mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a network node for controlling a maximum output power of the network node located in a wireless communications network, wherein the network node comprises a Global Navigation Satellite System receiver, GNSS receiver, for receiving signals from the GNSS, the method comprising: determining whether a received GNSS signal transmitted from the GNSS is considered detectable, and when so: determining whether the received GNSS signal is received directly from the GNSS or via a GNSS repeater; and selecting a power control method for controlling the maximum output power of the network node, based on a result from the determining. determining whether a received GNSS signal transmitted from the GNSS is considered detectable, and when so: determining whether the received GNSS signal is received directly from the GNSS or via a GNSS repeater; and selecting a power control method for controlling the maximum output power of the network node, based on a result from the determining. determining whether the received GNSS signal is received directly from the GNSS or via a GNSS repeater; and selecting a power control method for controlling the maximum output power of the network node, based on a result from the determining.
A gear shift operation mechanism that rotates a shaft (18, 83, 84) in a shift direction by a main lever (14, 86), and moves the shaft (18, 83, 84) in a select direction by the main lever (14, 86), comprising: a screw shaft (31, 131) that configures a ball screw (13, 103); a motor (12, 102) that rotates the screw shaft (31, 131); a nut that is screwed onto the screw shaft (31, 131); a clutch (16, 106) that is disposed on the screw shaft (31, 131); and a select lever (17, 107) that is integrated with the screw shaft (31, 131) by switching on the clutch (16, 106), and has restraint cancelled with respect to the screw shaft (31, 131) by switching off the clutch (16, 106), wherein one end portion of the main lever (14, 86) is engaged with the nut, the other end is engaged with the shaft (18, 83, 84), and the select lever (17, 107) is engaged with the main lever (14, 86), characterized in that the one end portion of the main lever (14, 86) includes a pair of one end arm portions which are formed into a bifurcated shape, and cutout portions of the one end arm portions are respectively engaged with a pair of protruded pins of the nut to be swingable, the select lever (17, 107) is inserted between the pair of one end arm portions to have substantially no clearance and to be relatively movable with respect to the one end arm portions, and the clutch (16, 106) includes an armature (38, 138) and one end portion of the select lever (17, 107) is attached to the armature (38, 138). a screw shaft (31, 131) that configures a ball screw (13, 103); a motor (12, 102) that rotates the screw shaft (31, 131); a nut that is screwed onto the screw shaft (31, 131); a clutch (16, 106) that is disposed on the screw shaft (31, 131); and a select lever (17, 107) that is integrated with the screw shaft (31, 131) by switching on the clutch (16, 106), and has restraint cancelled with respect to the screw shaft (31, 131) by switching off the clutch (16, 106), wherein one end portion of the main lever (14, 86) is engaged with the nut, the other end is engaged with the shaft (18, 83, 84), and the select lever (17, 107) is engaged with the main lever (14, 86), characterized in that the one end portion of the main lever (14, 86) includes a pair of one end arm portions which are formed into a bifurcated shape, and cutout portions of the one end arm portions are respectively engaged with a pair of protruded pins of the nut to be swingable, the select lever (17, 107) is inserted between the pair of one end arm portions to have substantially no clearance and to be relatively movable with respect to the one end arm portions, and the clutch (16, 106) includes an armature (38, 138) and one end portion of the select lever (17, 107) is attached to the armature (38, 138).
A semiconductor device, comprising: - a first semiconductor layer of a first conductivity type; - a second semiconductor layer of the first conductive type comprising both a first main surface forming interface together with a main surface of the first semiconductor layer and a second main surface opposed to the first main surface, - a third semiconductor layer of a second conductivity type comprising a main surface which forms a second interface together with the second main surface of the second semiconductor layer, wherein a second lifetime (τ2) of carriers in the second semiconductor layer is smaller than a first lifetime (τ1) of carriers in the first semiconductor layer and is obtained by diffusion of a heavy metal through the semiconductor device, wherein - a resistance value in the second semiconductor layer decreases monotonically from the second interface to the first interface, and is obtained by ion implantation of an ion of an atom with an atomic number from 2 to 8. - a first semiconductor layer of a first conductivity type; - a second semiconductor layer of the first conductive type comprising both a first main surface forming interface together with a main surface of the first semiconductor layer and a second main surface opposed to the first main surface, - a third semiconductor layer of a second conductivity type comprising a main surface which forms a second interface together with the second main surface of the second semiconductor layer, wherein a second lifetime (τ2) of carriers in the second semiconductor layer is smaller than a first lifetime (τ1) of carriers in the first semiconductor layer and is obtained by diffusion of a heavy metal through the semiconductor device, wherein - a resistance value in the second semiconductor layer decreases monotonically from the second interface to the first interface, and is obtained by ion implantation of an ion of an atom with an atomic number from 2 to 8.
Drilling head for a drill bit having a top side for breaking down mineral material, a bottom side for fastening to a shaft of the drill bit, an axis of rotation, which runs centrally through the top side and the bottom side, arms, which each have a proximal end with respect to the axis of rotation and a distal end with respect to the axis of rotation, and wherein the top sides of the arms have primary chisel edges each running from the proximal end to the distal end, wherein at least one of the arms on the top side has a secondary chisel edge running alongside the primary chisel edge, wherein the secondary chisel edge is offset from the primary chisel edge of the same arm towards the front in a rotational direction of the drilling head, characterized in that the primary chisel edge and the secondary chisel edge between them delimit a channel on the top side of the arm, and in that the primary chisel edge continuously protrudes beyond the second chisel edge of the same arm in the impact direction. a top side for breaking down mineral material, a bottom side for fastening to a shaft of the drill bit, an axis of rotation, which runs centrally through the top side and the bottom side, arms, which each have a proximal end with respect to the axis of rotation and a distal end with respect to the axis of rotation, and wherein the top sides of the arms have primary chisel edges each running from the proximal end to the distal end, wherein at least one of the arms on the top side has a secondary chisel edge running alongside the primary chisel edge, wherein the secondary chisel edge is offset from the primary chisel edge of the same arm towards the front in a rotational direction of the drilling head, characterized in that the primary chisel edge and the secondary chisel edge between them delimit a channel on the top side of the arm, and in that the primary chisel edge continuously protrudes beyond the second chisel edge of the same arm in the impact direction.
A method for supporting a handover of a user equipment, UE, from a circuit switching, CS, network to a long term evolution, LTE network by a call manager in a wireless communication system, wherein the UE uses one radio channel and can access either the CS network or the LTE network, the method comprising: receiving, from a mobile switching centre, MSC, of the CS network, a handover request for a CS to PS handover from the CS network to the LTE network, the handover request including an international mobile subscriber identity, IMSI, for identifying the UE; allocating resources for PS bearers to an enhanced NodeB, eNB, of the LTE network so that the UE has at least one PS bearer; transmitting, to the MSC, a handover response such that a handover command indicating the CS to PS handover is transmitted to the UE; receiving, from the UE via the eNB, a handover confirmation indicating that the CS to PS handover is completed, the UE being allocated an internet protocol, IP, address for the LTE network, and being registered (612, 614, 620, 622) to an internet protocol multimedia subsystem, IMS, network; and transmitting, to the MSC, a handover notification message to confirm completion of the CS to PS handover, such that the MSC releases a local resource of the UE, wherein path switching to the IP address for the LTE network is performed, if a session transfer procedure from a CS session to a PS session is initiated by the UE. receiving, from a mobile switching centre, MSC, of the CS network, a handover request for a CS to PS handover from the CS network to the LTE network, the handover request including an international mobile subscriber identity, IMSI, for identifying the UE; allocating resources for PS bearers to an enhanced NodeB, eNB, of the LTE network so that the UE has at least one PS bearer; transmitting, to the MSC, a handover response such that a handover command indicating the CS to PS handover is transmitted to the UE; receiving, from the UE via the eNB, a handover confirmation indicating that the CS to PS handover is completed, the UE being allocated an internet protocol, IP, address for the LTE network, and being registered (612, 614, 620, 622) to an internet protocol multimedia subsystem, IMS, network; and transmitting, to the MSC, a handover notification message to confirm completion of the CS to PS handover, such that the MSC releases a local resource of the UE, wherein path switching to the IP address for the LTE network is performed, if a session transfer procedure from a CS session to a PS session is initiated by the UE.
A method for handling a service within a charging system comprising a server and a client, the method comprising: receiving, at the client, a first request for the service of a predetermined type from a terminal, wherein the predetermined type of service is free-of-charge service; transmitting said first request from the client to the server in a charging control request in which the free-of-charge service is identified; and checking, at said server, whether the requested free-of-charge service can be granted, and if granted: responding, by said server, with a control message to the client, whereby the control message comprises an attribute value pair identifying the predetermined type of service as being free-of-charge; measuring, by the client, a usage of resources consumed by the granted free-of-charge service in response to said control message; reporting the measured used resources for the free-of-charge service at a predetermined condition from the client to the server in a report message; determining, at the server, upon receipt of the report message, whether the free-of-charge service has changed to a different type; and if so changing a mode of handling the service within the charging system to a mode for handling the service of the different type. receiving, at the client, a first request for the service of a predetermined type from a terminal, wherein the predetermined type of service is free-of-charge service; transmitting said first request from the client to the server in a charging control request in which the free-of-charge service is identified; and checking, at said server, whether the requested free-of-charge service can be granted, and if granted: responding, by said server, with a control message to the client, whereby the control message comprises an attribute value pair identifying the predetermined type of service as being free-of-charge; measuring, by the client, a usage of resources consumed by the granted free-of-charge service in response to said control message; reporting the measured used resources for the free-of-charge service at a predetermined condition from the client to the server in a report message; determining, at the server, upon receipt of the report message, whether the free-of-charge service has changed to a different type; and if so changing a mode of handling the service within the charging system to a mode for handling the service of the different type. responding, by said server, with a control message to the client, whereby the control message comprises an attribute value pair identifying the predetermined type of service as being free-of-charge; measuring, by the client, a usage of resources consumed by the granted free-of-charge service in response to said control message; reporting the measured used resources for the free-of-charge service at a predetermined condition from the client to the server in a report message; determining, at the server, upon receipt of the report message, whether the free-of-charge service has changed to a different type; and if so changing a mode of handling the service within the charging system to a mode for handling the service of the different type.
A polyamide recycling process, comprising the following steps: adding a polyamide waste material into a mixed solvent to obtain a solution, heating the solution to 50°C to a reflux temperature of the solution, conducting stirring for dissolution, and then conducting decolorization treatment and filtration to obtain a polyamide solution; and adding the polyamide solution into deionized water, precipitating polyamide in the deionized water, and conducting separation to obtain recycled polyamide; wherein the mixed solvent comprises, in parts by weight, 10-30 parts of phenol and 15-40 parts of toluene; and a weight ratio of the polyamide waste material to the mixed solvent is 1:10 to 1:2.
A fastening system in particular for fastening of insulation material to a substructure, comprising: an expansion element and a holding plate for holding the insulation material, wherein the expansion element at a first end portion comprises means for expanding a dowel, wherein the expansion element at a second end portion comprises at least a first means for fixing and at least a second means for fixing, which each are adapted to axially fix the holding plate, and wherein the at least one first means for fixing at the expansion element is arranged closer to the first end portion, than the at least one second means for fixing and the at least one first means for fixing is adapted in such a way, that it axially fixes the holding plate up to the exertion of a determined force, characterized in that the at least one first means for fixing comprises at least one inclined plane, which is oriented in radial direction and axially in the direction of the second means for fixing merges into a circumferential ring. an expansion element and a holding plate for holding the insulation material, wherein the expansion element at a first end portion comprises means for expanding a dowel, wherein the expansion element at a second end portion comprises at least a first means for fixing and at least a second means for fixing, which each are adapted to axially fix the holding plate, and wherein the at least one first means for fixing at the expansion element is arranged closer to the first end portion, than the at least one second means for fixing and the at least one first means for fixing is adapted in such a way, that it axially fixes the holding plate up to the exertion of a determined force, the at least one first means for fixing comprises at least one inclined plane, which is oriented in radial direction and axially in the direction of the second means for fixing merges into a circumferential ring.
A multi-configurable mower deck comprising: a top surface; a front leading edge; at least one side wall extending from the top surface; at least one partial rear wall extending from the top surface, a side-discharge opening formed on one side of the mower deck between the front leading edge and the at least one partial rear wall; a rear-discharge opening formed through the at least one partial rear wall; a front baffle extending from the top surface; and three cutting chambers, wherein each of the three cutting chambers are configured to partially house a respective cutting blade, characterized by further comprising: a selectively removable secondary front baffle, wherein the front baffle is arranged between the front leading edge and the secondary front baffle; and wherein the secondary front baffle defines at least a portion of each of the three cutting chambers. a top surface; a front leading edge; at least one side wall extending from the top surface; at least one partial rear wall extending from the top surface, a side-discharge opening formed on one side of the mower deck between the front leading edge and the at least one partial rear wall; a rear-discharge opening formed through the at least one partial rear wall; a front baffle extending from the top surface; and three cutting chambers, wherein each of the three cutting chambers are configured to partially house a respective cutting blade, characterized by further comprising: a selectively removable secondary front baffle, wherein the front baffle is arranged between the front leading edge and the secondary front baffle; and wherein the secondary front baffle defines at least a portion of each of the three cutting chambers. a selectively removable secondary front baffle, wherein the front baffle is arranged between the front leading edge and the secondary front baffle; and wherein the secondary front baffle defines at least a portion of each of the three cutting chambers.
An electrically operated aerosol-generating system comprising: an aerosol-generating device; an aerosol-forming cartridge comprising at least one aerosol-forming substrate, wherein, in use, the aerosol-forming cartridge is at least partially received within the aerosol-generating device; at least one electric heater arranged to heat the at least one aerosol-forming substrate during use; and at least one air inlet and at least one air outlet; wherein, in use, the aerosol-generating system further comprises an air flow channel extending between the at least one air inlet and the at least one air outlet, the air flow channel being in fluid communication with the aerosol-forming substrate, the electrically operated aerosol-generating system being characterized in that the air flow channel has an internal wall surface on which one or more flow disturbing devices are disposed, the flow disturbing devices being arranged to create a turbulent boundary layer in a flow of air drawn through the air flow channel, wherein the flow disturbing devices comprise a plurality of dimples on the internal wall surface, and wherein the plurality of dimples have a number average maximum diameter of from 3 millimetres to 6 millimetres. an aerosol-generating device; an aerosol-forming cartridge comprising at least one aerosol-forming substrate, wherein, in use, the aerosol-forming cartridge is at least partially received within the aerosol-generating device; at least one electric heater arranged to heat the at least one aerosol-forming substrate during use; and at least one air inlet and at least one air outlet; wherein, in use, the aerosol-generating system further comprises an air flow channel extending between the at least one air inlet and the at least one air outlet, the air flow channel being in fluid communication with the aerosol-forming substrate, the electrically operated aerosol-generating system being characterized in that the air flow channel has an internal wall surface on which one or more flow disturbing devices are disposed, the flow disturbing devices being arranged to create a turbulent boundary layer in a flow of air drawn through the air flow channel, wherein the flow disturbing devices comprise a plurality of dimples on the internal wall surface, and wherein the plurality of dimples have a number average maximum diameter of from 3 millimetres to 6 millimetres.
A method for processing signals of active sensor systems to prevent emulating or tempering reflections of the signals by a malicious entity, said method being implemented by a monitoring device and involving the steps of: processing a signal emitted by an active sensor system to include at least one distinguishing feature in the signal, wherein the active sensor system comprises a receiver adapted to intercept at least a portion of the emitted signal or of a reflection of the emitted signal, and to analyze the reflection of the emitted signal for determining at least one parameter of at least one object located in a space; decoding or demodulating, and analyzing at least the intercepted portion to identify when the at least one distinguishing feature is present in the at least the intercepted portion; classifying the signal as an unverified signal when the distinguishing feature is identified as not present in the intercepted signal; and as a response to identification of the presence of the at least one distinguishing feature in the decoded or demodulated signal, processing the reflection of the emitted signal as a verified signal. processing a signal emitted by an active sensor system to include at least one distinguishing feature in the signal, wherein the active sensor system comprises a receiver adapted to intercept at least a portion of the emitted signal or of a reflection of the emitted signal, and to analyze the reflection of the emitted signal for determining at least one parameter of at least one object located in a space; decoding or demodulating, and analyzing at least the intercepted portion to identify when the at least one distinguishing feature is present in the at least the intercepted portion; classifying the signal as an unverified signal when the distinguishing feature is identified as not present in the intercepted signal; and as a response to identification of the presence of the at least one distinguishing feature in the decoded or demodulated signal, processing the reflection of the emitted signal as a verified signal.
Elevator system comprising: an elevator car configured for traveling along a hoistway; a sensor configured for determining the current position of the elevator car within the hoistway; at least one stationary wireless communication module; and at least one mobile wireless communication module attached to the elevator car; wherein the wireless communication modules (20, 22) are configured for communicating with each other via a wireless data connection using one of a plurality of radio channels; and characterized in that the wireless communication modules (20, 22) are configured for selecting the radio channel to be used for communicating from the plurality of radio channels based on the current position of the elevator car within the hoistway. an elevator car configured for traveling along a hoistway; a sensor configured for determining the current position of the elevator car within the hoistway; at least one stationary wireless communication module; and at least one mobile wireless communication module attached to the elevator car; wherein the wireless communication modules (20, 22) are configured for communicating with each other via a wireless data connection using one of a plurality of radio channels; and characterized in that the wireless communication modules (20, 22) are configured for selecting the radio channel to be used for communicating from the plurality of radio channels based on the current position of the elevator car within the hoistway.