mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication by a first wireless device, comprising: determining spatial directions of a plurality of wireless devices including a second wireless device and at least one other wireless device; selecting a sweeping pattern of the first wireless device indicating one or more angular regions for receiving signals from the second wireless device based on the determined spatial directions; transmitting , to the second wireless device, information including the sweeping pattern of the first wireless device and at least one time slot during which the first wireless device will listen to transmissions from the second wireless device; performing , based on the determined spatial directions and the transmitted information, a beam sweep for receiving one or more request to send, RTS, messages, wherein performing the beam sweep comprises listening for an RTS message based on the selected sweeping pattern during the at least one time slot; determining that the RTS message for a data transmission is received from the second wireless device at a first spatial direction of the determined spatial directions, wherein the RTS message includes a duration field; setting a network allocation vector, NAV, based on the duration field in the RTS message, wherein the CTS message is beamformed to the second wireless device after the NAV has expired; and transmitting a clear to send, CTS, message to authorize the data transmission from the second wireless device. determining spatial directions of a plurality of wireless devices including a second wireless device and at least one other wireless device; selecting a sweeping pattern of the first wireless device indicating one or more angular regions for receiving signals from the second wireless device based on the determined spatial directions; transmitting , to the second wireless device, information including the sweeping pattern of the first wireless device and at least one time slot during which the first wireless device will listen to transmissions from the second wireless device; performing , based on the determined spatial directions and the transmitted information, a beam sweep for receiving one or more request to send, RTS, messages, wherein performing the beam sweep comprises listening for an RTS message based on the selected sweeping pattern during the at least one time slot; determining that the RTS message for a data transmission is received from the second wireless device at a first spatial direction of the determined spatial directions, wherein the RTS message includes a duration field; setting a network allocation vector, NAV, based on the duration field in the RTS message, wherein the CTS message is beamformed to the second wireless device after the NAV has expired; and transmitting a clear to send, CTS, message to authorize the data transmission from the second wireless device.
A method for selecting and recovering products comprising the following steps: - providing an emulsion comprising a plurality of drops contained in a carrier fluid , each drop comprising an internal fluid , - measuring at least one physical parameter for several drops of the emulsion , - classifying at least some of the drops of the emulsion in a class based on measurements obtained during the measuring step, - tagging at least some of the classified drops based on the class of the drop , and - selectively recovering the drop or part of the drop using the tag of the drop or part of the drop , the internal fluid of each drop comprising a signal reagent , the tagging step comprising a step for optical activation of the signal reagent depending on the classification of the drop . - providing an emulsion comprising a plurality of drops contained in a carrier fluid , each drop comprising an internal fluid , - measuring at least one physical parameter for several drops of the emulsion , - classifying at least some of the drops of the emulsion in a class based on measurements obtained during the measuring step, - tagging at least some of the classified drops based on the class of the drop , and - selectively recovering the drop or part of the drop using the tag of the drop or part of the drop , the internal fluid of each drop comprising a signal reagent , the tagging step comprising a step for optical activation of the signal reagent depending on the classification of the drop .
A hybrid vehicle comprising: an engine ; a first rotary machine (MG2) configured to drive the hybrid vehicle; a power transmission system configured to transmit drive force from the engine and the first rotary machine (MG2) via an output unit to driven wheels ; a first oil pump (P1) configured to be mechanically rotary-driven by the output unit ; a second oil pump (P2) configured to be rotary-driven by a rotary drive source (20; 102) that is different from the output unit ; a first supply passage connected to a discharge side of the first oil pump (P1), and the first supply passage configured to supply lubricating oil at least to the first rotary machine (MG2); a second supply passage connected to a discharge side of the second oil pump (P2), and the second supply passage configured to supply lubricating oil at least to the first rotary machine (MG2); and characterized by an oil cooler , wherein the oil cooler is provided to only the second supply passage of the first supply passage and the second supply passage , whereby the lubricating oil discharged from the second oil pump (P2) is supplied via the oil cooler to the first rotary machine (MG2), and the lubricating oil discharged from the first oil pump (P1) is supplied to the first rotary machine (MG2) without being cooled by the oil cooler . an engine ; a first rotary machine (MG2) configured to drive the hybrid vehicle; a power transmission system configured to transmit drive force from the engine and the first rotary machine (MG2) via an output unit to driven wheels ; a first oil pump (P1) configured to be mechanically rotary-driven by the output unit ; a second oil pump (P2) configured to be rotary-driven by a rotary drive source (20; 102) that is different from the output unit ; a first supply passage connected to a discharge side of the first oil pump (P1), and the first supply passage configured to supply lubricating oil at least to the first rotary machine (MG2); a second supply passage connected to a discharge side of the second oil pump (P2), and the second supply passage configured to supply lubricating oil at least to the first rotary machine (MG2); and characterized by an oil cooler , wherein the oil cooler is provided to only the second supply passage of the first supply passage and the second supply passage , whereby the lubricating oil discharged from the second oil pump (P2) is supplied via the oil cooler to the first rotary machine (MG2), and the lubricating oil discharged from the first oil pump (P1) is supplied to the first rotary machine (MG2) without being cooled by the oil cooler .
An image-guided therapeutic apparatus comprising - a treatment device , comprising a HIFU transducer, for treating tissue, - at least one imaging device for guidance of a treatment, - means for providing a first image taken before the treatment and a second image taken during the treatment, - a display for displaying said first image and - planning means for planning a treatment - wherein the planning means is adapted to create a virtual optical lesion representation of a lesion that will be created in tissue and to overlay said virtual optical lesion representation over said first image , and the planning means comprises a manual adjusting unit useable by an operator for adjusting the virtual optical lesion representation, in order to adapt the planning of the treatment during the treatment based on the second image, wherein characteristics comprising a size and shape of the virtual optical lesion representation are changeable in dependence on the characteristics of the tissue in order to treat different areas or types of tissue differently, and wherein the size or shape of the lesion representation is definable by the operator in order to adjust the treatment with the help of the lesion representation, wherein the apparatus is adapted to link the adjusted virtual optical lesion representation created by the planning means with treatment characteristics, wherein the treatment characteristics comprise at least one of - power - pulse length - repetition rate - distance between pulses - position of a pulse - acoustic frequency. - a treatment device , comprising a HIFU transducer, for treating tissue, - at least one imaging device for guidance of a treatment, - means for providing a first image taken before the treatment and a second image taken during the treatment, - a display for displaying said first image and - planning means for planning a treatment - wherein the planning means is adapted to create a virtual optical lesion representation of a lesion that will be created in tissue and to overlay said virtual optical lesion representation over said first image , and the planning means comprises a manual adjusting unit useable by an operator for adjusting the virtual optical lesion representation, in order to adapt the planning of the treatment during the treatment based on the second image, - power - pulse length - repetition rate - distance between pulses - position of a pulse - acoustic frequency.
A noninvasive medical device (100; 900) configured to provide cooling to a tissue of a skin region, the noninvasive medical device comprising: a top plate ; a bottom plate including a tissue contact surface ; an evaporative structure arranged between the top plate and the bottom plate configured to receive a working fluid; and a plurality of openings arranged in a fractional pattern, each of the plurality of openings extending through the top plate, the bottom plate, and the evaporative structure, wherein the evaporative structure includes a plurality of channels for providing capillary forces and extending from each opening and along the evaporative structure and wherein the evaporative structure is configured to promote evaporation of the working fluid to cool the tissue contact surface surrounding the plurality of the openings, wherein the plurality of openings are suitable to enable fractional heat treatment to be performed on the tissue region via the openings. a top plate ; a bottom plate including a tissue contact surface ; an evaporative structure arranged between the top plate and the bottom plate configured to receive a working fluid; and a plurality of openings arranged in a fractional pattern, each of the plurality of openings extending through the top plate, the bottom plate, and the evaporative structure, wherein the evaporative structure includes a plurality of channels for providing capillary forces and extending from each opening and along the evaporative structure and wherein the evaporative structure is configured to promote evaporation of the working fluid to cool the tissue contact surface surrounding the plurality of the openings, wherein the plurality of openings are suitable to enable fractional heat treatment to be performed on the tissue region via the openings.
A method comprising: receiving two or more input audio data portions of a common time window index value, the two or more input audio data portions being respectively generated based on responses of two or more microphones to sounds occurring at a location; generating two or more pluralities of subband portions from the two or more input audio data portions, each plurality of subband portions in the two or more pluralities of subband portions corresponding to a respective input audio data portion of the two or more input audio data portions; determining (a) a peak power and (b) a noise floor for each subband portion in each plurality of subband portions in the two or more pluralities of subband portions, thereby determining a plurality of peak powers and a plurality of noise floors for the plurality of subband portions; computing, based at least in part on a plurality of peak powers and a plurality of noise floors for each plurality of subband portions in the two or more pluralities of subband portions, a plurality of weight values for the plurality of subband portions, thereby computing two or more pluralities of weight values for the two or more pluralities of subband portions; generating, based on the two or more pluralities of subband portions and two or more pluralities of weight values for the two or more pluralities of subband portions, an integrated audio data portion of the common time window index; wherein the peak power is determined from a smoothened banded power of a corresponding subband portion; and wherein the method is performed by one or more computing devices. receiving two or more input audio data portions of a common time window index value, the two or more input audio data portions being respectively generated based on responses of two or more microphones to sounds occurring at a location; generating two or more pluralities of subband portions from the two or more input audio data portions, each plurality of subband portions in the two or more pluralities of subband portions corresponding to a respective input audio data portion of the two or more input audio data portions; determining (a) a peak power and (b) a noise floor for each subband portion in each plurality of subband portions in the two or more pluralities of subband portions, thereby determining a plurality of peak powers and a plurality of noise floors for the plurality of subband portions; computing, based at least in part on a plurality of peak powers and a plurality of noise floors for each plurality of subband portions in the two or more pluralities of subband portions, a plurality of weight values for the plurality of subband portions, thereby computing two or more pluralities of weight values for the two or more pluralities of subband portions; generating, based on the two or more pluralities of subband portions and two or more pluralities of weight values for the two or more pluralities of subband portions, an integrated audio data portion of the common time window index; wherein the peak power is determined from a smoothened banded power of a corresponding subband portion; and wherein the method is performed by one or more computing devices.
A procatalyst for polymerization of olefins, which comprises the compound represented by Formula A, preferably the Fischer projection of formula A, as an internal electron donor, wherein: R 94 , R 95 , R 96 , R 97 , R 98 , and R 99 are each independently selected from hydrogen or a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having 1 to 20 carbon atoms; each R 93 group is independently aryl having 6 to 12 carbon atoms, more preferably phenyl. wherein: R 94 , R 95 , R 96 , R 97 , R 98 , and R 99 are each independently selected from hydrogen or a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having 1 to 20 carbon atoms; each R 93 group is independently aryl having 6 to 12 carbon atoms, more preferably phenyl.
A system for assessing a driver's anticipation when driving a vehicle in a traffic queue, comprising - a first status unit adapted to determining a set of first vehicle parameters related to at least the speed of another vehicle, and to generating on the basis thereof a first status signal (Sn), - a second status unit adapted to determining a set of second vehicle parameters related to at least the speed of the host vehicle, and to generating on the basis thereof a second status signal (S 21 ); wherein the system comprises - an assessment unit adapted to comparing said first and second status signals, to assessing the driver's anticipation in the traffic queue on the basis of the comparison according to predetermined rules and to generating an assessment signal (S B ) which denotes the driver's anticipation, wherein the system is adapted to determining said vehicle parameters over a predetermined period, and further to determining the strength of retardations and/or accelerations of respective vehicles over said period, whereupon the assessment unit is adapted to comparing the strength of their said retardations and/or accelerations over the period and to assessing the anticipation of the host vehicle's driver in the traffic queue on the basis of the comparison according to predetermined rules. - a first status unit adapted to determining a set of first vehicle parameters related to at least the speed of another vehicle, and to generating on the basis thereof a first status signal (Sn), - a second status unit adapted to determining a set of second vehicle parameters related to at least the speed of the host vehicle, and to generating on the basis thereof a second status signal (S 21 ); - an assessment unit adapted to comparing said first and second status signals, to assessing the driver's anticipation in the traffic queue on the basis of the comparison according to predetermined rules and to generating an assessment signal (S B ) which denotes the driver's anticipation,
A method for operating a terminal device, the terminal device being configured to establish a data communication upon receiving a request for establishing the data communication from a base station of a telecommunication network, the method being characterized by the steps of: - determining, by a transceiver activity control unit of the terminal device , a usage state of the terminal device , the usage state indicating a current usage of at least one function or application of the terminal device , and - sending a data traffic inactivity signal from the terminal device to the base station depending on the determined usage state, the data traffic inactivity signal indicating the base station to avoid sending the request for establishing the data communication to the terminal device for a predetermined amount of time, wherein the method further comprises: sending, separately from the data traffic inactivity signal and to the base station , a configuration information comprising a data traffic inactivity timer value, the data traffic inactivity timer value indicating the predetermined amount of time for avoiding sending the request for establishing the data communication to the terminal device . - determining, by a transceiver activity control unit of the terminal device , a usage state of the terminal device , the usage state indicating a current usage of at least one function or application of the terminal device , and - sending a data traffic inactivity signal from the terminal device to the base station depending on the determined usage state, the data traffic inactivity signal indicating the base station to avoid sending the request for establishing the data communication to the terminal device for a predetermined amount of time, wherein the method further comprises: sending, separately from the data traffic inactivity signal and to the base station , a configuration information comprising a data traffic inactivity timer value, the data traffic inactivity timer value indicating the predetermined amount of time for avoiding sending the request for establishing the data communication to the terminal device .
A method for processing media data sent over a broadcast channel , the method being performed by a proxy server and comprising receiving packets of data transmitted over the broadcast channel , wherein the data are transmitted by a media source and comprise a source media stream coded into segments (118.1-118.n); analyzing the packets to identify segment(s) (118.1-118.n) to which each packet belongs; determining whether all packets of coded media data belonging to a particular segment have been received at the proxy server; upon a determination that all packets belonging to the particular segment (118.1-118.n) are received, storing the packets of the segment in a cache of the proxy server; generating a mapping between a source address of the segment (118.1-118.n) and location of the particular segment (126.1-126.n) in the cache ; upon determining that one or more packets belonging to the particular segment have been lost, discarding all packets associated with the particular segment; responsive to a request from a client device for a segment (118.1-118.n), the request including an address of the requested segment (118.1-118.n), determining , based on the mapping , whether the requested segment is stored in the cache ; if the requested segment is stored in the cache , retrieving the requested segment from the cache, and transmitting the requested segment to the client device over a unicast channel; and if the requested segment is not stored in the cache , sending a signal, to the client device , indicating that the requested segment is not available. analyzing the packets to identify segment(s) (118.1-118.n) to which each packet belongs; determining whether all packets of coded media data belonging to a particular segment have been received at the proxy server; upon a determination that all packets belonging to the particular segment (118.1-118.n) are received, storing the packets of the segment in a cache of the proxy server; generating a mapping between a source address of the segment (118.1-118.n) and location of the particular segment (126.1-126.n) in the cache ; upon determining that one or more packets belonging to the particular segment have been lost, discarding all packets associated with the particular segment; responsive to a request from a client device for a segment (118.1-118.n), the request including an address of the requested segment (118.1-118.n), determining , based on the mapping , whether the requested segment is stored in the cache ; if the requested segment is stored in the cache , retrieving the requested segment from the cache, and transmitting the requested segment to the client device over a unicast channel; and if the requested segment is not stored in the cache , sending a signal, to the client device , indicating that the requested segment is not available.