mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an electronic device for establishing a communication link between the electronic device and a further electronic device, comprising: transmitting to the further electronic device a handover request message via an NFC link for requesting formation of communication between the electronic device and the further electronic device using an alternative carrier for at least one alternative communication link, wherein the handover request message includes a provision for collision resolution information; and receiving a handover select message from the further electronic device via the NFC link, wherein the handover select message includes a provision for power condition information of the alternative carriers provided by the further electronic device. transmitting to the further electronic device a handover request message via an NFC link for requesting formation of communication between the electronic device and the further electronic device using an alternative carrier for at least one alternative communication link, wherein the handover request message includes a provision for collision resolution information; and receiving a handover select message from the further electronic device via the NFC link, wherein the handover select message includes a provision for power condition information of the alternative carriers provided by the further electronic device.
A wireless transmit/receive unit, WTRU, comprising: means for receiving a first transmission on a downlink control channel, the first transmission on the downlink control channel comprising an indication of first non-contention based, NCB, uplink control channel resources that have been allocated to the WTRU, wherein the first NCB uplink control channel resources are a combination of time multiplexed, frequency multiplexed, and code multiplexed; means for transmitting a first hybrid automatic repeat request, HARQ, feedback using the first NCB uplink control channel resources indicated in the first transmission on the downlink control channel; means for receiving a second transmission on the downlink control channel, the second transmission on the downlink control channel comprising an indication of second NCB uplink control channel resources that have been allocated to the WTRU; and means for transmitting a second HARQ feedback using the second NCB uplink control channel resources indicated in the second transmission on the downlink control channel. means for receiving a first transmission on a downlink control channel, the first transmission on the downlink control channel comprising an indication of first non-contention based, NCB, uplink control channel resources that have been allocated to the WTRU, wherein the first NCB uplink control channel resources are a combination of time multiplexed, frequency multiplexed, and code multiplexed; means for transmitting a first hybrid automatic repeat request, HARQ, feedback using the first NCB uplink control channel resources indicated in the first transmission on the downlink control channel; means for receiving a second transmission on the downlink control channel, the second transmission on the downlink control channel comprising an indication of second NCB uplink control channel resources that have been allocated to the WTRU; and means for transmitting a second HARQ feedback using the second NCB uplink control channel resources indicated in the second transmission on the downlink control channel.
A method of speed planning for automatic driving of a vehicle, comprising: a machine learning step, comprising: performing machine learning using a set of training samples to obtain a machine learning model, wherein each of the training samples is represented by a multi-dimensional feature vector forming an input space and a decision result forming an output space, wherein each dimension of the multi-dimensional feature vector is a variable describing a state of the vehicle at a particular moment, wherein the variable is related to speed planning, and wherein the decision result indicates at least one of an expected speed at a next moment or a control parameter value related to speed control; a partition decision table obtaining step, comprising: partitioning the input space, and obtaining a decision result corresponding to a determined partition based on the obtained machine learning model to form a partition decision table that maps each of the partitions to its corresponding decision result; and a real-time decision-making step, comprising: obtaining each dimensional feature vector of the vehicle while driving in real time as an input feature, determining an input partition to which the input feature belongs, and querying the partition decision table based on the determined partition to obtain a corresponding decision result. a machine learning step, comprising: performing machine learning using a set of training samples to obtain a machine learning model, wherein each of the training samples is represented by a multi-dimensional feature vector forming an input space and a decision result forming an output space, wherein each dimension of the multi-dimensional feature vector is a variable describing a state of the vehicle at a particular moment, wherein the variable is related to speed planning, and wherein the decision result indicates at least one of an expected speed at a next moment or a control parameter value related to speed control; a partition decision table obtaining step, comprising: partitioning the input space, and obtaining a decision result corresponding to a determined partition based on the obtained machine learning model to form a partition decision table that maps each of the partitions to its corresponding decision result; and a real-time decision-making step, comprising: obtaining each dimensional feature vector of the vehicle while driving in real time as an input feature, determining an input partition to which the input feature belongs, and querying the partition decision table based on the determined partition to obtain a corresponding decision result.
A method comprising: forwarding packets received from a transmitting node from an OOB, out-of-band, state machine to at least an operating system, wherein said OOB state machine is a component that may sustain a network connection when a system comprising the operating system is out-of-band to enable the system to communicate with said transmitting node, and to enable said transmitting node to forward one or more packets to a receiving node; transitioning said OOB state machine from a passive state to an active state if the operating system has not confirmed that the operating system is functional; obtaining, by the OOB state machine, an OOB IP address to maintain a network connection; and receiving, by the OOB state machine, one or more first packets using the OOB IP address when said OOB state machine is in the active state; characterized in that packets from said transmitting node are forwarded from said OOB state machine to the operating system when said OOB state machine is in the passive state; the OOB IP address is obtained by snooping at least one address packet received from said transmitting node coupled to the OOB state machine to determine the IP address of the operating system from the at least one address packet if the OOB state machine currently has no OOB IP address; and the OOB IP address is set to the IP address determined from the at least one address packet. forwarding packets received from a transmitting node from an OOB, out-of-band, state machine to at least an operating system, wherein said OOB state machine is a component that may sustain a network connection when a system comprising the operating system is out-of-band to enable the system to communicate with said transmitting node, and to enable said transmitting node to forward one or more packets to a receiving node; transitioning said OOB state machine from a passive state to an active state if the operating system has not confirmed that the operating system is functional; obtaining, by the OOB state machine, an OOB IP address to maintain a network connection; and receiving, by the OOB state machine, one or more first packets using the OOB IP address when said OOB state machine is in the active state; characterized in that packets from said transmitting node are forwarded from said OOB state machine to the operating system when said OOB state machine is in the passive state; the OOB IP address is obtained by snooping at least one address packet received from said transmitting node coupled to the OOB state machine to determine the IP address of the operating system from the at least one address packet if the OOB state machine currently has no OOB IP address; and the OOB IP address is set to the IP address determined from the at least one address packet.
An automatic gain adjustment and control method for eliminating the interference between Global System for Mobile Communication, GSM, and Long-Term Evolution, LTE, in Multi-Standard Radio, MSR, receiver, comprising: setting, in an MSR receiver, an upper threshold and a lower threshold which are used for starting up gain control function; detecting an Analogue-to-Digital Converter, ADC, power of an ADC of the MSR receiver when a LTE Orthogonal Frequency Division Multiplexing, OFDM, starts; comparing the detected ADC power with the upper threshold and the lower threshold respectively; and based on a comparison result representing that the ADC power is larger than the upper threshold or the ADC power is smaller than the lower threshold, starting up the gain control function of the MSR receiver to control the LTE and GSM signal power within a certain range, and otherwise, not starting up the gain control function of the MSR receiver, wherein in a period during which the gain control function of the MSR receiver is enabled, a gain compensation is performed on a GSM signal in a digital domain in an inverse proportion to the gain control of the MSR receiver. setting, in an MSR receiver, an upper threshold and a lower threshold which are used for starting up gain control function; detecting an Analogue-to-Digital Converter, ADC, power of an ADC of the MSR receiver when a LTE Orthogonal Frequency Division Multiplexing, OFDM, starts; comparing the detected ADC power with the upper threshold and the lower threshold respectively; and based on a comparison result representing that the ADC power is larger than the upper threshold or the ADC power is smaller than the lower threshold, starting up the gain control function of the MSR receiver to control the LTE and GSM signal power within a certain range, and otherwise, not starting up the gain control function of the MSR receiver,
A ventricular assist device for pumping blood between an inlet and an outlet, comprising: a frame (202, 302); a compressible chamber (204, 612) disposed within said frame (202, 302) and connected between said inlet and said outlet; a first one-way valve for providing fluid communication from said inlet to said chamber (204, 612); a second one-way valve for providing fluid communication from said chamber (204, 612) to said outlet, characterized in that said chamber (204, 612) is a single compressible chamber disposed within and adjacent to a first lateral side of said frame (202, 302) and that a bearingless electromagnetic drive unit (210, 300, 616) is disposed within and adjacent to a second lateral side of said frame (202, 302), comprising two cores (222, 224, 604,608), one or more coils (212, 214, 602, 632, 634) wound about one or both of said cores, and an armature (206, 606, 600) disposed between said cores, said armature (206, 606, 600) having one or more magnets (216, 620) each having a pair of magnetic poles, wherein said bearingless electromagnetic drive unit (210, 300, 616), when energized, providing a force on said armature (206, 606, 600) towards said compressible chamber (204, 612) during an eject stroke wherein fluid is expelled from said compressible chamber (604, 612) to said outlet. a frame (202, 302); a compressible chamber (204, 612) disposed within said frame (202, 302) and connected between said inlet and said outlet; a first one-way valve for providing fluid communication from said inlet to said chamber (204, 612); a second one-way valve for providing fluid communication from said chamber (204, 612) to said outlet, characterized in that said chamber (204, 612) is a single compressible chamber disposed within and adjacent to a first lateral side of said frame (202, 302) and that a bearingless electromagnetic drive unit (210, 300, 616) is disposed within and adjacent to a second lateral side of said frame (202, 302), comprising two cores (222, 224, 604,608), one or more coils (212, 214, 602, 632, 634) wound about one or both of said cores, and an armature (206, 606, 600) disposed between said cores, said armature (206, 606, 600) having one or more magnets (216, 620) each having a pair of magnetic poles, wherein said bearingless electromagnetic drive unit (210, 300, 616), when energized, providing a force on said armature (206, 606, 600) towards said compressible chamber (204, 612) during an eject stroke wherein fluid is expelled from said compressible chamber (604, 612) to said outlet.
A method of decoding optically encoded information performed by an image processing system, the method comprising: obtaining first image data corresponding to an image of optically encoded information received via a lens unit that causes controlled spherical aberration (step 802); performing decoding processing on the first image data (step 804); responsive to the decoding processing on the first image data not producing data corresponding to the optically encoded information, obtaining second image data by performing deconvolution processing on the first image data (step 810) and performing the decoding processing on the second image data (step 812); and responsive to the decoding processing on the second image data not producing the data corresponding to the optically encoded information, obtaining third image data by performing filter deconvolution processing on the first image data (step 816) and performing the decoding processing on the third image data (step 818); and characterized in that the filter deconvolution processing is performed using a first deconvolution kernel matrix and a second deconvolution kernel matrix that is orthogonal to the first deconvolution kernel matrix. obtaining first image data corresponding to an image of optically encoded information received via a lens unit that causes controlled spherical aberration (step 802); performing decoding processing on the first image data (step 804); responsive to the decoding processing on the first image data not producing data corresponding to the optically encoded information, obtaining second image data by performing deconvolution processing on the first image data (step 810) and performing the decoding processing on the second image data (step 812); and responsive to the decoding processing on the second image data not producing the data corresponding to the optically encoded information, obtaining third image data by performing filter deconvolution processing on the first image data (step 816) and performing the decoding processing on the third image data (step 818); and characterized in that the filter deconvolution processing is performed using a first deconvolution kernel matrix and a second deconvolution kernel matrix that is orthogonal to the first deconvolution kernel matrix.
A gas generator for a safety device in a vehicle comprising a filter and a combustion chamber component at least partially enclosing a combustion chamber, especially a combustion chamber sleeve, wherein the filter extends in ring shape around the combustion chamber and along its ring-shaped extension includes a critical filter portion which comes closer to the combustion chamber component than the remaining filter areas disposed along its ring-shaped extension, characterized in that the critical filter portion has a reduced thickness as compared to areas of the filter which abutting on the critical filter portion.
Drive device for a mechanical press, comprising a drive means, for example a servomotor, a gearbox, and a holding brake, characterized by a holding brake comprising at least - one external part having an internal toothing, and an internal entrainment element having an external toothing; - at least one external disc having an external toothing, and at least one internal disc having an internal toothing, wherein - the internal toothing of the internal disk engages with the external toothing of the internal entrainment element, and the external toothing of the external disc engages with the internal toothing of the external part, wherein - the internal disc has at least one friction lining that faces the adjacent external disc, and the external disc has at least one friction lining that faces the adjacent internal disc, wherein - an activation means which is adapted for selectively mutually compressing or not mutually compressing the at least one internal disc and the at least one external disc is provided, wherein at least one of the toothings (111, 121, 131, 141) is formed from a non-metallic material. - one external part having an internal toothing, and an internal entrainment element having an external toothing; - at least one external disc having an external toothing, and at least one internal disc having an internal toothing, wherein - the internal toothing of the internal disk engages with the external toothing of the internal entrainment element, and the external toothing of the external disc engages with the internal toothing of the external part, wherein - the internal disc has at least one friction lining that faces the adjacent external disc, and the external disc has at least one friction lining that faces the adjacent internal disc, wherein - an activation means which is adapted for selectively mutually compressing or not mutually compressing the at least one internal disc and the at least one external disc is provided,
An image forming apparatus comprising: a voice acquiring unit configured to acquire a voice utterance, including a request and at least one target, wherein the voice acquiring unit is configured to acquire a voice utterance including a request instructing to set as targets a plurality of setting items to be used for executing image forming; an operation control unit configured to control a display of the image forming apparatus to display a setting screen indicating a plurality of setting items each having been set using one or more keywords recognized from the voice utterance instructing to set the plurality of setting items; and an engine control unit configured to perform image forming based on the plurality of setting items having been set based on the voice utterance. a voice acquiring unit configured to acquire a voice utterance, including a request and at least one target, wherein the voice acquiring unit is configured to acquire a voice utterance including a request instructing to set as targets a plurality of setting items to be used for executing image forming; an operation control unit configured to control a display of the image forming apparatus to display a setting screen indicating a plurality of setting items each having been set using one or more keywords recognized from the voice utterance instructing to set the plurality of setting items; and an engine control unit configured to perform image forming based on the plurality of setting items having been set based on the voice utterance.
Sterilization apparatus for sterilizing a web of packaging material advancing along a web advancement path, the sterilization apparatus comprising: - an irradiation device configured to sterilize at least a first face of the advancing web of packaging material by directing a sterilizing irradiation onto at least the first face while, in use, advancing along a sterilization portion of the web advancement path; - a main shielding chamber housing the irradiation device and comprising an advancement channel having an inlet opening and an outlet opening and through which, in use, the web of packaging material advances along the sterilization portion; - an auxiliary shielding chamber being arranged upstream of the advancement channel along the web advancement path and having an inner space being in fluid connection with the advancement channel; wherein the auxiliary shielding chamber comprises an extraction opening configured to allow to extract gas from the auxiliary shielding chamber; and the sterilization apparatus further comprises an aspiration device configured to generate a first flow of gas within the advancement channel from the outlet opening to the inlet opening and a second flow of gas from the inlet opening to the extraction opening; characterized in that the aspiration device comprises a suction conduct arranged within the inner space and being configured to at least partially guide the second flow of gas; the suction conduct having an intake mouth arranged at the inlet opening. - an irradiation device configured to sterilize at least a first face of the advancing web of packaging material by directing a sterilizing irradiation onto at least the first face while, in use, advancing along a sterilization portion of the web advancement path; - a main shielding chamber housing the irradiation device and comprising an advancement channel having an inlet opening and an outlet opening and through which, in use, the web of packaging material advances along the sterilization portion; - an auxiliary shielding chamber being arranged upstream of the advancement channel along the web advancement path and having an inner space being in fluid connection with the advancement channel;