mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a first processing unit, the first processing unit 1 comprising a secure execution partition, the secure execution partition comprising a partition of circuitry within the first processing unit 2 ; and a policy agent for execution by the secure execution partition, the policy agent to receive a policy for a virtual network function (VNF) (124-1 to 124-n) and to configure the VNF (124-1 to 124-n) to implement a network function based on the policy, the VNF (124-1 to 124-n) to be executed upon a second processing unit different than the first processing unit 3 . 1 Page 2, line 15 to page 3, line 14; page 5, line 26 to page 6, line 4; page 9, line 31 to page 10, line 21; 2 Page 2, line 15 to page 3, line 14 Figs. 1-9; 3 Page 2, line 15 to page 3, line 14; page 5, line 26 to page 6, line 4; page 7, lines 7 to 21; page 8, line 6 to page 9, line 19; page 9, line 31 to page 11, line 2; Figs. 1-11 a first processing unit, the first processing unit 1 comprising a secure execution partition, the secure execution partition comprising a partition of circuitry within the first processing unit 2 ; and a policy agent for execution by the secure execution partition, the policy agent to receive a policy for a virtual network function (VNF) (124-1 to 124-n) and to configure the VNF (124-1 to 124-n) to implement a network function based on the policy, the VNF (124-1 to 124-n) to be executed upon a second processing unit different than the first processing unit 3 . 1 Page 2, line 15 to page 3, line 14; page 5, line 26 to page 6, line 4; page 9, line 31 to page 10, line 21; 2 Page 2, line 15 to page 3, line 14 Figs. 1-9; 3 Page 2, line 15 to page 3, line 14; page 5, line 26 to page 6, line 4; page 7, lines 7 to 21; page 8, line 6 to page 9, line 19; page 9, line 31 to page 11, line 2; Figs. 1-11
An apparatus for delivering power to a hybrid vehicle , the hybrid vehicle including a powertrain including an engine and having a power take-off, the apparatus comprising: an electric motor operable to generate a torque, the motor being coupled to transmit a starting torque through the power take-off of the powertrain for starting the engine , characterized in a planetary gear system operable to receive torque generated by the motor and being selectively configurable to transmit the starting torque through the power take-off coupling to the engine . an electric motor operable to generate a torque, the motor being coupled to transmit a starting torque through the power take-off of the powertrain for starting the engine , characterized in a planetary gear system operable to receive torque generated by the motor and being selectively configurable to transmit the starting torque through the power take-off coupling to the engine .
Method for concentrating a cell suspension comprising a mucilaginous biomass of oleaginous yeasts, said method comprising the steps of: a) cultivating said oleaginous yeasts in a fermentation broth thus obtaining a cell suspension comprising said mucilaginous biomass; b) subjecting the cell suspension obtained from step a) to heat treatment, at a temperature comprised between 95°C and 120°C and to acid treatment, thus obtaining a treated cell suspension comprising said mucilaginous biomass containing intact oleaginous yeast cells; c) concentrating the treated cell suspension obtained from step b) comprising a step of removing at least part of said fermentation broth thus obtaining a concentrated cell suspension. a) cultivating said oleaginous yeasts in a fermentation broth thus obtaining a cell suspension comprising said mucilaginous biomass; b) subjecting the cell suspension obtained from step a) to heat treatment, at a temperature comprised between 95°C and 120°C and to acid treatment, thus obtaining a treated cell suspension comprising said mucilaginous biomass containing intact oleaginous yeast cells; c) concentrating the treated cell suspension obtained from step b) comprising a step of removing at least part of said fermentation broth thus obtaining a concentrated cell suspension.
A method for determining a frequency resource, comprising: for a hop in frequency domain, when a first part of a frequency resource of the hop is outside a first bandwidth part, BWP, moving , by a user equipment, UE, the frequency resource of the hop, such that the whole frequency resource of the hop is turned inside the first BWP; wherein the hop is one of hops of an uplink data channel or an uplink control channel; characterized in that , the moving comprises: moving the whole frequency resource of the hop, and a starting resource block, RB, of the hop prior to the moving and a starting RB of the hop after the moving satisfy the following equation: RB start ′ = RB start mod N − P where RB start indicates the starting RB of the hop prior to the moving, N indicates a number of RBs included in the first BWP, and P indicates a number of RBs included in the hop, RB start ' indicates the starting RB of the hop after the moving, and mod indicates a modulus operation. for a hop in frequency domain, when a first part of a frequency resource of the hop is outside a first bandwidth part, BWP, moving , by a user equipment, UE, the frequency resource of the hop, such that the whole frequency resource of the hop is turned inside the first BWP; wherein the hop is one of hops of an uplink data channel or an uplink control channel; characterized in that , the moving comprises: moving the whole frequency resource of the hop, and a starting resource block, RB, of the hop prior to the moving and a starting RB of the hop after the moving satisfy the following equation: RB start ′ = RB start mod N − P where RB start indicates the starting RB of the hop prior to the moving, N indicates a number of RBs included in the first BWP, and P indicates a number of RBs included in the hop, RB start ' indicates the starting RB of the hop after the moving, and mod indicates a modulus operation. moving the whole frequency resource of the hop, and a starting resource block, RB, of the hop prior to the moving and a starting RB of the hop after the moving satisfy the following equation: RB start ′ = RB start mod N − P where RB start indicates the starting RB of the hop prior to the moving, N indicates a number of RBs included in the first BWP, and P indicates a number of RBs included in the hop, RB start ' indicates the starting RB of the hop after the moving, and mod indicates a modulus operation.
Method for removing NO and/or NO x from an exhaust gas stream of an internal combustion engine during the cold start phase, wherein the exhaust gas stream and a gas stream containing oxygen are simultaneously passed through an adsorber module containing aluminosilicate particles, and NO is oxidized by the oxygen and adsorbed on the aluminosilicate particles, wherein the aluminosilicate particles contain no metals as promoters and the average particle diameter of the aluminosilicate particles is in the range of 0.1 mm to 0.7 mm, and wherein the method is carried out in an outside temperature range of -40°C to 40°C and at a flow rate of at least 60 m 3 /h of exhaust gas and has a space-time yield of at least 30,000 h -1 .
A stable microcapsule composition comprising a microcapsule dispersed in an aqueous phase and a stabilizing agent, wherein the stabilizing agent is a combination of a negatively charged clay and a cationic polymer, wherein the microcapsule is a core-shell microcapsule having a microcapsule wall and a microcapsule core encapsulated by the microcapsule wall, and wherein the cationic polymer is a hydroxylethyl cellulose dimethyl diallylammonium chloride copolymer (PQ-4). wherein the microcapsule is a core-shell microcapsule having a microcapsule wall and a microcapsule core encapsulated by the microcapsule wall, and wherein the cationic polymer is a hydroxylethyl cellulose dimethyl diallylammonium chloride copolymer (PQ-4).
A header device for a heat exchanger system (S) comprising a tube arrangement configured to convey a fluid to be heated and comprising a number of tubes (11-14) for the fluid to be heated, the header device comprising a header comprising an inlet portion and an outlet portion communicating with each other, wherein the inlet portion comprises a header inlet for a first fluid, wherein the outlet portion comprises a wall surrounding an inner space , wherein the outlet portion comprises a header outlet , which extends through the wall and is configured to be connected to the tube arrangement , wherein the header outlet comprises a number of openings through the wall of the outlet portion , each opening being configured to be connected to one of the tubes (11-14), wherein the header is configured to permit the first fluid to enter the inner space via the header inlet , and to flow from the inner space to the tube arrangement via the header outlet , characterized in that the header device comprises an injector pipe connected to the header , wherein a first portion of the injector pipe comprises an injector outlet and extends inside the inner space of the header , and wherein the injector pipe is arranged to inject a second fluid into the header to force, by means of an ejector action, the first fluid through the header outlet and into the tube arrangement together with the second fluid, the fluid to be heated comprising the first and second fluids.
A binding bar syrup composition comprising: allulose; at least one low sugar syrup and optionally an additional syrup; and optionally at least one additional binder ingredient, wherein the binding bar syrup composition has a DP1 + DP2 content less than about 65% and a DP3+ content of greater than about 35%, and, optionally, wherein the composition does not include sucrose or any nutritive sweetener. allulose; at least one low sugar syrup and optionally an additional syrup; and optionally at least one additional binder ingredient, wherein the binding bar syrup composition has a DP1 + DP2 content less than about 65% and a DP3+ content of greater than about 35%, and, optionally, wherein the composition does not include sucrose or any nutritive sweetener.
A method for controlling an injection molding machine having a mold forming a mold cavity, the injection molding machine being controlled according to an injection cycle, the method comprising: injecting a molten polymer into the mold cavity according to the injection cycle using a screw that moves from a first position to a second position; upon completion of the injection cycle, commencing a recovery profile in which the screw is moved to the first position; measuring, using a sensor, at least one variable during the recovery profile; and adjusting at least one operational parameter of the injection molding machine based on the at least one measured variable during the recovery profile characterized in that the at least one variable comprises a nozzle pressure, and the operational parameter comprises a back pressure, the back pressure being adjusted according to the sensed nozzle pressure. injecting a molten polymer into the mold cavity according to the injection cycle using a screw that moves from a first position to a second position; upon completion of the injection cycle, commencing a recovery profile in which the screw is moved to the first position; measuring, using a sensor, at least one variable during the recovery profile; and adjusting at least one operational parameter of the injection molding machine based on the at least one measured variable during the recovery profile characterized in that the at least one variable comprises a nozzle pressure, and the operational parameter comprises a back pressure, the back pressure being adjusted according to the sensed nozzle pressure.
A system for data enrichment on insulated appliances, the system comprising: an appliance for performing knowledge mining in a disconnected state, wherein the appliance is operative to: import a plurality of containerized cognitive functions and a seed index from a service node , when the appliance is initially connected to a network ; import a watch list from the service node when the appliance is initially connected to a network; ingest data of a first type from a first data source (164, 166, or 168) coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions (112, 113, 114, 115, 116, 117, or 118) of the plurality of containerized cognitive functions ; determine whether a portion of the enriched data includes any data items within the watch list; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; based at least on knowledge extracted from the enriched data, further enrich the enriched data; based at least on determining that the portion of the enriched data includes a data item within the watch list, prioritize the portion of the enriched data for further enrichment; and grow the seed index into an enhanced index with the enriched data. import a plurality of containerized cognitive functions and a seed index from a service node , when the appliance is initially connected to a network ; import a watch list from the service node when the appliance is initially connected to a network; ingest data of a first type from a first data source (164, 166, or 168) coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions (112, 113, 114, 115, 116, 117, or 118) of the plurality of containerized cognitive functions ; determine whether a portion of the enriched data includes any data items within the watch list; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; based at least on knowledge extracted from the enriched data, further enrich the enriched data; based at least on determining that the portion of the enriched data includes a data item within the watch list, prioritize the portion of the enriched data for further enrichment; and grow the seed index into an enhanced index with the enriched data.
A method implemented at a device for networking through signals transmitted across a shared medium network , wherein a shared medium is coupled with a plurality of devices in the shared medium network , the method comprising: monitoring for a first signal on the shared medium; processing the first signal received on the shared medium; receiving a set of one or more signals on the shared medium while processing the first signal; determining a set of one or more amplitude increases , wherein each amplitude increase is from an earlier received signal to a later received signal, and wherein each of the earlier received and the later received signals is one of the first and the set of one or more signals; comparing the set of one or more amplitude increases to a threshold value; characterized in that the method further comprises: at least partially in response to the comparison, a first comparison, aborting the processing of one or more signals from the first signal and the set of one or more signals. monitoring for a first signal on the shared medium; processing the first signal received on the shared medium; receiving a set of one or more signals on the shared medium while processing the first signal; determining a set of one or more amplitude increases , wherein each amplitude increase is from an earlier received signal to a later received signal, and wherein each of the earlier received and the later received signals is one of the first and the set of one or more signals; comparing the set of one or more amplitude increases to a threshold value; characterized in that the method further comprises: at least partially in response to the comparison, a first comparison, aborting the processing of one or more signals from the first signal and the set of one or more signals.
A method for determining the position of an irregularity in an optical transmission fiber using an optical time domain reflectometer , the method comprising the steps of: (a) emitting a succession of sampling light pulses into the optical transmission fiber , wherein the sampling light pulses have a predefined pulse width (W); (b) detecting reflected light pulses resulting from the reflection of the sampling light pulses at the irregularity in the optical transmission fiber and generating corresponding time-dependent detection signals, wherein each time-dependent detection signal is active for a time corresponding to the predefined pulse width (W), wherein different delays are associated with detection signals corresponding to different sampling light pulses, wherein the delays associated with detection signals are delays relative to virtually generated trigger points and/or delays relative to a clock signal; (c) obtaining a combined signal from the detection signals, wherein the combined signal corresponds to a superposition of the detection signals; and (d) analyzing the combined signal for determining the position of the irregularity in the optical transmission fiber with respect to the optical time domain reflectometer ; wherein the method further comprises a step of measuring a calibration signal by performing steps (a) to (d), wherein the reflected light pulses result from the reflection of the succession of sampling light pulses at a test irregularity and the calibration signal is obtained as a resulting further combined signal, and wherein the test irregularity is an irregularity located at a known distance from the optical time domain reflectometer ; wherein the step of analyzing the combined signal comprises comparing the combined signal to the calibration signal to determine a time shift between the combined signal and the calibration signal, and wherein the position of the irregularity in the optical transmission fiber is determined based on the determined time shift between the combined signal and the calibration signal. (a) emitting a succession of sampling light pulses into the optical transmission fiber , wherein the sampling light pulses have a predefined pulse width (W); (b) detecting reflected light pulses resulting from the reflection of the sampling light pulses at the irregularity in the optical transmission fiber and generating corresponding time-dependent detection signals, wherein each time-dependent detection signal is active for a time corresponding to the predefined pulse width (W), wherein different delays are associated with detection signals corresponding to different sampling light pulses, wherein the delays associated with detection signals are delays relative to virtually generated trigger points and/or delays relative to a clock signal; (c) obtaining a combined signal from the detection signals, wherein the combined signal corresponds to a superposition of the detection signals; and (d) analyzing the combined signal for determining the position of the irregularity in the optical transmission fiber with respect to the optical time domain reflectometer ;
A system for providing feedback to at least one participant of a plurality of participants in a field of play, comprising: a performance analysis device for determining performance information of each participant of the plurality of participants in the field of play, wherein the performance information is based on at least a determined location or path of said each participant; and at least one feedback device for providing real-time feedback to said at least one participant based on the performance information; the at least one feedback device comprising an audio system co-located with said at least one participant, the audio system comprising left and right speakers for respective left and right ears of said at least one participant; and the real-time feedback comprising an audio signal indicating a specific direction from which pressure is coming toward said at least one participant by varying a volume and tone of the left or right speaker, the pressure being determined from a proximity of each of a plurality of other participants, of the plurality of participants in the field of play, to said at least one participant, the proximity being determined from the performance information. a performance analysis device for determining performance information of each participant of the plurality of participants in the field of play, wherein the performance information is based on at least a determined location or path of said each participant; and at least one feedback device for providing real-time feedback to said at least one participant based on the performance information; the at least one feedback device comprising an audio system co-located with said at least one participant, the audio system comprising left and right speakers for respective left and right ears of said at least one participant; and the real-time feedback comprising an audio signal indicating a specific direction from which pressure is coming toward said at least one participant by varying a volume and tone of the left or right speaker, the pressure being determined from a proximity of each of a plurality of other participants, of the plurality of participants in the field of play, to said at least one participant, the proximity being determined from the performance information.
The invention relates to a clutch device for a drive train of a motor vehicle, comprising a torsional vibration damper , a disconnect clutch and a fastening unit which detachably connects the disconnect clutch to the torsional vibration damper , wherein the fastening unit has a first toothing region fixed to a clutch component of the disconnect clutch , a second toothing region which is fixed to the output side of the torsional vibration damper and which is in an interlocking rotational connection with the first toothing region , and a clamping element which preloads the toothing regions relative to one another with a preloading force in a circumferential direction, and wherein the clamping element is designed such that it preloads the output side of the torsional vibration damper with an axial contact force relative to the clutch component , characterised in that the disconnect clutch has a first clutch component receiving the first toothing region and a second clutch component which can be coupled to the first clutch component .
A saddle for horse riding , comprising a supporting frame , defining a seat which extends along a longitudinal direction of extension of the saddle , and at least one first and one second flap , which are associated with said supporting frame and are arranged on opposite sides with respect to a plane of symmetry which is vertical in use and passes through said longitudinal direction of extension , said saddle for horse riding comprising a double-flap saddle provided with a first and a second underflap configured to be arranged in use between a respective one of said at least one first and one second flap and the back of the horse, said first and said second underflap being provided with a respective padding and a sheet-like leather body which has a lower portion extending below the padding and an upper portion arranged at least partially facing said padding, said padding comprising a first and a second padding , said first padding comprising a cushioning structure having at least a first portion with a substantially horizontal extension which extends substantially parallel to said longitudinal direction of extension in a position that is close to the seat , said second padding having a panel structure arranged substantially in a lower region and adjacent to at least one portion of the edge of said cushioning structure that, during use, is a lower portion, said upper portion being arranged at least partially facing the outward face of said panel structure , characterized by said sheet-like leather body having a connecting incision extending at at least part of a lower edge of said panel structure , configured for connecting a sheet-like hide element designed to face the face of said panel structure that is directed toward the horse.