mhurhangee/ep-ind-claims huggingface dataset:
A scanning probe microscope for measuring properties of a sample comprising a probe on a mechanical resonator, an oscillator (4; 6, 34, 5, 1) generating a master signal at a frequency f, an actuator driven by said master signal and applying a mechanical force to said mechanical resonator at said frequency f, a DC voltage source applying a DC voltage (Udc) to said probe, an AC voltage source applying an AC voltage (Uac) substantially at said frequency f to said probe, a detector assembly measuring at least one observed signal depending on the frequency (f) of the master signal, the amplitude of the master signal, and/or a phase shift (φ) of said deflection in respect to the master signal, a voltage control loop (9, 20) for controlling said DC voltage (Udc), characterized in that said scanning probe microscope has a phase modulator (21, 22) for generating a periodic modulation of a phase of said AC voltage in respect to said master signal, said periodic modulation having a frequency fmod, wherein said voltage control loop (9,20) is adapted for measuring a spectral component of said observed signal at said frequency fmod and controlling said DC voltage (Udc) to keep said spectral component zero.
Operating facility for controlling a safety-related system (10, 300), wherein the operating equipment has: - a computer facility, - a display facility (60, 100) connected to the computer facility, which can display an operating status of the safety-related system (10, 300) and is actuated by display control signals of the computer facility, and - an input facility (60, 110) connected to the computer facility for operator-side input of control commands, wherein the computer facility is configured such that it monitors the dynamics of the operator-side input behaviour, characterised in that the computer facility, in the event that a predefined degree of dynamics is undershot, requests an operator-side examination of the correct functionality of the display facility (60, 100), wherein the computer facility is configured such that, as part of the examination of the dynamics of the operator-side input behaviour, it checks whether a predefined amount of control commands for displacing display sections (61, 62, 63) have been input at the input facility (60, 110) on the operator side and, in the event that the predefined amount is undershot, requests an operator-side examination of the correct functionality of the display facility (60, 100). - a computer facility, - a display facility (60, 100) connected to the computer facility, which can display an operating status of the safety-related system (10, 300) and is actuated by display control signals of the computer facility, and - an input facility (60, 110) connected to the computer facility for operator-side input of control commands, wherein the computer facility is configured such that it monitors the dynamics of the operator-side input behaviour,
Rail vehicle for passenger traffic, which comprises a body shell with a first and at least one further, second roof longitudinal beam, wherein the rail vehicle, for mounting attachments onto the roof of the rail vehicle, comprises: - a first and at least one further, second rail (2, 22) for the free positioning of brackets (1, 21), wherein the first rail is connected to the first roof longitudinal beam and wherein the second rail is connected to the second roof longitudinal beam, wherein the rails (2, 22) run along the through-longitudinal member, a first, first bracket embodied in a complementary manner to the first rail and at least one further, second bracket embodied in a complementary manner to the second rail for connecting the roof attachments to the rails (2, 22) characterised in that the rails (2, 22) have an L-shaped cross-section. - a first and at least one further, second rail (2, 22) for the free positioning of brackets (1, 21), wherein the first rail is connected to the first roof longitudinal beam and wherein the second rail is connected to the second roof longitudinal beam, wherein the rails (2, 22) run along the through-longitudinal member, a first, first bracket embodied in a complementary manner to the first rail and at least one further, second bracket embodied in a complementary manner to the second rail for connecting the roof attachments to the rails (2, 22) characterised in that the rails (2, 22) have an L-shaped cross-section.
Hob apparatus having at least one heating region (12a-c) on which at least one cooking container (14a-c) can be placed for heating purposes, and comprising a dynamic display unit (16a-c) which is provided for identifying the heating region (12a-c) in at least one operating mode, which is independent of placing and removing the cooking container (14a-c) in and out of the heating region (12a-c) and having a control unit (18a-c), which is provided, in the case of a placed cooking container (14a-c), to form at least one heating zone for heating the placed cooking container (14a-c) from at least one heating unit (24a-c) at least partially defining the heating region (12a-c), characterised in that the control unit (18a-c) is provided for selecting at least one identifying property of the identification of the heating region (12a-c) in the operating mode, depending on at least one operating parameter.
A tire processing method comprising: a first step of, at a tire that is constituted with a thermoplastic material and a material other than the thermoplastic material, heating a portion of the thermoplastic material and either melting or softening the portion; and a second step of, at a melted or softened portion of the thermoplastic material, separating the melted or softened thermoplastic material and the material other than the thermoplastic material, wherein a tire carcass portion of the tire extends from one bead portion to another bead portion, the tire carcass portion being formed of the thermoplastic material, and a reinforcement layer is provided at an outer periphery portion of the tire carcass portion, the reinforcement layer including a cord formed of the material other than the thermoplastic material, the first step includes directing hot air onto, and thereby heating and either melting or softening the thermoplastic material of the outer periphery portion of the tire carcass portion, and the second step includes drawing out the cord from the melted or softened portion of the thermoplastic material, wherein the cord is provided in a helical arrangement at the outer periphery of the tire carcass portion, the first step includes sequentially melting the outer periphery portion of the tire carcass portion while the tire is being turned, and the second step includes winding up the cord while drawing out the cord from melted portions of the thermoplastic material while the tire is being turned, the cord being wound up in the second step from one end portion of the cord. a first step of, at a tire that is constituted with a thermoplastic material and a material other than the thermoplastic material, heating a portion of the thermoplastic material and either melting or softening the portion; and a second step of, at a melted or softened portion of the thermoplastic material, separating the melted or softened thermoplastic material and the material other than the thermoplastic material, wherein a tire carcass portion of the tire extends from one bead portion to another bead portion, the tire carcass portion being formed of the thermoplastic material, and a reinforcement layer is provided at an outer periphery portion of the tire carcass portion, the reinforcement layer including a cord formed of the material other than the thermoplastic material, the first step includes directing hot air onto, and thereby heating and either melting or softening the thermoplastic material of the outer periphery portion of the tire carcass portion, and the second step includes drawing out the cord from the melted or softened portion of the thermoplastic material, wherein the cord is provided in a helical arrangement at the outer periphery of the tire carcass portion, the first step includes sequentially melting the outer periphery portion of the tire carcass portion while the tire is being turned, and the second step includes winding up the cord while drawing out the cord from melted portions of the thermoplastic material while the tire is being turned, the cord being wound up in the second step from one end portion of the cord.
A compound according to general formula wherein A represents C 6 -cycloalkyl, wherein said C 6 -cycloalkyl is optionally substituted with one or more deuterium; R 1 represents C 1 -alkyl, wherein said C 1 -alkyl is optionally substituted with one or more deuterium; R 2 represents C 1 -alkyl, wherein said C 1 -alkyl is substituted with a substituent selected from R 6; and wherein said C 1 -alkyl is optionally substituted with one or more deuterium; R 3 represents C 2 -alkyl, wherein said C 2 -alkyl is substituted with a substituent selected from R 7 and wherein said C 2 -alkyl is optionally substituted with one or more deuterium; R 4 represents hydrogen or deuterium; R 5 represents hydrogen or deuterium; R 6 represents cyano; R 7 represents hydroxyl; or pharmaceutically acceptable salts, hydrates or solvates thereof. A represents C 6 -cycloalkyl, wherein said C 6 -cycloalkyl is optionally substituted with one or more deuterium; R 1 represents C 1 -alkyl, wherein said C 1 -alkyl is optionally substituted with one or more deuterium; R 2 represents C 1 -alkyl, wherein said C 1 -alkyl is substituted with a substituent selected from R 6; and wherein said C 1 -alkyl is optionally substituted with one or more deuterium; R 3 represents C 2 -alkyl, wherein said C 2 -alkyl is substituted with a substituent selected from R 7 and wherein said C 2 -alkyl is optionally substituted with one or more deuterium; R 4 represents hydrogen or deuterium; R 5 represents hydrogen or deuterium; R 6 represents cyano; R 7 represents hydroxyl;
A method for accessing a wireless medium in a wireless local area network, the method comprising: receiving, by a station, STA, from an access point, AP, group indication information for a restricted medium access to a group of STAs within a group, GR, communication phase, the group indication information including a GR-STA address to identify the STA that is allowed to access a channel within the GR communication phase; receiving, by the STA, from the AP, channel access information including a GR communication duration and a GR communication offset, the GR communication duration indicating a duration of the GR communication phase, the GR communication offset indicating a start time of the GR communication phase; and accessing, by the STA, the channel to the AP within the GR communication phase based on a contention-based channel access scheme, wherein the STA is allowed to access the channel within the GR communication phase only when the group indication information includes the GR-STA address to identify the STA. receiving, by a station, STA, from an access point, AP, group indication information for a restricted medium access to a group of STAs within a group, GR, communication phase, the group indication information including a GR-STA address to identify the STA that is allowed to access a channel within the GR communication phase; receiving, by the STA, from the AP, channel access information including a GR communication duration and a GR communication offset, the GR communication duration indicating a duration of the GR communication phase, the GR communication offset indicating a start time of the GR communication phase; and accessing, by the STA, the channel to the AP within the GR communication phase based on a contention-based channel access scheme, wherein the STA is allowed to access the channel within the GR communication phase only when the group indication information includes the GR-STA address to identify the STA.
A portable printer comprising: a main body part having a paper feeding port and a paper discharge port; a cover part coupled to the main body part to be opened and closed; a cutting part disposed to be adjacent to the paper discharge port and cutting paper discharged from the paper discharge port; and an operating part slidable in at least two directions by an external force; wherein the cutting part comprises: a first cutter member provided at one side of the paper discharge port; and a second cutter member provided to face the first cutter member and crossing the first cutter member by the sliding of an operating member of the operation part in the second direction; characterized in that when the operating part is pulled in a first direction, the cover part is operated, and when the operating part is pushed in a second direction, the cutting part is operated. a main body part having a paper feeding port and a paper discharge port; a cover part coupled to the main body part to be opened and closed; a cutting part disposed to be adjacent to the paper discharge port and cutting paper discharged from the paper discharge port; and an operating part slidable in at least two directions by an external force; a first cutter member provided at one side of the paper discharge port; and a second cutter member provided to face the first cutter member and crossing the first cutter member by the sliding of an operating member of the operation part in the second direction;
Nozzle for mixing gas with liquid, comprising: - a body; - a longitudinal passage for the liquid, formed in the body and with a portion (10.2) showing a reduced cross-section; - at least one radial passage (12, 12.1, 12.2) for the gas, formed in the body and opening out in the reduced cross-section portion (10.2); - a liquid inlet port formed in the body and fluidly connected to the longitudinal passage; - a gas inlet port formed in the body and fluidly connected to the at least one radial passage (12, 12.1, 12.2); characterized in that the gas inlet port and the liquid inlet port are arranged on a frontal transversal face (8.1) of the body. - a body; - a longitudinal passage for the liquid, formed in the body and with a portion (10.2) showing a reduced cross-section; - at least one radial passage (12, 12.1, 12.2) for the gas, formed in the body and opening out in the reduced cross-section portion (10.2); - a liquid inlet port formed in the body and fluidly connected to the longitudinal passage; - a gas inlet port formed in the body and fluidly connected to the at least one radial passage (12, 12.1, 12.2);
A computer system for clearing a local Translation Lookaside Buffer, TLB, the system comprising: a memory; and a processor configured to communicate with the memory, wherein the computer system is configured to perform a method, the method comprising: executing, by the processor, an instruction, the executing comprising: determining one or more translation table entry locations specified by the instruction; and characterised in the executing further comprises: based on a local-clearing, LC, control specified by the instruction being a first value, clearing TLBs (470,475) in a plurality of processors in a configuration of entries corresponding to the determined translation table entry location; and based on the local-clearing, LC, being a second value, clearing only the TLBs of the processor of the configuration executing the instruction, of entries corresponding to the determined translation table entry location. a memory; and a processor configured to communicate with the memory, wherein the computer system is configured to perform a method, the method comprising: executing, by the processor, an instruction, the executing comprising: determining one or more translation table entry locations specified by the instruction; and characterised in the executing further comprises: based on a local-clearing, LC, control specified by the instruction being a first value, clearing TLBs (470,475) in a plurality of processors in a configuration of entries corresponding to the determined translation table entry location; and based on the local-clearing, LC, being a second value, clearing only the TLBs of the processor of the configuration executing the instruction, of entries corresponding to the determined translation table entry location. determining one or more translation table entry locations specified by the instruction; and characterised in the executing further comprises: based on a local-clearing, LC, control specified by the instruction being a first value, clearing TLBs (470,475) in a plurality of processors in a configuration of entries corresponding to the determined translation table entry location; and based on the local-clearing, LC, being a second value, clearing only the TLBs of the processor of the configuration executing the instruction, of entries corresponding to the determined translation table entry location. based on a local-clearing, LC, control specified by the instruction being a first value, clearing TLBs (470,475) in a plurality of processors in a configuration of entries corresponding to the determined translation table entry location; and based on the local-clearing, LC, being a second value, clearing only the TLBs of the processor of the configuration executing the instruction, of entries corresponding to the determined translation table entry location.
Sensor arrangement (100; 400; 500; 600; 700; 800; 900; 1000; 1100; 1200), comprising a substrate having a through opening between a first and a second main surface region (141, 142) thereof, a sound transducing portion arranged at the first main surface region of the substrate and at least partially spanning the through opening in the substrate, wherein the sound transducing portion comprises a deflectable membrane structure (111, 112), and an counter electrode, and a pressure sensing portion arranged at the first main surface region of the substrate and fluidically coupled to the through opening in the substrate, wherein the pressure sensing portion comprises a first and second rigid electrode (121, 123) and a deflectable membrane structure in a stacked configuration, wherein the deflectable membrane structure of the pressure sensing portion opposes a plane of the first main surface region of the substrate, and wherein the first and second rigid electrodes (121, 123) of the pressure sensing portion form a reference capacitor of the pressure sensing portion, and wherein the second rigid electrode and the membrane structure form a sense capacitor of the pressure sensing portion in a stacked configuration. a substrate having a through opening between a first and a second main surface region (141, 142) thereof, a sound transducing portion arranged at the first main surface region of the substrate and at least partially spanning the through opening in the substrate, wherein the sound transducing portion comprises a deflectable membrane structure (111, 112), and an counter electrode, and a pressure sensing portion arranged at the first main surface region of the substrate and fluidically coupled to the through opening in the substrate, wherein the pressure sensing portion comprises a first and second rigid electrode (121, 123) and a deflectable membrane structure in a stacked configuration, wherein the deflectable membrane structure of the pressure sensing portion opposes a plane of the first main surface region of the substrate, and wherein the first and second rigid electrodes (121, 123) of the pressure sensing portion form a reference capacitor of the pressure sensing portion, and wherein the second rigid electrode and the membrane structure form a sense capacitor of the pressure sensing portion in a stacked configuration. wherein the pressure sensing portion comprises a first and second rigid electrode (121, 123) and a deflectable membrane structure in a stacked configuration, wherein the deflectable membrane structure of the pressure sensing portion opposes a plane of the first main surface region of the substrate, and wherein the first and second rigid electrodes (121, 123) of the pressure sensing portion form a reference capacitor of the pressure sensing portion, and wherein the second rigid electrode and the membrane structure form a sense capacitor of the pressure sensing portion in a stacked configuration.
A method for managing network resource consumption in a network comprising a plurality of network elements, the method comprising: identifying one or more user devices, UDs, associated with a network element and exhibiting a relatively high level of network resource consumption; and adjusting a Policy Control and Charging, PCC, rule associated with at least one identified UD such that the corresponding network resource consumption level is reduced, wherein the PCC is changed using either of a local override of a PCC provided by a Policy Charging and Rule Function, PCRF, or a changing of the PCC provided by the PCRF, wherein the PCC rule is adapted to constrain QoS parameters associated with a service data flow, 8DF, of the at least one identified UD, wherein the network element comprises an router adapted to receive traffic flows from each of a plurality of eNodeBs, wherein identifying further comprises identifying the eNodeBs supporting traffic from the UDs exhibiting a relatively high level of network resource consumption; and adjusting further comprises adjusting a PCC rule associated with at least one identified eNodeB such that the corresponding network resource consumption level is reduced. identifying one or more user devices, UDs, associated with a network element and exhibiting a relatively high level of network resource consumption; and adjusting a Policy Control and Charging, PCC, rule associated with at least one identified UD such that the corresponding network resource consumption level is reduced,
A method for transmitting uplink control information, UCI, performed by a user equipment which is configured with serving cells, in a wireless communication system, the method comprising: generating encoded information bits by performing channel coding on information bits of the UCI; generating a modulation symbol sequence by modulating the encoded information bits; generating a spread sequence by block-wise spreading on the modulation symbol sequence with an orthogonal sequence; and transmitting the spread sequence to a base station through an uplink control channel, wherein the information bits of the UCI comprises a first UCI bit sequence and a second UCI information bit, characterized in that the first UCI bit sequence is an acknowledgement/non-acknowledgement, ACK/NACK, bit-stream concatenated with ACK/NACK information bits for each of serving cells, and the second UCI information bit is a scheduling request, SR, information bit, and transmission power of the uplink control channel is determined based on the number of bits of the first UCI bit sequence and the second UCI information bit. generating encoded information bits by performing channel coding on information bits of the UCI; generating a modulation symbol sequence by modulating the encoded information bits; generating a spread sequence by block-wise spreading on the modulation symbol sequence with an orthogonal sequence; and transmitting the spread sequence to a base station through an uplink control channel, wherein the information bits of the UCI comprises a first UCI bit sequence and a second UCI information bit, characterized in that the first UCI bit sequence is an acknowledgement/non-acknowledgement, ACK/NACK, bit-stream concatenated with ACK/NACK information bits for each of serving cells, and the second UCI information bit is a scheduling request, SR, information bit, and transmission power of the uplink control channel is determined based on the number of bits of the first UCI bit sequence and the second UCI information bit.