mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a plurality of radar sensors (2, 2a-2h) in a motor vehicle (1, 1'), wherein radar sensors (2, 2a-2h) detecting the surroundings of the motor vehicle (1, 1') in a 360° angle range in their detection areas (3a-3h) are used and at least one operating parameter of the radar sensors (2, 2a-2h) can be changed, wherein driving situation data describing a current driving situation of the motor vehicle (1, 1') are evaluated in order to determine a requirement profile for the sensor data of the radar sensors (2, 2a-2h), and the operating parameters of the radar sensors (2, 2a-2h) are adapted to the requirement profile taking into account at least the detection properties of all the radar sensors (2, 2a-2h), characterised in that each of radar sensors (2, 2a-2h) has a computing unit and the evaluation of the driving situation and the actuation of the radar sensors (2, 2a-2h) is carried out by the computing unit of at least one of the radar sensors (2, 2a-2h), wherein the radar sensor (2, 2a-2h) whose computing unit is used is dynamically selected depending on the driving situation data and/or the operating parameters.
A method of controlling a power output of a heating appliance to a zone, wherein the method comprises the steps of: a. receiving a heating demand signal from the zone; b. deriving the heating appliance power output based on the heating demand signal and also based on a scaling factor for the zone; and c. controlling the heating appliance to generate the heating appliance power output, wherein the scaling factor has been calculated based on the steps of: i. measuring the rate of temperature increase in the zone under a plurality of different heating appliance power outputs; ii. using the measurements in step (i), to learn the magnitude of the scaling factor for achieving a desired design rate of temperature increase in the zone. a. receiving a heating demand signal from the zone; b. deriving the heating appliance power output based on the heating demand signal and also based on a scaling factor for the zone; and c. controlling the heating appliance to generate the heating appliance power output, wherein the scaling factor has been calculated based on the steps of: i. measuring the rate of temperature increase in the zone under a plurality of different heating appliance power outputs; ii. using the measurements in step (i), to learn the magnitude of the scaling factor for achieving a desired design rate of temperature increase in the zone. i. measuring the rate of temperature increase in the zone under a plurality of different heating appliance power outputs; ii. using the measurements in step (i), to learn the magnitude of the scaling factor for achieving a desired design rate of temperature increase in the zone.
A method of folding a pallet support, integrally made of a board material being substantially rectangular shaped and having two longitudinal and two lateral sides comprising the steps of: pressing and folding both lateral sides of the board material inwardly for at least two times; using a centerline between said lateral sides of the board material as a reference to fold the whole piece of the board material upwardly in half; pressing the board material flatly; bending an upper end of the board material towards both sides of the board material to a predetermined length to form a pallet support with a cross-section having a thickness of a plurality of layers of the board material and the bottom of the pallet support being a thickened T-shape cross-sectional structure; and bending a top end of the pallet support of the T-shape cross-sectional structure towards both sides to form a pallet support of an I-shaped cross-sectional structure with thickened top and bottom. pressing and folding both lateral sides of the board material inwardly for at least two times; using a centerline between said lateral sides of the board material as a reference to fold the whole piece of the board material upwardly in half; pressing the board material flatly; bending an upper end of the board material towards both sides of the board material to a predetermined length to form a pallet support with a cross-section having a thickness of a plurality of layers of the board material and the bottom of the pallet support being a thickened T-shape cross-sectional structure; and bending a top end of the pallet support of the T-shape cross-sectional structure towards both sides to form a pallet support of an I-shaped cross-sectional structure with thickened top and bottom.
A device for winding up and unwinding a cable, whereby this device comprises a drum-shaped top cable carousel that is rotatable around a top rotation axis and a drum-shaped bottom cable carousel that is rotatable around a bottom geometric rotation axis, whereby in a first operating mode the bottom cable carousel can rotate independently of the top cable carousel, and in a second operating mode is rotatable synchronously with the top cable carousel, whereby the bottom of the top cable carousel is provided with a central cable passage, whereby between the top cable carousel and the bottom cable carousel the device is provided with a first guide arm for the cable, whereby this first guide arm leads away from the bottom rotation axis and is rotatable around the bottom rotation axis, whereby the first guide arm is arranged to be connected to a fixed point in the first operating mode such that the bottom cable carousel is rotatable with respect to the first guide arm, and whereby in the second operating mode the first guide arm is arranged to be connected to the bottom cable carousel so that the first guide arm and the bottom cable carousel can only rotate together.
A method for adaptively controlling spacing between a vehicle and at least one other vehicle in an operating environment of the vehicle, the method comprising: determining a current state of the vehicle based on sensor data captured by sensors (110, 111) of the vehicle; determining a set of possible actions based on the current state of the vehicle; for each possible action in the set of possible actions: (i) predicting, based on the current vehicle state, a future state for the vehicle, and (ii) predicting, based on the current vehicle state, a first zone future safety value corresponding to a first safety zone of the vehicle; and selecting, based on the predicted future states and first zone future safety values for each of the possible actions in the set, a vehicle action; controlling the vehicle to perform the selected vehicle action to control the spacing between the vehicle and the at least one other vehicle, characterized in that: selecting the vehicle action is performed by a control daemon general value function, and the set of possible actions includes only the last vehicle action taken by the vehicle, and selecting the vehicle action is performed based on pre-determined rules. determining a current state of the vehicle based on sensor data captured by sensors (110, 111) of the vehicle; determining a set of possible actions based on the current state of the vehicle; for each possible action in the set of possible actions: (i) predicting, based on the current vehicle state, a future state for the vehicle, and (ii) predicting, based on the current vehicle state, a first zone future safety value corresponding to a first safety zone of the vehicle; and selecting, based on the predicted future states and first zone future safety values for each of the possible actions in the set, a vehicle action; controlling the vehicle to perform the selected vehicle action to control the spacing between the vehicle and the at least one other vehicle, characterized in that: selecting the vehicle action is performed by a control daemon general value function, and the set of possible actions includes only the last vehicle action taken by the vehicle, and selecting the vehicle action is performed based on pre-determined rules. selecting the vehicle action is performed by a control daemon general value function, and the set of possible actions includes only the last vehicle action taken by the vehicle, and selecting the vehicle action is performed based on pre-determined rules.
A method, implemented in a wireless transmit/receive unit, WTRU (305; 600), for transmitting service request messages in a congested network, characterized by that the method comprises: transmitting an extended service request message to a network to initiate circuit switched fallback call establishment; in response to the extended service request message, receiving a service reject message indicating that the circuit switched domain will be temporarily unavailable for a predetermined period of time as indicated by a timer value included in the service reject message; setting a timer (325; 625) in the WTRU based on the timer value; and activating the timer, wherein the WTRU is not attempting to transmit another extended service request message to the network for mobile originated, MO, services, except for MO circuit switched fallback for emergency calls, until the timer expires. transmitting an extended service request message to a network to initiate circuit switched fallback call establishment; in response to the extended service request message, receiving a service reject message indicating that the circuit switched domain will be temporarily unavailable for a predetermined period of time as indicated by a timer value included in the service reject message; setting a timer (325; 625) in the WTRU based on the timer value; and activating the timer, wherein the WTRU is not attempting to transmit another extended service request message to the network for mobile originated, MO, services, except for MO circuit switched fallback for emergency calls, until the timer expires.
A method of increasing a Debye length and detecting the presence of an analyte in a sample solution the method comprising: introducing a sample solution into an apparatus, the apparatus including: a sensor (401, 501) disposed on a substrate (402, 502), the sensor (401, 501) configured to detect across the sensor (401, 501) a change in an electrical property of a surface of the sensor that is changed upon binding of the analyte; and an electrode (414, 514), separate from the sensor (401, 501), disposed proximate to the sensor (401, 501); applying an electric potential, via the electrode (414, 514), to the sample solution, thereby moving salt ions in the sample solution away from the surface of the sensor (401, 501) to increase the Debye length at the sensor surface and increase sensitivity of the sensor (401, 501); and detecting, via the sensor, the presence of the analyte in the sample solution. introducing a sample solution into an apparatus, the apparatus including: a sensor (401, 501) disposed on a substrate (402, 502), the sensor (401, 501) configured to detect across the sensor (401, 501) a change in an electrical property of a surface of the sensor that is changed upon binding of the analyte; and an electrode (414, 514), separate from the sensor (401, 501), disposed proximate to the sensor (401, 501); a sensor (401, 501) disposed on a substrate (402, 502), the sensor (401, 501) configured to detect across the sensor (401, 501) a change in an electrical property of a surface of the sensor that is changed upon binding of the analyte; and an electrode (414, 514), separate from the sensor (401, 501), disposed proximate to the sensor (401, 501); applying an electric potential, via the electrode (414, 514), to the sample solution, thereby moving salt ions in the sample solution away from the surface of the sensor (401, 501) to increase the Debye length at the sensor surface and increase sensitivity of the sensor (401, 501); and detecting, via the sensor, the presence of the analyte in the sample solution.
An eyepiece lens comprising in order from an object side to an observation side: a first lens having a positive refractive power; a second lens having a negative refractive power; and a third lens having a positive refractive power, wherein a lens surface (R1a) of the first lens on the object side has a convex shape, a lens surface (R2b) of the second lens on the observation side has a concave shape, and the following conditional expressions are satisfied: 0.65 < f 11 / f < 1.00; and − 0.75 < f 22 / f < − 0.30 − 100.00 < r 2 b + r 1 a / r 2 b − r 1 a < − 9.27 _ where f represents a focal length of the eyepiece lens, f11 represents a focal length of the lens surface (R1a) of the first lens on the object side, f22 represents a focal length of the lens surface (R2b) of the second lens on the observation side, r1a represents a curvature radius of the lens surface (R1a) of the first lens on the object side, and r2b represents a curvature radius of the lens surface (R2b) of the second lens on the observation side. wherein a lens surface (R1a) of the first lens on the object side has a convex shape, a lens surface (R2b) of the second lens on the observation side has a concave shape, and the following conditional expressions are satisfied: 0.65 < f 11 / f < 1.00; and − 0.75 < f 22 / f < − 0.30 − 100.00 < r 2 b + r 1 a / r 2 b − r 1 a < − 9.27 _ where f represents a focal length of the eyepiece lens, f11 represents a focal length of the lens surface (R1a) of the first lens on the object side, f22 represents a focal length of the lens surface (R2b) of the second lens on the observation side, r1a represents a curvature radius of the lens surface (R1a) of the first lens on the object side, and r2b represents a curvature radius of the lens surface (R2b) of the second lens on the observation side.
A method of fabricating a symmetric light guide optical element ("LOE") having a pair of parallel external surfaces, a first plurality of parallel internal reflective surfaces, and a second plurality of parallel internal reflective surfaces, the first and second plurality of parallel internal reflective surfaces being non-parallel to one another and non-parallel to the pair of external surfaces, comprising: providing a plurality of transparent plates, each plate having two parallel surfaces; stacking a first subset of the plurality of plates on a transparent base block to form a first stack of plates on the base block, the first stack of plates including an at least partially reflective coating between each pair of adjacent plates; forming a sloped surface on one side of the first stack plates and the base block, the sloped surface being non-perpendicular to said parallel surfaces of the plates in the first stack of plates and including at least a part of the base block; stacking a second subset of the plurality of plates on said sloped surface to form a second stack of plates on the base block, the second stack of plates including an at least partially reflective coating between each pair of adjacent plates, wherein an interface between the base block and the first stack of plates and an interface between the base block and the second stack of plates each include an at least partially reflective coating; and extracting a slice of the first stack, the base block, and the second stack, such that the slice includes at least a part of the base block interposed between plates of the first stack and plates of the second stack. providing a plurality of transparent plates, each plate having two parallel surfaces; stacking a first subset of the plurality of plates on a transparent base block to form a first stack of plates on the base block, the first stack of plates including an at least partially reflective coating between each pair of adjacent plates; forming a sloped surface on one side of the first stack plates and the base block, the sloped surface being non-perpendicular to said parallel surfaces of the plates in the first stack of plates and including at least a part of the base block; stacking a second subset of the plurality of plates on said sloped surface to form a second stack of plates on the base block, the second stack of plates including an at least partially reflective coating between each pair of adjacent plates, wherein an interface between the base block and the first stack of plates and an interface between the base block and the second stack of plates each include an at least partially reflective coating; and extracting a slice of the first stack, the base block, and the second stack, such that the slice includes at least a part of the base block interposed between plates of the first stack and plates of the second stack.
A method for processing scalable video content, the method comprising: storing a first set of data in a base track, the first set of data including, for each video frame of a plurality of video frames of the scalable video content, a plurality of samples having data for a plurality of different operating points, the plurality of different operating points including at least one of different spatial resolutions, temporal resolutions or quality levels; selecting one of a plurality of extractor tracks, each of the plurality of extractor tracks corresponding to a respective one of the plurality of operating points within the scalable video content and including a respective second set of data containing references to the first set for use in identifying respective operating point data from the first set; transmitting to a client device the entire selected one of the plurality of extractor tracks separately from operating point data of any of the plurality of operating points; and transmitting the respective operating point data referenced by the selected extractor track. storing a first set of data in a base track, the first set of data including, for each video frame of a plurality of video frames of the scalable video content, a plurality of samples having data for a plurality of different operating points, the plurality of different operating points including at least one of different spatial resolutions, temporal resolutions or quality levels; selecting one of a plurality of extractor tracks, each of the plurality of extractor tracks corresponding to a respective one of the plurality of operating points within the scalable video content and including a respective second set of data containing references to the first set for use in identifying respective operating point data from the first set; transmitting to a client device the entire selected one of the plurality of extractor tracks separately from operating point data of any of the plurality of operating points; and transmitting the respective operating point data referenced by the selected extractor track.
A pressure sensor for sensing a pressure, comprising: a first substrate comprising a cavity and a deformable membrane that is configured to be deformed by a pressure acting on the membrane, wherein said membrane separates said cavity from a gap of the pressure sensor, wherein said gap communicates with a surrounding of the pressure sensor so that the pressure in said gap corresponds to the pressure in said surrounding, a first electrode comprised or formed by said membrane, wherein the first electrode is moveable with the membrane, and a stationary second electrode which faces said first electrode, wherein said gap is arranged between the second electrode and said membrane comprising the first electrode, so that a distance between the first electrode and the second electrode depends on the pressure in said gap, characterized in that the pressure sensor comprises several through holes via which said gap communicates with said surrounding of the pressure sensor, wherein said through holes extend through the first substrate, wherein said through holes extend to separate a first portion of the first substrate from a surrounding second portion of the first substrate, and wherein said first portion is connected via suspension elements to the surrounding second portion of the first substrate. a first substrate comprising a cavity and a deformable membrane that is configured to be deformed by a pressure acting on the membrane, wherein said membrane separates said cavity from a gap of the pressure sensor, wherein said gap communicates with a surrounding of the pressure sensor so that the pressure in said gap corresponds to the pressure in said surrounding, a first electrode comprised or formed by said membrane, wherein the first electrode is moveable with the membrane, and a stationary second electrode which faces said first electrode, wherein said gap is arranged between the second electrode and said membrane comprising the first electrode, so that a distance between the first electrode and the second electrode depends on the pressure in said gap, characterized in that the pressure sensor comprises several through holes via which said gap communicates with said surrounding of the pressure sensor, wherein said through holes extend through the first substrate, wherein said through holes extend to separate a first portion of the first substrate from a surrounding second portion of the first substrate, and wherein said first portion is connected via suspension elements to the surrounding second portion of the first substrate.
Process for the continuous and solvent-free production of a pressure-sensitive adhesive based on solid acrylonitrile-butadiene rubber comprising 30 to 160 phr of tackifier resin in a continuously operating assembly in the form of a planetary roller extruder having a filling section and a compounding section, the compounding section consisting of at least two coupled roller cylinders, by a) feeding the solid acrylonitrile-butadiene rubber, a first tackifier resin fraction in the form of 10 to less than 100 phr of tackifier resin, and any further components into the filling section of the planetary roller extruder, b) transferring the components from the filling section into the compounding section, c) adding a second tackifier resin fraction and any further components into the second roller cylinder of the compounding section or a roller cylinder downstream thereof, d) optionally adding a further tackifier resin fraction and any further components into at least one further roller cylinder downstream, and e) discharging the resultant pressure-sensitive adhesive which is as defined above, characterized in that the wall temperature of the roller cylinders and the temperature of the central spindle of the planetary roller extruder are each less than 140°C. a) feeding the solid acrylonitrile-butadiene rubber, a first tackifier resin fraction in the form of 10 to less than 100 phr of tackifier resin, and any further components into the filling section of the planetary roller extruder, b) transferring the components from the filling section into the compounding section, c) adding a second tackifier resin fraction and any further components into the second roller cylinder of the compounding section or a roller cylinder downstream thereof, d) optionally adding a further tackifier resin fraction and any further components into at least one further roller cylinder downstream, and e) discharging the resultant pressure-sensitive adhesive which is as defined above,