mhurhangee/patent-ind-claim-en huggingface dataset:
Parking brake valve assembly for an electronically controllable pneumatic brake system of a vehicle , in particular a commercial vehicle , comprising: a first compressed air path receiving a first or second supply pressure (pV, pV1, pV2) and having a first monostable valve unit for providing a first parking brake pressure (pF1), a second compressed air path receiving the first or the second supply pressure (pV, pV1, pV2) and having a second monostable valve unit for providing a second parking brake pressure (pF2), and a first shuttle valve having a first shuttle valve connection (10.1) with the first compressed air path and receiving the first parking brake pressure (pF1), a second shuttle valve connection (10.2) with the second compressed air path and receiving the second parking brake pressure (pF2), and a third shuttle valve connection (10.3) which can be connected to a spring-loaded brake cylinder , wherein the first shuttle valve outputs the higher of the first parking brake pressure (pF1) and the second parking brake pressure (pF2) at the third shuttle valve connection (10.3), characterized in that the first monostable valve unit is switched by a first electronic control unit (ECU1) and the second monostable valve unit is switched by a second electronic control unit (ECU2). a first compressed air path receiving a first or second supply pressure (pV, pV1, pV2) and having a first monostable valve unit for providing a first parking brake pressure (pF1), a second compressed air path receiving the first or the second supply pressure (pV, pV1, pV2) and having a second monostable valve unit for providing a second parking brake pressure (pF2), and a first shuttle valve having a first shuttle valve connection (10.1) with the first compressed air path and receiving the first parking brake pressure (pF1), a second shuttle valve connection (10.2) with the second compressed air path and receiving the second parking brake pressure (pF2), and a third shuttle valve connection (10.3) which can be connected to a spring-loaded brake cylinder , wherein the first shuttle valve outputs the higher of the first parking brake pressure (pF1) and the second parking brake pressure (pF2) at the third shuttle valve connection (10.3), characterized in that the first monostable valve unit is switched by a first electronic control unit (ECU1) and the second monostable valve unit is switched by a second electronic control unit (ECU2).
A computer-implemented method, comprising: receiving data describing a scene, wherein the scene comprises one or more light sources and one or more objects having different surface optical properties; receiving a request to render an image of the scene using a multiple importance sampling method of direct illumination that combines sampling of a high dynamic range - HDR - environment map and sampling of a cosine product of a bidirectional reflectance distribution function - BRDF - of an object surface, wherein each sampling technique uses a different probability distribution to sample a respective fraction of a total number of samples, wherein sampling from the HDR environment map is implemented using a tabulated probability density function, and sampling the cosine product of the BRDF is an analytical formula derived from a probability density function depending on the outgoing direction and surface position of a ray; modifying only the probability density function of the HDR environment map to reduce a variance of the multiple importance sampling method while holding the respective fractions and the other probability distribution fixed; rendering the scene using the multiple importance sampling using the modified particular probability distribution and the other probability distribution; and outputting the rendered scene in response to the request. receiving data describing a scene, wherein the scene comprises one or more light sources and one or more objects having different surface optical properties; receiving a request to render an image of the scene using a multiple importance sampling method of direct illumination that combines sampling of a high dynamic range - HDR - environment map and sampling of a cosine product of a bidirectional reflectance distribution function - BRDF - of an object surface, wherein each sampling technique uses a different probability distribution to sample a respective fraction of a total number of samples, wherein sampling from the HDR environment map is implemented using a tabulated probability density function, and sampling the cosine product of the BRDF is an analytical formula derived from a probability density function depending on the outgoing direction and surface position of a ray; modifying only the probability density function of the HDR environment map to reduce a variance of the multiple importance sampling method while holding the respective fractions and the other probability distribution fixed; rendering the scene using the multiple importance sampling using the modified particular probability distribution and the other probability distribution; and outputting the rendered scene in response to the request.
A handsaw having a plurality of saw teeth arranged on a longitudinal edge of a saw blade , the saw teeth being configured as a combination of crosscutting teeth (X, 30, 40, 50) of triangular or trapezoidal prism shape and ripping teeth (Y, 100) of parallelogram-based prism shape, the prism-shaped teeth constituting the crosscutting teeth (X, 30, 40, 50) and the ripping teeth (Y, 100) being configured such that at least adjacent prism-shaped teeth rise at a same rising angle (θ) from an edge surface of the longitudinal edge of the saw blade , to cause a space (S) between the adjacent prism-shaped teeth to be constant in a rising direction in which the teeth rise.
A method of making an array of microstructures comprising: (a) dissolving or suspending at least one therapeutic agent and at least one polymer in one or more solvents to form a polymer matrix solution or suspension; (b) dispensing the polymer matrix solution or suspension on a mold having an array of microstructure cavities; (c) filling the microstructure cavities in the mold with the polymer matrix solution or suspension; (d) removing excess polymer matrix solution or suspension on the mold surface; (e) drying the polymer matrix solution or suspension at a temperature of 5-50° C from a heating source positioned below the mold to form an array of microstructures, wherein drying is performed in a chamber having a controlled partial pressure of 1.33 Pa to 27064.4 Pa (0.01 mTorr to 203 Torr); and (f) drying the microstructures under vacuum at 5-50° C, wherein drying is performed in an oven without the controlled partial pressure. (a) dissolving or suspending at least one therapeutic agent and at least one polymer in one or more solvents to form a polymer matrix solution or suspension; (b) dispensing the polymer matrix solution or suspension on a mold having an array of microstructure cavities; (c) filling the microstructure cavities in the mold with the polymer matrix solution or suspension; (d) removing excess polymer matrix solution or suspension on the mold surface; (e) drying the polymer matrix solution or suspension at a temperature of 5-50° C from a heating source positioned below the mold to form an array of microstructures, wherein drying is performed in a chamber having a controlled partial pressure of 1.33 Pa to 27064.4 Pa (0.01 mTorr to 203 Torr); and (f) drying the microstructures under vacuum at 5-50° C, wherein drying is performed in an oven without the controlled partial pressure.
A method of determining a characteristic of an inertial contribution to an electrical power grid , the method comprising: determining a change in inertia in the electrical power grid based on inertia measurements performed in a first time period; and determining , for a second time period different to the first time period, a characteristic of an inertial contribution to the electrical power grid on the basis of the determined change and data indicative of an inertia contribution characteristic of one or more energy production facilities and/or one or more energy consuming devices in the electric power grid . determining a change in inertia in the electrical power grid based on inertia measurements performed in a first time period; and determining , for a second time period different to the first time period, a characteristic of an inertial contribution to the electrical power grid on the basis of the determined change and data indicative of an inertia contribution characteristic of one or more energy production facilities and/or one or more energy consuming devices in the electric power grid .
A method in a network node for setting a processing time for a user equipment , UE, to respond to a radio resource control, RRC, connection resume message, the RRC connection resume message relating to establishment or reconfiguration of an RRC connection for the UE , the method comprising: determining (S104) when short processing time conditions exist in relation to the establishment or reconfiguration of the RRC connection for the UE; when short processing time conditions exist, sending (S106) to the UE an RRC connection resume message, the RRC connection resume message indicating a short processing time; and when short processing time conditions do not exist, sending (S108) to the UE an RRC connection resume message, the RRC connection resume message indicating a legacy processing time, wherein the legacy processing time is longer than the short processing time. determining (S104) when short processing time conditions exist in relation to the establishment or reconfiguration of the RRC connection for the UE; when short processing time conditions exist, sending (S106) to the UE an RRC connection resume message, the RRC connection resume message indicating a short processing time; and when short processing time conditions do not exist, sending (S108) to the UE an RRC connection resume message, the RRC connection resume message indicating a legacy processing time, wherein the legacy processing time is longer than the short processing time.
A method of reducing signaling during link setup in a wireless communication system , the method comprising: receiving , at a wireless communication device from a network service provider , a first message indicating a characteristic for each of one or more network services, wherein the characteristic for each of the one or more network services comprises a load value for each of the one or more network services; selecting , at the wireless communication device , a network service of the one or more network services to associate with based on the characteristics; generating, at the wireless communication device , an access request message for requesting information to obtain the network service; queuing the access request message for transmission on the channel in a queue; and while the access request message is in the queue, receiving a second message comprising the information expected in response to the queued access request message; and removing the access request message from the queue based on the received information. receiving , at a wireless communication device from a network service provider , a first message indicating a characteristic for each of one or more network services, wherein the characteristic for each of the one or more network services comprises a load value for each of the one or more network services; selecting , at the wireless communication device , a network service of the one or more network services to associate with based on the characteristics; generating, at the wireless communication device , an access request message for requesting information to obtain the network service; queuing the access request message for transmission on the channel in a queue; and while the access request message is in the queue, receiving a second message comprising the information expected in response to the queued access request message; and removing the access request message from the queue based on the received information.
A system to account for patient movement during laser eye surgery, comprising: a femtosecond laser source configured to produce a treatment beam that includes a plurality of laser pulses; a patient interface; an integrated optical scanning assembly configured to receive the treatment beam, direct the treatment beam through the patient interface to selected treatment locations within the eye so as to incise tissue at selected treatment locations, wherein the patient interface includes at least three piezoelectric force sensors in communication with a computer subsystem; a floating base assembly including three axis motorized bearing assemblies, the integrated optical scanning assembly being mounted to the floating base assembly; wherein the three axis motorized bearing assemblies are in communication with the computer subsystem and are configured to move the floating base assembly to counteract patient movement as detected by the force sensors; and a three axis motorized chair assembly in communication with the computer subsystem, the three axis motorized chair assembly configured to move the chair assembly to counteract patient movement as detected by the force sensors. a femtosecond laser source configured to produce a treatment beam that includes a plurality of laser pulses; a patient interface; an integrated optical scanning assembly configured to receive the treatment beam, direct the treatment beam through the patient interface to selected treatment locations within the eye so as to incise tissue at selected treatment locations, wherein the patient interface includes at least three piezoelectric force sensors in communication with a computer subsystem; a floating base assembly including three axis motorized bearing assemblies, the integrated optical scanning assembly being mounted to the floating base assembly; wherein the three axis motorized bearing assemblies are in communication with the computer subsystem and are configured to move the floating base assembly to counteract patient movement as detected by the force sensors; and a three axis motorized chair assembly in communication with the computer subsystem, the three axis motorized chair assembly configured to move the chair assembly to counteract patient movement as detected by the force sensors.
Coil with a distributed winding formed from a plurality of hairpins , wherein the hairpins each have two straight conductor portions which are arranged in different grooves of a coil body , wherein contact regions (2.1) which are formed in the circumferential direction adjoin the conductor portions at one axial end, and the conductor portions are connected at the other axial end by a turning region, wherein an even number of conductor portions is provided in the radial direction in layers (3; 3.1; 3.2) in the grooves of the coil body , wherein the contact regions (2.1) have a connecting portion at their end facing away from the coil body and the connecting portions are aligned in radially running rows, wherein the contact regions (2.1) of a layer (3; 3.1; 3.2) are formed in the same circumferential direction, characterized in that some of the contact regions (2.1) of an outer layer (3.1; 3.2) are deformed in the radial direction in order to form an additional layer (4; 4.1; 4.2), as a result of which the contact regions (2.1) are arranged in more layers than conductor portions in the grooves, and these contact regions (2.1) are formed in a circumferential direction opposite to the contact regions (2.1) of the outer layer (3.1; 3.2), as a result of which the contact regions (2.1) of the additional layer (4; 4.1; 4.2) are arranged in the same row with contact regions (2.1) of the outer layer (3.1; 3.2) for direct connection to these.
A system for visualizing multiple signals sensed by multiple electrodes of a multi-electrode catheter, comprising: a display ; and a processor , configured to: receive multiple signals sensed by multiple electrodes of a multi-electrode catheter in a heart of a patient ; determine which of the electrodes are to be active in an ablation procedure; and present the multiple signals to a user , on the display, using a graphical user interface (GUI) that (i) visualizes the signals from the electrodes determined to be active by a first graphical feature, and (ii) visualizes the signals from the electrodes determined not to be active by a second graphical feature, different from the first graphical feature. a display ; and a processor , configured to: receive multiple signals sensed by multiple electrodes of a multi-electrode catheter in a heart of a patient ; determine which of the electrodes are to be active in an ablation procedure; and present the multiple signals to a user , on the display, using a graphical user interface (GUI) that (i) visualizes the signals from the electrodes determined to be active by a first graphical feature, and (ii) visualizes the signals from the electrodes determined not to be active by a second graphical feature, different from the first graphical feature. receive multiple signals sensed by multiple electrodes of a multi-electrode catheter in a heart of a patient ; determine which of the electrodes are to be active in an ablation procedure; and present the multiple signals to a user , on the display, using a graphical user interface (GUI) that (i) visualizes the signals from the electrodes determined to be active by a first graphical feature, and (ii) visualizes the signals from the electrodes determined not to be active by a second graphical feature, different from the first graphical feature.
A method of producing one or more ketones by contacting a compound of formula (I) with basic catalyst and one or more alcohols or aldehydes of formula (II) to produce the one or more ketones selected from the group consisting of: and any mixtures thereof, wherein the compound of formula (I) and the compound of formula (II) have the following structures: wherein: R 7 is selected from alkyl, aryl, alkenyl, alkynyl, furyl, 5-methylfuryl, 5-hydroxymethylfuryl and heteroaryl; X is OH or O; and the dashed line represents an optional double bond that is present when X is O, the method further comprising hydrogenating the one or more ketones to one or more alkanes. wherein the term "alkyl" also includes "cycloalkyl". R 7 is selected from alkyl, aryl, alkenyl, alkynyl, furyl, 5-methylfuryl, 5-hydroxymethylfuryl and heteroaryl; X is OH or O; and
A method for controlling flight of an unmanned aerial vehicle, comprising: acquiring multiple pieces of locating data obtained by a locating operation in a remote controller, wherein the multiple pieces of locating data are determined through a locating operation performed by a locating module in the remote controller , in a case that the remote controller is moving on an edge of a flight region, the locating operation is executed by the remote controller according to a certain frequency; determining multiple target positions according to the multiple pieces of locating data ; calculating a flight route according to the multiple target positions ; and sending the flight route to the unmanned aerial vehicle for flight according to the flight route . acquiring multiple pieces of locating data obtained by a locating operation in a remote controller, wherein the multiple pieces of locating data are determined through a locating operation performed by a locating module in the remote controller , in a case that the remote controller is moving on an edge of a flight region, the locating operation is executed by the remote controller according to a certain frequency; determining multiple target positions according to the multiple pieces of locating data ; calculating a flight route according to the multiple target positions ; and sending the flight route to the unmanned aerial vehicle for flight according to the flight route .
A powder mixture consisting of • Iron based powder A and iron based powder B in a ratio between 90:10 and 50:50, wherein powder A contains 1.5-2.3 wt% pre-alloyed Cr, 0-0.3 wt% pre-alloyed Mo, and inevitable impurities, the balance being Fe; and powder B contains 2.4-3.6 wt% pre alloyed Cr, 0.30-0.70 wt% pre-alloyed Mo and inevitable impurities, the balance being Fe; • 0.4-0.9 wt% carbon, • 0.1-1.2 wt% lubricant; • solid lubricant in an amount of 0.1 - 1.5 wt%, and • inevitable impurities. • Iron based powder A and iron based powder B in a ratio between 90:10 and 50:50, wherein powder A contains 1.5-2.3 wt% pre-alloyed Cr, 0-0.3 wt% pre-alloyed Mo, and inevitable impurities, the balance being Fe; and powder B contains 2.4-3.6 wt% pre alloyed Cr, 0.30-0.70 wt% pre-alloyed Mo and inevitable impurities, the balance being Fe; • 0.4-0.9 wt% carbon, • 0.1-1.2 wt% lubricant; • solid lubricant in an amount of 0.1 - 1.5 wt%, and • inevitable impurities.
Radar sensor for driver assistance systems in motor vehicles, having a transmitting and receiving device with a plurality of transmitting and receiving channels for transmitting and receiving radar signals, an electronic evaluation device for evaluating the received signals, an electronic control device for controlling operating functions of the radar sensor, a self-monitoring device for detecting operating parameters of the radar sensor, wherein one of the detected operating parameters is the amplitude difference, measured using amplitude measuring circuits , or the phase difference, measured using phase measuring circuits , between the signals transmitted on two of the transmitting and receiving channels, and for comparing the detected operating parameters with respective target values, an actuating device for changing at least one of the detected operating parameters, and a control loop for controlling this operating parameter to its target value, characterized in that the self-monitoring device is designed to supply a test signal (T) to the receiving channels for the purpose of calibrating the amplitude or phase measuring circuits , with the result that the detected operating parameter is controlled to its target value.
A pet guard to transport pets in a boot ( B ) of a motorcar ( C ), the latter having a cabin ( I ) communicating with the boot ( B ), the pet guard comprising: - a barrier for the reciprocal separation of the boot ( B ) and the cabin ( I ) of the motorcar ( C ); - means to removably anchor said separating barrier to the motorcar ( C ); wherein said separating barrier includes at least one substantially continuous optically transparent element to allow the driver of the motocar to see behind the latter therethrough; characterized in that said optically transparent element is a plate, said anchoring means comprising a single elongated support bar to be removably fastened to the motorcar ( C ) which comprises at least one removable fastening element (2 3', 23 ") to removably fasten the plate to said support bar . - a barrier for the reciprocal separation of the boot ( B ) and the cabin ( I ) of the motorcar ( C ); - means to removably anchor said separating barrier to the motorcar ( C ); wherein said separating barrier includes at least one substantially continuous optically transparent element to allow the driver of the motocar to see behind the latter therethrough; characterized in that said optically transparent element is a plate, said anchoring means comprising a single elongated support bar to be removably fastened to the motorcar ( C ) which comprises at least one removable fastening element (2 3', 23 ") to removably fasten the plate to said support bar .