mhurhangee/ep-ind-claims huggingface dataset:
A control method for a user equipment, the control method comprising: receiving scheduling request configuration information related to a sidelink; selecting a scheduling request configuration for a scheduling request related to the sidelink according to at least one of a plurality of principles based on the received scheduling request configuration information; and performing the scheduling request related to the sidelink based on the selected scheduling request configuration, wherein the scheduling request configuration information is received from at least a network side or a base station side and comprises a scheduling request configuration identity, ID, or a specific scheduling request configuration, and the plurality of principles comprise: the selected scheduling request configuration corresponds to a scheduling request prohibit timer that is not active or running, the selected scheduling request configuration corresponds to valid Physical Uplink Control Channel, PUCCH, resources, and the selected scheduling request configuration corresponds to a logical channel priority that is equivalent to a sidelink logical channel priority. receiving scheduling request configuration information related to a sidelink; selecting a scheduling request configuration for a scheduling request related to the sidelink according to at least one of a plurality of principles based on the received scheduling request configuration information; and performing the scheduling request related to the sidelink based on the selected scheduling request configuration, wherein the scheduling request configuration information is received from at least a network side or a base station side and comprises a scheduling request configuration identity, ID, or a specific scheduling request configuration, and the plurality of principles comprise: the selected scheduling request configuration corresponds to a scheduling request prohibit timer that is not active or running, the selected scheduling request configuration corresponds to valid Physical Uplink Control Channel, PUCCH, resources, and the selected scheduling request configuration corresponds to a logical channel priority that is equivalent to a sidelink logical channel priority. the selected scheduling request configuration corresponds to a scheduling request prohibit timer that is not active or running, the selected scheduling request configuration corresponds to valid Physical Uplink Control Channel, PUCCH, resources, and the selected scheduling request configuration corresponds to a logical channel priority that is equivalent to a sidelink logical channel priority.
A method of 3D-printing producing a component for use in a lighting device, the component comprising a flexible substrate having a stiffness and a first shape, and a polymer material, the method comprising - printing the polymer material onto the flexible substrate in a printing structure; wherein an internal stress in the polymer material of the printing structure exerts a bending force on a surface area of the flexible substrate and causes the first shape of the flexible substrate to change into a second shape when the polymer material shrinks after printing. - printing the polymer material onto the flexible substrate in a printing structure;
An aircraft radar assembly comprising: a radome; a radar antenna housed within the radome, the radar antenna having an elongate surface for transmitting and/or receiving radar waves; and rotation means configured to rotate the radar antenna within the radome about a fixed axis of rotation; wherein the surface is oblique to the axis of rotation and has bilateral symmetry, the radar antenna is elongate in a direction of the axis of rotation, a width of the radar antenna tapers outwards in a direction of a longitudinal axis of the radar antenna from a first end of the radar antenna to an intermediate portion of the radar antenna, and the width of the radar antenna tapers inwards in the direction of the longitudinal axis of the radar antenna from the intermediate portion of the radar antenna to a second end of the radar antenna, the second end being opposite the first end. a radome; a radar antenna housed within the radome, the radar antenna having an elongate surface for transmitting and/or receiving radar waves; and rotation means configured to rotate the radar antenna within the radome about a fixed axis of rotation; wherein the surface is oblique to the axis of rotation and has bilateral symmetry, the radar antenna is elongate in a direction of the axis of rotation, a width of the radar antenna tapers outwards in a direction of a longitudinal axis of the radar antenna from a first end of the radar antenna to an intermediate portion of the radar antenna, and the width of the radar antenna tapers inwards in the direction of the longitudinal axis of the radar antenna from the intermediate portion of the radar antenna to a second end of the radar antenna, the second end being opposite the first end.
Camera assembly for motor vehicles comprising: - a housing (10, 20) having at least one opening for receiving a connector-adapter; and - an image sensor attached to an electronics carrier that is provided within the housing (10, 20) wherein it further includes - an insulating member fitted within the housing (10, 20) defining therein at least a first chamber and a second chamber, the insulating member being arranged such that the electronics carrier is intersected by the insulating member preventing matter from passing from the first chamber to the second chamber, wherein the electronics carrier is positioned such that the image sensor is in the second chamber and wherein the opening for receiving a connector-adapter is located in the first chamber, wherein the insulating member fits, surrounds and wraps a cross sectional portion of the electronics carrier and its components leaving no gaps between the insulating member and the electronics carrier and its components. - a housing (10, 20) having at least one opening for receiving a connector-adapter; and - an image sensor attached to an electronics carrier that is provided within the housing (10, 20) wherein it further includes - an insulating member fitted within the housing (10, 20) defining therein at least a first chamber and a second chamber, the insulating member being arranged such that the electronics carrier is intersected by the insulating member preventing matter from passing from the first chamber to the second chamber, - an insulating member fitted within the housing (10, 20) defining therein at least a first chamber and a second chamber, the insulating member being arranged such that the electronics carrier is intersected by the insulating member preventing matter from passing from the first chamber to the second chamber, wherein the electronics carrier is positioned such that the image sensor is in the second chamber and wherein the opening for receiving a connector-adapter is located in the first chamber, wherein the insulating member fits, surrounds and wraps a cross sectional portion of the electronics carrier and its components leaving no gaps between the insulating member and the electronics carrier and its components.
Rotor for an electric machine, having a winding head and a winding head ring which is shrink-fitted radially on the outside onto the winding head and comprises a shape memory material, - wherein the shape memory material comprises a metallic shape memory wire, - wherein the shape memory wire has at least one preferred direction which is substantially in a circumferential direction of the winding head ring, - wherein the shape memory wire in the winding head ring is in the form of a helix, - wherein the winding head ring comprises a plastic which is reinforced with fibres, - the fibres have a preferred direction which is substantially in an axial direction of the winding head ring or is at an angle relative to the circumferential direction of the winding head ring, said angle being from 15° to 75°, - wherein the preferred direction of the fibres is different to the at least one preferred direction of the shape memory wire, and - wherein the two preferred directions deviate from one another at least by 15°. - wherein the shape memory material comprises a metallic shape memory wire, - wherein the shape memory wire has at least one preferred direction which is substantially in a circumferential direction of the winding head ring, - wherein the shape memory wire in the winding head ring is in the form of a helix, - wherein the winding head ring comprises a plastic which is reinforced with fibres, - the fibres have a preferred direction which is substantially in an axial direction of the winding head ring or is at an angle relative to the circumferential direction of the winding head ring, said angle being from 15° to 75°, - wherein the preferred direction of the fibres is different to the at least one preferred direction of the shape memory wire, and - wherein the two preferred directions deviate from one another at least by 15°.
Gas heating system suited to be applied to a gas transiting between an inlet duct and an outlet duct, in which the pressure of said gas in said inlet duct exceeds the pressure of said gas in said outlet duct, comprising: - thermal power generation means (4; 4') suited to heat said gas between said inlet duct and said outlet duct; - said thermal power generation means (4; 4') comprising means (7; 7') for heating a heating fluid and means (6; 6') for exchanging thermal energy between said heating fluid and said gas; - gas pressure reducing means; - control means of said thermal power generation means (4; 4'); - means for measuring the instantaneous flow rate (Qu,gas) after the reduction of its pressure of said gas in said outlet duct connected to said control means of said thermal power generation means (4; 4'); characterized in that said control means are adapted to calculate the heating fluid delivery temperature (T1, H2O) at which the heating fluid water must flow from the heating means (7; 7') using said instantaneous flow rate (Qu,gas) measured after the reduction of its pressure and an estimated value of the heating system's efficiency (E 1) and the value of the effective thermal power (C 2) to be transferred to said incoming gas in said inlect duct by said thermal power generation means (4, 4'). - thermal power generation means (4; 4') suited to heat said gas between said inlet duct and said outlet duct; - said thermal power generation means (4; 4') comprising means (7; 7') for heating a heating fluid and means (6; 6') for exchanging thermal energy between said heating fluid and said gas; - gas pressure reducing means; - control means of said thermal power generation means (4; 4'); - means for measuring the instantaneous flow rate (Qu,gas) after the reduction of its pressure of said gas in said outlet duct connected to said control means of said thermal power generation means (4; 4');
A valve train assembly comprising: a cam mounted on a cam shaft; a hydraulic lash adjuster for adjusting for lash in the valve train assembly, the hydraulic lash adjuster comprising: a first body; a second body mounted for reciprocal sliding movement with respect to the first body; a first biasing means biased to move the second body so as to extend the hydraulic lash adjuster; a chamber between the first and second bodies for receiving hydraulic fluid via a hydraulic fluid input valve in response to the second body moving so as to extend the hydraulic lash adjuster; wherein the valve train assembly further comprises: a pressure relief valve, separate from the hydraulic fluid input valve, operable to release fluid from the chamber to enable the second body to be moved so as to retract the hydraulic lash adjuster; an actuator means for opening the pressure relief valve; characterised in that: the actuator means is at least in part provided on the cam or the cam shaft. a cam mounted on a cam shaft; a hydraulic lash adjuster for adjusting for lash in the valve train assembly, the hydraulic lash adjuster comprising: a first body; a second body mounted for reciprocal sliding movement with respect to the first body; a first biasing means biased to move the second body so as to extend the hydraulic lash adjuster; a chamber between the first and second bodies for receiving hydraulic fluid via a hydraulic fluid input valve in response to the second body moving so as to extend the hydraulic lash adjuster; wherein the valve train assembly further comprises: a pressure relief valve, separate from the hydraulic fluid input valve, operable to release fluid from the chamber to enable the second body to be moved so as to retract the hydraulic lash adjuster; an actuator means for opening the pressure relief valve; characterised in that: the actuator means is at least in part provided on the cam or the cam shaft. a first body; a second body mounted for reciprocal sliding movement with respect to the first body; a first biasing means biased to move the second body so as to extend the hydraulic lash adjuster; a chamber between the first and second bodies for receiving hydraulic fluid via a hydraulic fluid input valve in response to the second body moving so as to extend the hydraulic lash adjuster; wherein the valve train assembly further comprises: a pressure relief valve, separate from the hydraulic fluid input valve, operable to release fluid from the chamber to enable the second body to be moved so as to retract the hydraulic lash adjuster; an actuator means for opening the pressure relief valve; characterised in that: the actuator means is at least in part provided on the cam or the cam shaft. a pressure relief valve, separate from the hydraulic fluid input valve, operable to release fluid from the chamber to enable the second body to be moved so as to retract the hydraulic lash adjuster; an actuator means for opening the pressure relief valve; the actuator means is at least in part provided on the cam or the cam shaft.
A light beam position detector, specifically configured for use in a laser-leveling receiver, with ▪ a detection window for detecting a position of a striking light beam within the detection window, o which detection window comprises a first PSD as Position Sensitive Device based on the lateral photoelectric effect, and o which detection window further comprises at least a second PSD as Position Sensitive Device based on the lateral photoelectric effect, being aligned in a geometrical line in succession with the first PSD, so that the geometrical line and the directions of position sensitivity of the first and the at least second PSDs are arranged in the same direction and the first PSD and the at least second PSD define a length of the detection window for position determination, which extends beyond a maximum physical length of the sensor areas of the first and the second PSD for position determination, and ▪ with an electronic readout circuitry for the first and the at least second PSD (1a, 1b) which is configured to evaluate the position of a striking light beam within the detection window. ▪ a detection window for detecting a position of a striking light beam within the detection window, o which detection window comprises a first PSD as Position Sensitive Device based on the lateral photoelectric effect, and o which detection window further comprises at least a second PSD as Position Sensitive Device based on the lateral photoelectric effect, being aligned in a geometrical line in succession with the first PSD, so that the geometrical line and the directions of position sensitivity of the first and the at least second PSDs are arranged in the same direction and the first PSD and the at least second PSD define a length of the detection window for position determination, which extends beyond a maximum physical length of the sensor areas of the first and the second PSD for position determination, and o which detection window comprises a first PSD as Position Sensitive Device based on the lateral photoelectric effect, and o which detection window further comprises at least a second PSD as Position Sensitive Device based on the lateral photoelectric effect, being aligned in a geometrical line in succession with the first PSD, so that the geometrical line and the directions of position sensitivity of the first and the at least second PSDs are arranged in the same direction and the first PSD and the at least second PSD define a length of the detection window for position determination, which extends beyond a maximum physical length of the sensor areas of the first and the second PSD for position determination, and ▪ with an electronic readout circuitry for the first and the at least second PSD (1a, 1b) which is configured to evaluate the position of a striking light beam within the detection window.
A covalent complex of von Willebrand factor or variants thereof and variants of Factor VIII, which comprises a half-life extending moiety, provided that said variants of Factor VIII retain at least 10% of the biological activity of the wild-type FVIII, wherein Factor VIII is modified so that it forms a disulphide bridge with VWF, whereby Factor VIII is modified by substitution of a naturally occurring amino acid with a cysteine residue or the insertion of a cysteine residue which forms a disulphide bridge with a cysteine residue in von Willebrand factor. wherein Factor VIII is modified so that it forms a disulphide bridge with VWF, whereby Factor VIII is modified by substitution of a naturally occurring amino acid with a cysteine residue or the insertion of a cysteine residue which forms a disulphide bridge with a cysteine residue in von Willebrand factor.
An electrochemical method for producing, nanowires and/or nanotubes containing Si directly from a powdered mixture containing silicon compound SiO 2, wherein the method comprises: - the mixture containing SiO 2 is used as cathode and immersed in an electrolyte comprising a metal compound molten salt; - a cathodic potential is applied to electrolyse, and then one or more of nanowires and nanotubes containing Si are formed on the cathode electrode, wherein the Si containing nanowires have a diameter of less than 100 nm, the Si containing nanotubes have a diameter of less than 100 nm; and the potential applied between the cathode and the anode is less than 3.2 V, and the potential applied between the cathode and the anode is less than the electrolyte decomposition potential. - the mixture containing SiO 2 is used as cathode and immersed in an electrolyte comprising a metal compound molten salt; - a cathodic potential is applied to electrolyse, and then one or more of nanowires and nanotubes containing Si are formed on the cathode electrode,
Method for diagnosing the operating state of at least one railroad component of a railroad network for rail transport, which railroad component comprises at least one first measuring device for recording first measured values of at least one measurement variable for describing the operating state of the railroad component, having the following method steps of: - recording the first measured values using the first measuring device, - recording further, second measured values which are independent of the operating state of the railroad component using at least one further, second measuring device, - transmitting at least the first measured values to a control center arranged on the line, - evaluating at least the first measured values in the control center using a predefined algorithm taking into account the second measured values, wherein the first measured values are evaluated using the predefined algorithm in direct dependence on the second measured values, and - providing at least one result of the evaluation for output. - recording the first measured values using the first measuring device, - recording further, second measured values which are independent of the operating state of the railroad component using at least one further, second measuring device, - transmitting at least the first measured values to a control center arranged on the line, - evaluating at least the first measured values in the control center using a predefined algorithm taking into account the second measured values, wherein the first measured values are evaluated using the predefined algorithm in direct dependence on the second measured values, and - providing at least one result of the evaluation for output.
A computing device comprising: a receiver to receive a notification signal over a second frequency band from a radio frequency identification (RFID) device, wherein the notification signal is transmitted from the RFID device in response to receipt by the RFID device of a particular interrogation signal from a RFID reader device over a first frequency band, the computing device being distinct from the RFID reader device, wherein the second frequency band is distinct from the first frequency band, and wherein the notification signal includes data indicating that the particular interrogation signal was received at the RFID device; and a processor coupled to the receiver, wherein the processor is configured to determine information indicating a geographic location of the computing device, and wherein the processor is configured to send a message to a monitoring system to activate a camera (170, 180) of the monitoring system in an area approximate to the geographic location of the computing device in response to receipt of the notification by the receiver. a receiver to receive a notification signal over a second frequency band from a radio frequency identification (RFID) device, wherein the notification signal is transmitted from the RFID device in response to receipt by the RFID device of a particular interrogation signal from a RFID reader device over a first frequency band, the computing device being distinct from the RFID reader device, wherein the second frequency band is distinct from the first frequency band, and wherein the notification signal includes data indicating that the particular interrogation signal was received at the RFID device; and a processor coupled to the receiver, wherein the processor is configured to determine information indicating a geographic location of the computing device, and wherein the processor is configured to send a message to a monitoring system to activate a camera (170, 180) of the monitoring system in an area approximate to the geographic location of the computing device in response to receipt of the notification by the receiver.
A motor vehicle control system for controlling a plurality of vehicle subsystems to operate in a plurality of subsystem control modes in dependence on one or more of a plurality of terrain indicators that are indicative of a driving surface, the system being operable in an automatic control mode selection condition in which the system is configured to determine said driving surface automatically and to cause each of the plurality of vehicle subsystems to operate in a predetermined one of said plurality of subsystem control modes in dependence on the determined driving surface, characterized in that the system is configured to determine if an interruption in powertrain torque occurs and, in dependence on the identification of a powertrain torque interruption event: to temporarily suspend causing an automatic change to said predetermined one of said plurality of subsystem control modes in which each subsystem is operating; and, to either suspend changes in a predetermined one or more of the plurality of terrain indicators or to reduce a weight applied to one or more of the plurality of terrain indicators in estimating the most appropriate control mode for the determined driving surface.