a first configuration in which the retractable sleeve retains the expandable foam material in the non-expanded configuration, and a second configuration in which the retractable sleeve is retracted to provide a free portion of some or all of the expandable foam material, permitted to radially expand towards the expanded configuration and into engagement with a surface in the wellbore.
A motor vehicle having - an imaging device for producing an image of a radiation pattern in the environment of the motor vehicle, - a detection device to repeatedly temporally successively detect images of the radiation pattern that are influenced by the environment, and - a processor device, which is set up in such a way that, - based on the difference between temporally directly or indirectly successively detected images of the radiation pattern, an obstacle is detected in the environment, and in such a way that the height of obstacles or the depth of potholes is calculated by means of information about a movement of the motor vehicle and a change in the curvature between two or more detected images of the radiation pattern. - an imaging device for producing an image of a radiation pattern in the environment of the motor vehicle, - a detection device to repeatedly temporally successively detect images of the radiation pattern that are influenced by the environment, and - a processor device, which is set up in such a way that, - based on the difference between temporally directly or indirectly successively detected images of the radiation pattern, an obstacle is detected in the environment, and in such a way that