mhurhangee/patent-ind-claim-en huggingface dataset:
A system for adjusting a voltage droop threshold, comprising: a voltage-droop mitigation circuit configured to monitor voltage droop in a supply voltage (V DD ) supplied to a circuit , and to perform voltage-droop mitigation for the circuit if the monitored voltage droop is equal to or greater than a droop threshold; wherein the voltage-droop mitigation circuit is configured to: perform voltage-droop mitigation by reducing a frequency of an input clock signal (CLK_IN) to produce a reduced-frequency clock signal, and to output the reduced-frequency clock signal to the circuit; pass the input clock signal to the circuit when the voltage-droop mitigation is not being performed; and a performance monitor configured to track a number of clock cycles over which the voltage-droop mitigation circuit performs the voltage-droop mitigation within a time duration, to compare the number of clock cycles with a first threshold number, and to decrease both the droop threshold and the supply voltage if the number of clock cycles is below the first threshold number. a voltage-droop mitigation circuit configured to monitor voltage droop in a supply voltage (V DD ) supplied to a circuit , and to perform voltage-droop mitigation for the circuit if the monitored voltage droop is equal to or greater than a droop threshold; wherein the voltage-droop mitigation circuit is configured to: perform voltage-droop mitigation by reducing a frequency of an input clock signal (CLK_IN) to produce a reduced-frequency clock signal, and to output the reduced-frequency clock signal to the circuit; pass the input clock signal to the circuit when the voltage-droop mitigation is not being performed; and perform voltage-droop mitigation by reducing a frequency of an input clock signal (CLK_IN) to produce a reduced-frequency clock signal, and to output the reduced-frequency clock signal to the circuit; pass the input clock signal to the circuit when the voltage-droop mitigation is not being performed; and a performance monitor configured to track a number of clock cycles over which the voltage-droop mitigation circuit performs the voltage-droop mitigation within a time duration, to compare the number of clock cycles with a first threshold number, and to decrease both the droop threshold and the supply voltage if the number of clock cycles is below the first threshold number.
A method comprising: identifying multiple communication paths extending from a source device; for each path, determining a data rate; for each path, determining a power level used to communicate over at least a portion of the path, wherein the method further comprises: for each path, determining a power to data rate efficiency value as a function of the determined power level and data rate; and selecting one of the multiple communication paths such that the selected communication path has the lowest power to data rate efficiency value; and sending a message over the selected communication path, the method being further characterized in that , for each path, the determining of a power level consists in measuring the power used to send a test message across the portion of the communication path. identifying multiple communication paths extending from a source device; for each path, determining a data rate; for each path, determining a power level used to communicate over at least a portion of the path, for each path, determining a power to data rate efficiency value as a function of the determined power level and data rate; and selecting one of the multiple communication paths such that the selected communication path has the lowest power to data rate efficiency value; and sending a message over the selected communication path,
Drive apparatus for a hybrid vehicle with an internal combustion engine which has a crankshaft for the output of drive power, and with a torsional vibration reduction device which is set up to decrease torsional vibrations and to transmit drive power from the crankshaft in the direction of a drivable wheel of the motor vehicle, and with a clutch device with a clutch input side , a clutch output side , a positively locking clutch and a frictionally locking clutch , it being possible for the torque transmission to be established selectively from the clutch input side to the clutch output side and therefore from the crankshaft to the drivable wheel , the torque transmission from the clutch input side to the clutch output side being enabled as soon as at least one of the two clutches is closed, the clutch input side being connected fixedly to the crankshaft so as to rotate with it, characterized in that the torsional vibration reduction device is arranged downstream of the clutch device , in relation to the torque transmission from the crankshaft in the direction of the drivable wheel, and in that the clutch output side is connected fixedly to the torsional vibration reduction device so as to rotate with it.
Luminaire , comprising: • an elongate light source which is formed by a plurality of LEDs or LED clusters arranged one behind the other in the longitudinal direction, • a primary optical system which is assigned to the light source and is formed by a plurality of pot-like reflectors which are arranged one behind the other in the longitudinal direction, and each widen in a divergent manner from the light source in a light emission direction of the luminaire , • a secondary optical system which follows the primary optical system in the light emission direction and is formed by a plate-shaped element made of a transparent material, the element having light-refracting structures , characterized in that the light-refracting structures are prisms, in particular pyramid-shaped prisms, and the pot reflectors having parabolically shaped side wall regions when viewed in the longitudinal direction, each of the pot reflectors having a central axis (I), the parabolically shaped side wall regions being rotationally symmetrical with respect to the central axis (I), and the LEDs each being arranged at the focal point of the parabola, and the pot reflectors having side wall regions inclined in a direction perpendicular to the longitudinal direction. • an elongate light source which is formed by a plurality of LEDs or LED clusters arranged one behind the other in the longitudinal direction, • a primary optical system which is assigned to the light source and is formed by a plurality of pot-like reflectors which are arranged one behind the other in the longitudinal direction, and each widen in a divergent manner from the light source in a light emission direction of the luminaire , • a secondary optical system which follows the primary optical system in the light emission direction and is formed by a plate-shaped element made of a transparent material, the element having light-refracting structures , characterized in that the light-refracting structures are prisms, in particular pyramid-shaped prisms, and the pot reflectors having parabolically shaped side wall regions when viewed in the longitudinal direction, each of the pot reflectors having a central axis (I), the parabolically shaped side wall regions being rotationally symmetrical with respect to the central axis (I), and the LEDs each being arranged at the focal point of the parabola, and the pot reflectors having side wall regions inclined in a direction perpendicular to the longitudinal direction. the light-refracting structures are prisms, in particular pyramid-shaped prisms, and the pot reflectors having parabolically shaped side wall regions when viewed in the longitudinal direction, each of the pot reflectors having a central axis (I), the parabolically shaped side wall regions being rotationally symmetrical with respect to the central axis (I), and the LEDs each being arranged at the focal point of the parabola, and the pot reflectors having side wall regions inclined in a direction perpendicular to the longitudinal direction.
A computer-implemented method for analyzing gait of a subject, said method comprising: a) providing data comprising the measured 3D-movement of a foot of said subject over time generated by a 3D-accelerometer and/or 3D-gyroscope mounted on a foot or shoe of said subject, wherein said 3D-movement comprises a plurality of strides of said foot; b) identifying within said data first data segments, wherein each of said first data segments represents at least one stride; c) determining one or more stride features for each of said first data segments; and d) defining one or more clusters on the basis of at least one stride feature of said one or more stride features, wherein each cluster represents a class of strides; wherein said method further comprises verifying if enough of said first data segments have been analyzed for defining said one or more clusters with a certain predefined significance. a) providing data comprising the measured 3D-movement of a foot of said subject over time generated by a 3D-accelerometer and/or 3D-gyroscope mounted on a foot or shoe of said subject, wherein said 3D-movement comprises a plurality of strides of said foot; b) identifying within said data first data segments, wherein each of said first data segments represents at least one stride; c) determining one or more stride features for each of said first data segments; and d) defining one or more clusters on the basis of at least one stride feature of said one or more stride features, wherein each cluster represents a class of strides;
An electrical contact comprising: a substrate of an electrically conductive material; and a graphene-copper composite coating on the substrate ; wherein the graphene content in the coating is within the range of 0.1 to 2 wt%. a substrate of an electrically conductive material; and a graphene-copper composite coating on the substrate ; wherein the graphene content in the coating is within the range of 0.1 to 2 wt%.
An apparatus for a shaving razor having a cartridge containing one or more blades, the apparatus comprising: a base unit for supporting the shaving razor; one or more sensors in the base unit disposed to face the cartridge; and a processor and circuitry in operative communication with the one or more sensors, wherein the processor is configured to determine accumulation of debris in the cartridge and/or wear of the blades, and wherein the base unit, directly or via a handheld personal computer, provides a visual or aural alert to a user regarding the determined accumulation of debris in the cartridge and/or wear of the blades. a base unit for supporting the shaving razor; one or more sensors in the base unit disposed to face the cartridge; and a processor and circuitry in operative communication with the one or more sensors, wherein the processor is configured to determine accumulation of debris in the cartridge and/or wear of the blades, and wherein the base unit, directly or via a handheld personal computer, provides a visual or aural alert to a user regarding the determined accumulation of debris in the cartridge and/or wear of the blades.
A determination device (S) comprising: an acquisition means configured to acquire state information indicating a moving state of each of a plurality of first moving objects (CA, ..., CG) moving in the same direction on a first road (MR) and a moving state of a second moving object (Ca, ..., Cc) moving on a second road (SR), the second road (SR) merging with the first road (MR), and going to enter the first road and move in the direction; and a determination means configured to determine whether a space for allowing the second moving object (Ca, ..., Cc) to enter the first road (MR) can be generated with using an acceleration applied to at least one of the plurality of first moving objects (CA, ..., CG) to generate the space, the acceleration being calculated on the basis of the state information, characterized in that the determination means is further configured to determine whether to accept an entry and merging of the second moving object (Ca, ..., Cc) based on occupant attribute information indicating an attribute of an occupant of the at least one of the first moving object (CA, ..., CG) 1 . an acquisition means configured to acquire state information indicating a moving state of each of a plurality of first moving objects (CA, ..., CG) moving in the same direction on a first road (MR) and a moving state of a second moving object (Ca, ..., Cc) moving on a second road (SR), the second road (SR) merging with the first road (MR), and going to enter the first road and move in the direction; and a determination means configured to determine whether a space for allowing the second moving object (Ca, ..., Cc) to enter the first road (MR) can be generated with using an acceleration applied to at least one of the plurality of first moving objects (CA, ..., CG) to generate the space, the acceleration being calculated on the basis of the state information, characterized in that the determination means is further configured to determine whether to accept an entry and merging of the second moving object (Ca, ..., Cc) based on occupant attribute information indicating an attribute of an occupant of the at least one of the first moving object (CA, ..., CG) 1 .
An apparatus for use in diagnosing and/or treating at least one neurological disorder in a subject, the apparatus comprising: (a) first detector means adapted to be held by a hand of the subject and to provide at least one first signal containing first data representing a respective grip force applied to said first detector means by at least one finger of the subject; and (b) second detector means adapted to be engaged by said first detector means when held by the subject, wherein said second detector means is adapted to provide at least one second signal containing second data representing a position of said first detector means relative to said second detector means and said first and/or second detector means is further adapted to provide at least one third signal containing third data representing an engaging force of said first detector means on said second detector means ; (c) third detector means adapted to provide at least one fourth signal containing fourth data representing a position of a limb joint of an arm of the subject holding the first detector means ; and (d) processor means for processing (i) said first data, (ii) said second data and/or said third data, and (iii) said fourth data to determine potential presence of at least one neurological disorder in the subject. (a) first detector means adapted to be held by a hand of the subject and to provide at least one first signal containing first data representing a respective grip force applied to said first detector means by at least one finger of the subject; and (b) second detector means adapted to be engaged by said first detector means when held by the subject, wherein said second detector means is adapted to provide at least one second signal containing second data representing a position of said first detector means relative to said second detector means and said first and/or second detector means is further adapted to provide at least one third signal containing third data representing an engaging force of said first detector means on said second detector means ; (c) third detector means adapted to provide at least one fourth signal containing fourth data representing a position of a limb joint of an arm of the subject holding the first detector means ; and (d) processor means for processing (i) said first data, (ii) said second data and/or said third data, and (iii) said fourth data to determine potential presence of at least one neurological disorder in the subject.
A preamble configuration method on an unlicensed carrier comprising: configuring, by a base station , a Physical Random Access Channel, PRACH, configuration message, the PRACH configuration message comprising subframe location information, first Clear Channel Assessment, CCA, interval location information, a channel detection mechanism, preamble format information, and preamble sending location information; the subframe location information representing a location of a subframe where M to-be-transmitted preambles are located, the subframe being an uplink subframe, a special subframe or a downlink partial subframe; the first CCA interval location information representing a location of a CCA interval before each preamble in the M to-be-transmitted preambles on the subframe or on a previous subframe of the subframe; the channel detection mechanism indicating whether to indicate user equipment to detect an idle state of the unlicensed carrier; the preamble format information representing that the to-be-transmitted preambles are format 4 preambles; the preamble sending location information representing sending locations of the M to-be-transmitted preambles in the subframe, M being an integer that is larger than 0; and sending, by the base station , control signaling carrying the PRACH configuration message to the user equipment ; the control signaling comprising Radio Resource Control, RRC signaling and/or Downlink Control Information, DCI, signaling. configuring, by a base station , a Physical Random Access Channel, PRACH, configuration message, the PRACH configuration message comprising subframe location information, first Clear Channel Assessment, CCA, interval location information, a channel detection mechanism, preamble format information, and preamble sending location information; the subframe location information representing a location of a subframe where M to-be-transmitted preambles are located, the subframe being an uplink subframe, a special subframe or a downlink partial subframe; the first CCA interval location information representing a location of a CCA interval before each preamble in the M to-be-transmitted preambles on the subframe or on a previous subframe of the subframe; the channel detection mechanism indicating whether to indicate user equipment to detect an idle state of the unlicensed carrier; the preamble format information representing that the to-be-transmitted preambles are format 4 preambles; the preamble sending location information representing sending locations of the M to-be-transmitted preambles in the subframe, M being an integer that is larger than 0; and sending, by the base station , control signaling carrying the PRACH configuration message to the user equipment ; the control signaling comprising Radio Resource Control, RRC signaling and/or Downlink Control Information, DCI, signaling.
A method executed at a relay user equipment, UE, operating in a wireless communication system, the method comprising: generating a Proximity based Services, ProSe, layer 2 identifier, ID, of the relay UE when the relay UE is to communicate with a remote UE, wherein the ProSe layer 2 ID is to be used as an identification of the relay UE when the relay UE communicates with the remote UE over PC5 interface, transmitting a notification message including the ProSe layer 2 ID and a Cell-Radio Network Temporary Identifier, C-RNTI, of the relay UE to an eNB through a radio resource control, RRC, signaling, wherein the C-RNTI is to be used as an identification of the relay UE when the relay UE communicates with the eNB over Uu interface, receiving a response message in response to the notification message from the eNB; and generating another ProSe layer 2 ID different from the ProSe layer 2 ID if the response message indicates collision of the ProSe layer 2 ID between the relay UE and another relay UE, wherein when the another ProSe layer 2 ID is generated, transmitting the discovery message to the remote UE using the another ProSe layer 2 ID, wherein the response message indicates collision of the ProSe layer 2 ID between the relay UE and the another relay UE when the ProSe layer 2 ID of the relay UE and a ProSe layer 2 ID of the another relay UE are the same and the C-RNTI of the relay UE and a C-RNTI of the another relay UE are different. generating a Proximity based Services, ProSe, layer 2 identifier, ID, of the relay UE when the relay UE is to communicate with a remote UE, wherein the ProSe layer 2 ID is to be used as an identification of the relay UE when the relay UE communicates with the remote UE over PC5 interface, transmitting a notification message including the ProSe layer 2 ID and a Cell-Radio Network Temporary Identifier, C-RNTI, of the relay UE to an eNB through a radio resource control, RRC, signaling, wherein the C-RNTI is to be used as an identification of the relay UE when the relay UE communicates with the eNB over Uu interface, receiving a response message in response to the notification message from the eNB; and generating another ProSe layer 2 ID different from the ProSe layer 2 ID if the response message indicates collision of the ProSe layer 2 ID between the relay UE and another relay UE, wherein when the another ProSe layer 2 ID is generated, transmitting the discovery message to the remote UE using the another ProSe layer 2 ID, wherein the response message indicates collision of the ProSe layer 2 ID between the relay UE and the another relay UE when the ProSe layer 2 ID of the relay UE and a ProSe layer 2 ID of the another relay UE are the same and the C-RNTI of the relay UE and a C-RNTI of the another relay UE are different.
A non-planar transistor , comprising: a non-planar transistor fin on a microelectronic substrate ; a non-planar transistor gate over the non-planar transistor fin ; a source region and a drain region in the non-planar transistor fin on opposite sides of the non-planar transistor gate ; wherein the non-planar transistor gate comprises: a pair of gate spacers ; a gate dielectric on the non-planar transistor fin between the pair of gate spacers ; a gate electrode on the gate dielectric between the pair of gate spacers ; and a dielectric capping structure on the gate electrode between the pair of gate spacers ; wherein the gate electrode comprises: an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier . a non-planar transistor fin on a microelectronic substrate ; a non-planar transistor gate over the non-planar transistor fin ; a source region and a drain region in the non-planar transistor fin on opposite sides of the non-planar transistor gate ; wherein the non-planar transistor gate comprises: a pair of gate spacers ; a gate dielectric on the non-planar transistor fin between the pair of gate spacers ; a gate electrode on the gate dielectric between the pair of gate spacers ; and a dielectric capping structure on the gate electrode between the pair of gate spacers ; wherein the gate electrode comprises: an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier . a pair of gate spacers ; a gate dielectric on the non-planar transistor fin between the pair of gate spacers ; a gate electrode on the gate dielectric between the pair of gate spacers ; and a dielectric capping structure on the gate electrode between the pair of gate spacers ; wherein the gate electrode comprises: an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier . an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier .