mhurhangee/patent-ind-claim-en huggingface dataset:
Method for activating a parking brake (18-1, 20-1) of a motor vehicle, wherein the parking brake (18-1, 20-1) is activated automatically when the motor vehicle is at a standstill or the ignition is switched off, characterised in that after the automatic activation of the parking brake (18-1, 20-1) a current motor vehicle and/or surroundings situation is determined and is compared with stored motor vehicle and/or surroundings situations for which a rolling capacity of the motor vehicle at a standstill or with switched-off ignition is provided, wherein - when the determined current motor vehicle and/or surroundings situation corresponds to a stored motor vehicle and/or surroundings situation requiring a rolling capacity of the motor vehicle - it is signalled to the vehicle driver that the parking brake (18-1, 20-1) is to be deactivated, or the parking brake (18-1, 20-1) is automatically deactivated.
A method for connecting sheet metal parts to form lamination stacks in which sheet metal parts are stamped out of an electrical steel strip by means of at least one stamping stage , which has a die and a cutting edge that cooperates with the die , and the stamped-out sheet metal parts are stacked and at least integrally joined to form a plurality of lamination stacks ; at least between a first sheet metal part of the stacked sheet metal parts and the subsequent second sheet metal part of the stacked sheet metal parts , a separating element is provided in order to facilitate the separation of the integrally joined sheet metal parts in lamination stacks , characterized in that after the first sheet metal part is stamped out and before the second sheet metal part is stamped out, the separating element - which, in accordance with the die geometry, is smaller or of the same size - is conveyed to the die , is inserted into said die , and is thus provided to the first sheet metal part .
A light detecting device comprising: a laser light source for generating a light source pulse beam (Ps); a splitting section for splitting the light source pulse beam (Ps) into an excitation beam (Le), a first probe beam (Lp) and a second probe beam (Lr); a first modulating section for executing optical path length modulation that modulates a relative optical path length difference between the excitation beam (Le), and the first probe beam (Lp) and the second probe beam (Lr); a second modulating section for phase-modulating the first probe beam (Lp); and a detecting section for illuminating a combined beam (Lg), in which the excitation beam (Le), the first probe beam (Lp) and the second probe beam (Lr) are combined, onto a sample , and for detecting a stimulated Raman scattering signal that is generated, wherein a delay time between the first probe beam (Lp) and the second probe beam (Lr) is a fixed value, characterized in that the first modulating section is configured to execute the optical path length modulation at an optical path length difference that corresponds to an integer multiple of a length corresponding to a unit wavelength of the phase modulated first probe beam (Lp). a laser light source for generating a light source pulse beam (Ps); a splitting section for splitting the light source pulse beam (Ps) into an excitation beam (Le), a first probe beam (Lp) and a second probe beam (Lr); a first modulating section for executing optical path length modulation that modulates a relative optical path length difference between the excitation beam (Le), and the first probe beam (Lp) and the second probe beam (Lr); a second modulating section for phase-modulating the first probe beam (Lp); and a detecting section for illuminating a combined beam (Lg), in which the excitation beam (Le), the first probe beam (Lp) and the second probe beam (Lr) are combined, onto a sample , and for detecting a stimulated Raman scattering signal that is generated, wherein a delay time between the first probe beam (Lp) and the second probe beam (Lr) is a fixed value, characterized in that the first modulating section is configured to execute the optical path length modulation at an optical path length difference that corresponds to an integer multiple of a length corresponding to a unit wavelength of the phase modulated first probe beam (Lp).
A method for preparing a poly(phenylene ether), the method comprising: feeding air to a continuous flow reactor that contains a reaction mixture comprising a phenol, a transition metal catalyst, and an organic solvent; and oxidatively polymerizing the reaction mixture at a temperature of 20 to 60°C, preferably 25 to 55°C, more preferably 30 to 50°C and a pressure of greater than 150 kPa, preferably greater than or equal to 200 kPa, more preferably greater than or equal to 500 kPa, even more preferably greater than or equal to 1000 kPa to form a poly(phenylene ether); wherein the reaction mixture has a residence time in the continuous flow reactor of less than or equal to 30 minutes, preferably 3 to 20, more preferably 3 to 15 minutes. feeding air to a continuous flow reactor that contains a reaction mixture comprising a phenol, a transition metal catalyst, and an organic solvent; and oxidatively polymerizing the reaction mixture at a temperature of 20 to 60°C, preferably 25 to 55°C, more preferably 30 to 50°C and a pressure of greater than 150 kPa, preferably greater than or equal to 200 kPa, more preferably greater than or equal to 500 kPa, even more preferably greater than or equal to 1000 kPa to form a poly(phenylene ether); wherein the reaction mixture has a residence time in the continuous flow reactor of less than or equal to 30 minutes, preferably 3 to 20, more preferably 3 to 15 minutes.
A method in a network node comprising a gNB-Distributed Unit, DU, logical node and a gNB-Central Unit, CU, logical node for determining admission of a user equipment, UE, , the method comprising: the gNB-DU receiving a connection request from a UE ; in response to a determination that the gNB-DU is not able to serve the UE , sending an initial uplink radio resource control, UL RRC, message that does not include a configuration for signaling radio bearer 1, SRB1, from the gNB-DU to the gNB-CU ; in response to receiving, at the gNB-CU , the UL RRC message that does not include the configuration for SRB1, responding to the gNB-DU with a radio resource control, RRC, ConnectionReject message; and transmitting the RRC ConnectionReject message from the gNB-DU to the UE to reject the UE . the gNB-DU receiving a connection request from a UE ; in response to a determination that the gNB-DU is not able to serve the UE , sending an initial uplink radio resource control, UL RRC, message that does not include a configuration for signaling radio bearer 1, SRB1, from the gNB-DU to the gNB-CU ; in response to receiving, at the gNB-CU , the UL RRC message that does not include the configuration for SRB1, responding to the gNB-DU with a radio resource control, RRC, ConnectionReject message; and transmitting the RRC ConnectionReject message from the gNB-DU to the UE to reject the UE .
Primary optics assembly for use in a lighting device of a motor vehicle, the primary optics assembly comprising a plurality of primary optics elements arranged in matrix form next to and/or above one another, which each have a light entry surface at an end of a primary optical element which is proximal from the point of view of a light source, and a light exit surface at an end of the primary optical element which is distal from the point of view of the light source, and a cross-section which increases from the end which is proximal from the point of view of the light source to the end which is distal from the point of view of the light source, wherein along a longitudinal extension of the primary optical elements the cross-section is smaller than a distance between the entry surface and the exit surface , wherein the primary optical elements are made of a dimensionally stable but elastically deformable transparent material and are positioned and fastened by means of a holder to a light source or a light source carrier of the lighting device , the holder having holding elements for positioning the primary optical elements in the region of their proximal ends , the primary optical elements being formed in one piece with directly adjacent primary optical elements in the region of their distal ends , the outer primary optical elements of a plurality of primary optical elements arranged next to and above one another in a matrix-like manner having edge sections projecting radially outwards in the region of their distal ends, and wherein the holder has a circumferential bearing surface for the edge portions of the primary optical elements completely inserted into the holder , characterized in that the holder has a tension spring element , which fixes the primary optical elements relative to the holder when the primary optical elements are fully inserted into the holder , and the edge sections are clamped between the tension spring element and the bearing surface .
A method, comprising: receiving , by a security module, policy information associated with at least one security exception, the security exception relating to execution of at least one program; determining , by the security module, that the security exception should be monitored based, at least in part, on the policy information; causing , by the security module, monitoring for the security exception based on the determination that the security exception should be monitored; determining , by the security module, an operation associated with the security exception based, at least in part, on the policy information; and causing , by the security module, the operation to be performed, based, at least in part, on a determination that the at least one security exception occurred; wherein the determination that the at least one security exception occurred comprises sending, from the security module, a directive to an exception handler to provide an indication that the at least one security exception occurred; receiving an indication, from the exception handler , that the at least one security exception occurred; wherein the exception handler is in communication with the at least one program. receiving , by a security module, policy information associated with at least one security exception, the security exception relating to execution of at least one program; determining , by the security module, that the security exception should be monitored based, at least in part, on the policy information; causing , by the security module, monitoring for the security exception based on the determination that the security exception should be monitored; determining , by the security module, an operation associated with the security exception based, at least in part, on the policy information; and causing , by the security module, the operation to be performed, based, at least in part, on a determination that the at least one security exception occurred; wherein the determination that the at least one security exception occurred comprises sending, from the security module, a directive to an exception handler to provide an indication that the at least one security exception occurred; receiving an indication, from the exception handler , that the at least one security exception occurred; wherein the exception handler is in communication with the at least one program.
Scaffold plank comprising a floor and at least two head fittings, wherein the floor accommodates the head fittings on its end faces, wherein the floor is constructed in the form of a multilayer ply system of at least three plies, wherein the floor comprises a lightweight core ply, in particular of a thermoplastic or thermosetting honeycomb material or a foam, and an upper chord as covering ply on an upper side of the core ply and a lower chord as covering ply under the core ply, characterized in that the upper chord comprises at least one UV sensor. wherein the floor accommodates the head fittings on its end faces, wherein the floor is constructed in the form of a multilayer ply system of at least three plies, wherein the floor comprises a lightweight core ply, in particular of a thermoplastic or thermosetting honeycomb material or a foam, and an upper chord as covering ply on an upper side of the core ply and a lower chord as covering ply under the core ply, characterized in that the upper chord comprises at least one UV sensor.
An exhalation port for noninvasive ventilation therapy comprising: an elongate body , said elongate body being hollow and defining a lumen to carry a flow of gases, a center portion ; a plurality of holes arranged on a portion of the elongate body , the holes configured to vent gases through the elongate body ; a shroud extending from the elongate body , the shroud surrounding one or more of the plurality of holes , the shroud comprising a wall; characterized in that a plurality of alternating recessed strips and ridges are provided on the wall of the shroud , the recessed strips and the ridges starting from the outer surface of the shroud and extending toward the center portion ; wherein the exhalation port is arranged to removably connect in-line with a circuit for delivering gases to a patient; and wherein the shroud has an outside surface , and wherein a plurality of notches are spaced around the outside surface . an elongate body , said elongate body being hollow and defining a lumen to carry a flow of gases, a center portion ; a plurality of holes arranged on a portion of the elongate body , the holes configured to vent gases through the elongate body ; a shroud extending from the elongate body , the shroud surrounding one or more of the plurality of holes , the shroud comprising a wall; characterized in that a plurality of alternating recessed strips and ridges are provided on the wall of the shroud , the recessed strips and the ridges starting from the outer surface of the shroud and extending toward the center portion ; wherein the exhalation port is arranged to removably connect in-line with a circuit for delivering gases to a patient; and wherein the shroud has an outside surface , and wherein a plurality of notches are spaced around the outside surface .
A method, performed by a network node (130; 110; 111), for managing transmit power of a wireless device , the network node (130; 110; 111) being comprised in a wireless communication network comprising cells for serving the wireless device , said cells forming at least one imbalance region in which the wireless device has the best quality in the downlink to a first cell of a first type and in the uplink to a second cell of a different, second type, wherein the method comprises: - identifying (301; 601) a situation associated with a risk for undesired increase of transmit power used by the wireless device when the wireless device moves in the imbalance region , and - providing (302; 602), in response to the identified situation, power control that makes the wireless device increase transmit power slower than else would be the case, wherein said power control is provided by decreasing a power variation range associated with how much transmit power control, "TPC", commands being sent to the wireless device over a certain time period are able to increase transmit power of the wireless device . - identifying (301; 601) a situation associated with a risk for undesired increase of transmit power used by the wireless device when the wireless device moves in the imbalance region , and - providing (302; 602), in response to the identified situation, power control that makes the wireless device increase transmit power slower than else would be the case, wherein said power control is provided by decreasing a power variation range associated with how much transmit power control, "TPC", commands being sent to the wireless device over a certain time period are able to increase transmit power of the wireless device .
Pouring element for a composite package, comprising a main body with a pouring tube and a circumferential fastening flange , a hollow cylindrical cutting element concentrically arranged and movably guided in the pouring tube and a resealable screw cap , wherein the cutting element can be driven by the screw cap for the first opening of the composite package and wherein at least two guide ribs formed internally on the pouring tube interact correspondingly with transfer means formed externally on the cutting element , such that an opening path is defined with an at least predominantly axial piercing segment upstream and followed by a purely rotational segment about the longitudinal axis (A) of the pouring tube , wherein the cutting element is arranged such that it can be guided along the opening path, characterised in that the pouring tube has at least two first safety elements which, together with the at least two guide ribs , are designed to achieve guidance on both sides for the transfer means of the cutting element along the piercing and/or rotational segment of the opening path.
Two-wheeled vehicle with a holding element, in particular, a scooter having a two-wheeled vehicle frame with a steering head for receiving a front wheel fork and for equipping with the holding element for loads on the two-wheeled vehicle, wherein the holding element has a attachment section for applying to a attachment area of the two-wheeled vehicle, and has securing means for the attachment section which fix the attachment section to the attachment area during the application, characterized in that the two-wheeled vehicle has an eyelet-shaped stop element in the attachment area in the area of the steering head , on which eyelet-shaped stop element the holding element may be applied using its attachment section , and through whose eyelet the securing means may be guided.
A method for providing an access code on a portable device that has a user interface and is configured for wireless data communication, in which - reference data for authentication are stored in a central data processing facility , wherein the reference data comprise personal data containing biometric reference data for a user of the portable device and a device identifier for the portable device , - an authentication process in which the user is authenticated is carried out in response to a detected event, wherein in order to authenticate the user, in the central data processing facility and/or in the portable device , the reference data and authentication data are evaluated, which comprise personal authentication data for the user, including biometric authentication data, and an authentication device identifier for the portable device , and - an access code is supplied in the portable device in response to a successful authentication, which access code is evaluated to determine access authorization of the user by an access control device and which is provided as a spatially limited access code that is deleted when it is determined that the portable device is leaving a predefined location area after providing the access code in the portable device , wherein the authentication process is initiated by means of an application running on the portable device , when it is detected that a predetermined location has been reached. - reference data for authentication are stored in a central data processing facility , wherein the reference data comprise personal data containing biometric reference data for a user of the portable device and a device identifier for the portable device , - an authentication process in which the user is authenticated is carried out in response to a detected event, wherein in order to authenticate the user, in the central data processing facility and/or in the portable device , the reference data and authentication data are evaluated, which comprise personal authentication data for the user, including biometric authentication data, and an authentication device identifier for the portable device , and - an access code is supplied in the portable device in response to a successful authentication, which access code is evaluated to determine access authorization of the user by an access control device and which is provided as a spatially limited access code that is deleted when it is determined that the portable device is leaving a predefined location area after providing the access code in the portable device ,
A sensor comprising: a conductive region in electrical communication with at least two electrodes, the conductive region including a conductive material including single-walled carbon nanotubes and an alkene-interacting metal complex, characterised by the alkene-interacting metal complex including a metal macrocycle complex capable of forming a stable complex by reaction with an alkene, wherein the metal macrocycle complex is a cobalt(III)porphyrin.
A pharmaceutical formulation comprising Echistatin, VP12, and a pharmaceutically acceptable carrier.
A pressure-compensated magnetic valve , in particular for an air suspension system of a vehicle, comprising: - an electrically energizable coil , and - a magnetic armature movably mounted with reference to a longitudinal axis (A) of the coil , - a plunger connected to the magnetic armature , wherein - both the magnetic armature and the plunger are out-of-tool components, and characterized in that - the plunger is slipped onto the magnetic armature so that it at least partially encloses the magnetic armature , and the magnetic armature in the enclosed region comprises at least one axially extending, outer channel which contributes to pressure compensation. - an electrically energizable coil , and - a magnetic armature movably mounted with reference to a longitudinal axis (A) of the coil , - a plunger connected to the magnetic armature , wherein - both the magnetic armature and the plunger are out-of-tool components, and characterized in that - the plunger is slipped onto the magnetic armature so that it at least partially encloses the magnetic armature , and the magnetic armature in the enclosed region comprises at least one axially extending, outer channel which contributes to pressure compensation.