mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a wireless device from a first network, one or more messages comprising: an authentication and/or authorization, AA, status of the wireless device indicating whether the wireless device is authenticated and/or authorized for an aerial service; and a parameter indicating that an interface between the first network and a second network is not supported; and sending, by the wireless device to a network function of the second network, a message, wherein the message: comprises the AA status based on the parameter indicating that there is no interface; and the method is characterized in that the message indicates a duration during which the AA status is valid. receiving, by a wireless device from a first network, one or more messages comprising: an authentication and/or authorization, AA, status of the wireless device indicating whether the wireless device is authenticated and/or authorized for an aerial service; and a parameter indicating that an interface between the first network and a second network is not supported; and an authentication and/or authorization, AA, status of the wireless device indicating whether the wireless device is authenticated and/or authorized for an aerial service; and a parameter indicating that an interface between the first network and a second network is not supported; and sending, by the wireless device to a network function of the second network, a message, wherein the message: comprises the AA status based on the parameter indicating that there is no interface; and the method is characterized in that the message indicates a duration during which the AA status is valid. comprises the AA status based on the parameter indicating that there is no interface; and the method is characterized in that the message indicates a duration during which the AA status is valid.
An apparatus for a User Equipment, UE, configured to communicate with an evolved universal terrestrial radio access network, E-UTRAN, to receive a schedule for uplink/downlink, UL/DL, communications, the apparatus comprising: circuitry configured to: detect downlink control information, DCI, transmitted with an enhanced interference mitigation and traffic adaptation, eIMTA, Radio Network Temporary Identifier, RNTI, from an E-UTRAN Node B, eNB, wherein the DCI indicates that an UL/DL configuration information is being signaled, and decode the UL/DL configuration information; and the apparatus is characterised by further comprising a processor configured to: determine a subframe number of a subframe in which the UL/DL configuration information was received, determine a delay for applying the UL/DL configuration based on the subframe number of the subframe in which the UL/DL configuration information was received, and apply the UL/DL configuration after the delay has elapsed. circuitry configured to: detect downlink control information, DCI, transmitted with an enhanced interference mitigation and traffic adaptation, eIMTA, Radio Network Temporary Identifier, RNTI, from an E-UTRAN Node B, eNB, wherein the DCI indicates that an UL/DL configuration information is being signaled, and decode the UL/DL configuration information; and detect downlink control information, DCI, transmitted with an enhanced interference mitigation and traffic adaptation, eIMTA, Radio Network Temporary Identifier, RNTI, from an E-UTRAN Node B, eNB, wherein the DCI indicates that an UL/DL configuration information is being signaled, and decode the UL/DL configuration information; and the apparatus is characterised by further comprising a processor configured to: determine a subframe number of a subframe in which the UL/DL configuration information was received, determine a delay for applying the UL/DL configuration based on the subframe number of the subframe in which the UL/DL configuration information was received, and apply the UL/DL configuration after the delay has elapsed. determine a subframe number of a subframe in which the UL/DL configuration information was received, determine a delay for applying the UL/DL configuration based on the subframe number of the subframe in which the UL/DL configuration information was received, and apply the UL/DL configuration after the delay has elapsed.
A compound according to formula I wherein: X is S; R 1 is H; R 2 is Z and Z is phenyl, optionally substituted at meta or para position, or at both positions, with one or two substituents selected from the list consisting of -NO 2, halogen, CF 3, (1C-4C)alkyl and methoxy; or Z is thien-2-yl, optionally substituted at position 3, 4 or 5 with halogen; or Z is N-methylpyrol-3-yl or benzo[b]thien-2-yl or 2-naphthalenyl; R 3,R 4 are H,H or H,CH 3 or CH 3,CH 3; R 5 is H; R 6 is halogen or methoxy; or a pharmaceutically acceptable addition salt thereof. X is S; R 1 is H; R 2 is Z and Z is phenyl, optionally substituted at meta or para position, or at both positions, with one or two substituents selected from the list consisting of -NO 2, halogen, CF 3, (1C-4C)alkyl and methoxy; or Z is thien-2-yl, optionally substituted at position 3, 4 or 5 with halogen; or Z is N-methylpyrol-3-yl or benzo[b]thien-2-yl or 2-naphthalenyl; R 3,R 4 are H,H or H,CH 3 or CH 3,CH 3; R 5 is H; R 6 is halogen or methoxy; or a pharmaceutically acceptable addition salt thereof.
A switchgear having a plurality of conductive primary contacts supported by a bushing plate and constructed and arranged to connect to a terminal of a circuit breaker, and a cooling apparatus comprising: a plurality of evaporators, each constructed and arranged to be connected with each primary contact, a condenser apparatus located at a higher elevation than the plurality of evaporators with reference to the gravitational field, fluid conduit structure connecting the plurality of evaporators with the condenser apparatus, and an electrically insulating working fluid in the plurality of evaporators so as to be heated to a vapor state, with the fluid conduit structure being constructed and arranged to transfer the vapor to the condenser apparatus and to passively return condensed working fluid back to the plurality of evaporators, characterized in that each evaporator comprises: an evaporation chamber formed integrally with and within an associated conductive primary contact. a plurality of evaporators, each constructed and arranged to be connected with each primary contact, a condenser apparatus located at a higher elevation than the plurality of evaporators with reference to the gravitational field, fluid conduit structure connecting the plurality of evaporators with the condenser apparatus, and an electrically insulating working fluid in the plurality of evaporators so as to be heated to a vapor state, with the fluid conduit structure being constructed and arranged to transfer the vapor to the condenser apparatus and to passively return condensed working fluid back to the plurality of evaporators,
Method of manufacturing a glow plug comprising at least the steps of: - fitting-on a first metal tube, named distal tube, around a heating rod made of ceramic material; - joining a second metal tube, named proximal tube, by a distal end of the said proximal tube, around a proximal end of the distal tube and not end-to-end longitudinally; and - joining the proximal tube to a plug body in such a way that at least one distal portion of the proximal tube projects from a distal end of the plug body, - the length of the proximal tube is chosen so that the distance between the distal end of the plug body and the distal end of the heating rod is strictly greater than the length of said heating rod. - fitting-on a first metal tube, named distal tube, around a heating rod made of ceramic material; - joining a second metal tube, named proximal tube, by a distal end of the said proximal tube, around a proximal end of the distal tube and not end-to-end longitudinally; and - joining the proximal tube to a plug body in such a way that at least one distal portion of the proximal tube projects from a distal end of the plug body, - the length of the proximal tube is chosen so that the distance between the distal end of the plug body and the distal end of the heating rod is strictly greater than the length of said heating rod.
Method for decomposing a fluoroketone, in particular a fluoroketone containing exactly five carbon atoms, into disposable decomposition products, characterized in that the method comprises the step of bringing an initial gas mixture containing the fluoroketone into contact with a base B1 being an alcoholate, the pKa value of the respective conjugate acid being higher than 11.
A connector assembly adapted to connect a plug to a communication device, comprising: a receptacle adapted to be fixed on a circuit board of the communication device and mated with the plug; and a connection base adapted to be fixed on a housing panel of the communication device, characterized in that the connection base has a main body portion located outside the housing panel of the communication device, the connection base is formed with an insertion cavity adapted to receive at least a portion of the receptacle, and the connection base is in thermal contact with the receptacle. a receptacle adapted to be fixed on a circuit board of the communication device and mated with the plug; and a connection base adapted to be fixed on a housing panel of the communication device, characterized in that the connection base has a main body portion located outside the housing panel of the communication device, the connection base is formed with an insertion cavity adapted to receive at least a portion of the receptacle, and the connection base is in thermal contact with the receptacle.
A reciprocating compressor (100, 100A) including a crank mechanism which generates a driving force for reciprocating a piston in a cylinder so that gas flowing into the cylinder is compressed by using the piston reciprocating in the cylinder, the reciprocating compressor (100, 100A) comprising: a piston rod (150, 150A) extending along a predetermined central axis across an opening formed in an end of the cylinder, the piston rod (150, 150A) being coupled to the piston and the crank mechanism to transmit the driving force from the crank mechanism to the piston; a rear head through which the piston rod (150, 150A) extends, the rear head being configured to close the opening of the cylinder; and a rod ring portion configured to prevent the gas in the cylinder from leaking from a gap between the rear head and the piston rod (150, 150A), characterised in that the piston rod (150, 150A) includes an outer circumferential surface on which an annular groove portion is formed to surround the central axis of the piston rod (150, 150A), and wherein the rod ring portion includes: an inner circumferential portion which is fit into the annular groove portion; and an outer circumferential portion in sliding contact with an inner circumferential surface of the rear head while the piston rod (150, 150A) reciprocates in an extension direction of the central axis together with the piston. a piston rod (150, 150A) extending along a predetermined central axis across an opening formed in an end of the cylinder, the piston rod (150, 150A) being coupled to the piston and the crank mechanism to transmit the driving force from the crank mechanism to the piston; a rear head through which the piston rod (150, 150A) extends, the rear head being configured to close the opening of the cylinder; and a rod ring portion configured to prevent the gas in the cylinder from leaking from a gap between the rear head and the piston rod (150, 150A), characterised in that the piston rod (150, 150A) includes an outer circumferential surface on which an annular groove portion is formed to surround the central axis of the piston rod (150, 150A), and wherein the rod ring portion includes: an inner circumferential portion which is fit into the annular groove portion; and an outer circumferential portion in sliding contact with an inner circumferential surface of the rear head while the piston rod (150, 150A) reciprocates in an extension direction of the central axis together with the piston.
A detector for identifying a lane boundary from a digitalized optical image of the region in front of the vehicle, in which observed edges are marked, wherein the detector has the following features: - a correlator designed, in an image segment of the optical image, to subject the edges marked in the optical image to a convolution correlation and to weight the corresponding convolution response by a weighting factor in order to extract those edges having the N highest weighted convolution responses and to identify same as the lane boundary, N representing a predetermined natural number; - a histogram analysis unit designed to group the extracted edges into pairs and to determine a frequency distribution of the distances between two paired edges as a histogram, and to determine, from the frequency distribution, those distances between two grouped edges, forming a frequency peak or a frequency plateau in the histogram, as nominal edge widths, the histogram being determined on the basis of a transformation of the camera image coordinates into world coordinates, assuming a pitch angle during the acquisition of the optical image; and - a weighting factor determination unit designed to determine, for an edge, the weighting factor for a subsequent cycle of the convolution correlation in the correlator in such a way that the smaller the difference in the distance between the grouped edges and the nominal edge width, the greater the weight determined by the weighting factor for one edge of the paired edges. - a correlator designed, in an image segment of the optical image, to subject the edges marked in the optical image to a convolution correlation and to weight the corresponding convolution response by a weighting factor in order to extract those edges having the N highest weighted convolution responses and to identify same as the lane boundary, N representing a predetermined natural number; - a histogram analysis unit designed to group the extracted edges into pairs and to determine a frequency distribution of the distances between two paired edges as a histogram, and to determine, from the frequency distribution, those distances between two grouped edges, forming a frequency peak or a frequency plateau in the histogram, as nominal edge widths, the histogram being determined on the basis of a transformation of the camera image coordinates into world coordinates, assuming a pitch angle during the acquisition of the optical image; and - a weighting factor determination unit designed to determine, for an edge, the weighting factor for a subsequent cycle of the convolution correlation in the correlator in such a way that the smaller the difference in the distance between the grouped edges and the nominal edge width, the greater the weight determined by the weighting factor for one edge of the paired edges.
An apparatus for a User Equipment, UE, the apparatus comprising transceiver circuitry and hardware processing circuitry, the hardware processing circuitry to configure the transceiver circuitry to: receive a radio-resource control, RRC, message from an enhanced node B, eNB, the RRC message indicating a first bitmap and a second bitmap, wherein the first bitmap indicates subframes (742, 744, 746, 748) that are available for Device-to-Device, D2D, communication, and wherein the second bitmap corresponds to a Time Resource Pattern of Transmission, T-RPT (750, 760), the T-RPT (750, 760) comprising a subset of the subframes (742, 744, 746, 748) that are available for D2D communication; and generate a signal for a D2D transmission, for direct transmission to another UE, in one or more of the subframes of the subset, wherein the D2D transmission includes data for the other UE. receive a radio-resource control, RRC, message from an enhanced node B, eNB, the RRC message indicating a first bitmap and a second bitmap, wherein the first bitmap indicates subframes (742, 744, 746, 748) that are available for Device-to-Device, D2D, communication, and wherein the second bitmap corresponds to a Time Resource Pattern of Transmission, T-RPT (750, 760), the T-RPT (750, 760) comprising a subset of the subframes (742, 744, 746, 748) that are available for D2D communication; and generate a signal for a D2D transmission, for direct transmission to another UE, in one or more of the subframes of the subset, wherein the D2D transmission includes data for the other UE.
A bed, comprising a frame, a deck connected to the frame, a siderail (16, 17, 18, 19, 160) supported by either of the frame and the deck, the siderail including a base (22, 162) and a lock (30, 130), wherein the siderail also includes an extension (23, 163) having a retracted position adjacent the base and at least one deployed position spaced further from the base, and wherein the bed further comprises a lock (30, 130), characterized in that the lock (30, 130) resides in the base (22, 162) and is selectively engagable with and disengagable from the extension (23, 163) for resisting or enabling movement of the extension (23, 163) relative to the base (20, 162).
Exhaust gas sensor having a sensor element which is mounted in a passage channel of a first housing section, projects out of the passage channel with a section (1.1) on the exhaust gas side and, on this section (1.1) on the exhaust gas side of the sensor element, is surrounded by an outer protective tube and an inner protective tube, an annular gap being formed between the outer protective tube and the inner protective tube, and the inner protective tube having a shoulder, the first housing section on the outlet on the exhaust gas side of the passage channel having an annular ledge, on which the shoulder of the inner protective tube bears on the end and on the circumference, so that it engages around the annular ledge, and the outer protective tube bearing on an annular collar of the shoulder of the inner protective tube, so that the annular collar of the shoulder bears on the inner circumference of the outer protective tube, characterized in that the shoulder has at least one passage opening, and the annular gap opens into the outlet on the exhaust gas side of the passage channel via the at least one passage opening in the shoulder of the inner protective tube.
A battery module, characterized by comprising: a box having a cavity and having a bottom plate, a top plate and a side plate connecting the bottom plate and the top plate, wherein the side plate, the top plate and the bottom plate together form the cavity, and the side plate has ventilation holes communicating with the cavity; first spacers distributed on a surface of the bottom plate facing the cavity in order to form a plurality of first units; a plurality of batteries corresponding to the plurality of first units, wherein every two adjacent batteries are separated by one of the first spacers such that airflow passages are formed among the plurality of batteries; and a fan on the side plate communicating with the cavity for discharging an airflow entering the cavity through the ventilation holes away from the cavity through the airflow passages, wherein each of the first spacers has a height which is 5% to 10% of a height of a corresponding battery among the plurality of batteries. a box having a cavity and having a bottom plate, a top plate and a side plate connecting the bottom plate and the top plate, wherein the side plate, the top plate and the bottom plate together form the cavity, and the side plate has ventilation holes communicating with the cavity; first spacers distributed on a surface of the bottom plate facing the cavity in order to form a plurality of first units; a plurality of batteries corresponding to the plurality of first units, wherein every two adjacent batteries are separated by one of the first spacers such that airflow passages are formed among the plurality of batteries; and a fan on the side plate communicating with the cavity for discharging an airflow entering the cavity through the ventilation holes away from the cavity through the airflow passages, wherein each of the first spacers has a height which is 5% to 10% of a height of a corresponding battery among the plurality of batteries.
An insufflation gas warmer and humidifier apparatus (100, 100a, 100b, 100c, 100d, 100e) comprising: an inlet (160, 160b, 160c, 167) arranged to receive insufflation gas; an outlet (122, 122b, 122c, 120e); a passage (101, 101b, 101c, 101d, 101e) having at least one channel (130, 15) winding throughout an interior of the passage (101, 101b, 101c, 101d, 101e) and connected to the outlet (122, 122b, 122c, 120e); a warmer (200, 200b, 200c, 200d, 200e) connected to the passage; and a humidifying reservoir (151, 151b, 151c, 151d, 151e) connected to the passage (101, 101b, 101c, 101d, 101e); characterized in that the warmer includes an air permeable envelope containing a chemically reactive agent (245, 245b, 245d, 245e) configured to generate heat by reacting with oxygen in the air entering the envelope and a surface (210, 220) contacting the passage (101, 101b, 101c, 101d, 101e) to provide a direct contact to transfer heat to the passage (101, 101b, 101c, 101d, 101e). an inlet (160, 160b, 160c, 167) arranged to receive insufflation gas; an outlet (122, 122b, 122c, 120e); a passage (101, 101b, 101c, 101d, 101e) having at least one channel (130, 15) winding throughout an interior of the passage (101, 101b, 101c, 101d, 101e) and connected to the outlet (122, 122b, 122c, 120e); a warmer (200, 200b, 200c, 200d, 200e) connected to the passage; and a humidifying reservoir (151, 151b, 151c, 151d, 151e) connected to the passage (101, 101b, 101c, 101d, 101e); characterized in that the warmer includes an air permeable envelope containing a chemically reactive agent (245, 245b, 245d, 245e) configured to generate heat by reacting with oxygen in the air entering the envelope and a surface (210, 220) contacting the passage (101, 101b, 101c, 101d, 101e) to provide a direct contact to transfer heat to the passage (101, 101b, 101c, 101d, 101e).
A method for operating an exhaust gas aftertreatment system, having the following steps: - determining a permissible energy input into at least one exhaust gas aftertreatment element of the exhaust gas aftertreatment system; - ascertaining an instantaneous energy input into the at least one exhaust gas aftertreatment element by ascertaining at least one energy input variable which characterizes the instantaneous energy input, and - actuating an actuation device which varies, on the one hand, a distribution of an exhaust gas mass flow to the at least one exhaust gas aftertreatment element and, on the other hand, a bypass path which leads around the at least one exhaust gas aftertreatment element, as a function of the permissible energy input and the instantaneous energy input, wherein an exhaust gas mass flow through the at least one exhaust gas aftertreatment element and an exhaust gas temperature are ascertained as the energy input variable. - determining a permissible energy input into at least one exhaust gas aftertreatment element of the exhaust gas aftertreatment system; - ascertaining an instantaneous energy input into the at least one exhaust gas aftertreatment element by ascertaining at least one energy input variable which characterizes the instantaneous energy input, and - actuating an actuation device which varies, on the one hand, a distribution of an exhaust gas mass flow to the at least one exhaust gas aftertreatment element and, on the other hand, a bypass path which leads around the at least one exhaust gas aftertreatment element, as a function of the permissible energy input and the instantaneous energy input, wherein an exhaust gas mass flow through the at least one exhaust gas aftertreatment element and an exhaust gas temperature are ascertained as the energy input variable.