mhurhangee/patent-ind-claim-en huggingface dataset:
A device for determining a time base in a mobile transceiver in a mobile communication system , wherein the mobile communication system comprises at least one base station transceiver and wherein the mobile transceiver is configured to exchange information in repeating radio frames with the base station transceiver , comprising at least one interface configured to communicate with the at least one base station transceiver of the mobile communication system ; and a control module configured to control the at least one interface , establish a synchronization with the repeating radio frames, incrementally increment a counter synchronized to the radio frames, receive a message from the at least one base station transceiver , the message comprising information on a local time reference at the base station transceiver , and adjust the counter based on the information on the local time reference and thus determine the time base, wherein the control module is configured to receive as information on the local time reference an absolute time stamp and identification information on a radio frame standing in temporal relation to the absolute time stamp, and wherein the control module is configured to adjust the counter based on the absolute time stamp and the radio frame standing in temporal relation to the absolute time stamp, wherein the control module is further configured to sample or reproduce signal values based on the time base. at least one interface configured to communicate with the at least one base station transceiver of the mobile communication system ; and a control module configured to control the at least one interface , establish a synchronization with the repeating radio frames, incrementally increment a counter synchronized to the radio frames, receive a message from the at least one base station transceiver , the message comprising information on a local time reference at the base station transceiver , and adjust the counter based on the information on the local time reference and thus determine the time base, control the at least one interface , establish a synchronization with the repeating radio frames, incrementally increment a counter synchronized to the radio frames, receive a message from the at least one base station transceiver , the message comprising information on a local time reference at the base station transceiver , and adjust the counter based on the information on the local time reference and thus determine the time base, wherein the control module is configured to receive as information on the local time reference an absolute time stamp and identification information on a radio frame standing in temporal relation to the absolute time stamp, and wherein the control module is configured to adjust the counter based on the absolute time stamp and the radio frame standing in temporal relation to the absolute time stamp, wherein the control module is further configured to sample or reproduce signal values based on the time base.
A method for producing an instant drink mixture, in particular for an instant drink containing coffee and/or a coffee drink, wherein the method comprises the following method steps: (a) providing at least one coffee extract, in particular in the form of an aqueous fluid extract; (b) subsequent concentrating of the coffee extract to obtain a thickened coffee extract (thick extract); (c) then cooling the thickened coffee extract obtained in method step (b) to temperatures below 0°C such that the cooled, thickened coffee extract has an increased viscosity and/or reduced flowability compared with the coffee extract obtained from (b); and (d) including and/or incorporating roasted coffee powder into the cooled, thickened coffee extract subsequently and/or during method step (c), in particular subsequently, by means of mixing and/or stirring the roasted coffee to obtain a homogeneous and/or uniform distribution of the roasted coffee in the cooled coffee extract or in the cooled, thickened coffee extract, wherein in method step (a) and/or (b) the coffee extract is adjusted to a solids content in the range of 20 to 75 wt%, relative to the coffee extract, and wherein in method step (c) the cooled coffee extract is adjusted to a dynamic viscosity in the range of 200 to 10,000 mPa·s in relation to a temperature in the range of -10°C to 10°C. (a) providing at least one coffee extract, in particular in the form of an aqueous fluid extract; (b) subsequent concentrating of the coffee extract to obtain a thickened coffee extract (thick extract); (c) then cooling the thickened coffee extract obtained in method step (b) to temperatures below 0°C such that the cooled, thickened coffee extract has an increased viscosity and/or reduced flowability compared with the coffee extract obtained from (b); and (d) including and/or incorporating roasted coffee powder into the cooled, thickened coffee extract subsequently and/or during method step (c), in particular subsequently, by means of mixing and/or stirring the roasted coffee to obtain a homogeneous and/or uniform distribution of the roasted coffee in the cooled coffee extract or in the cooled, thickened coffee extract,
Valve comprising: - a valve body having an upstream conduit for the inflow of a fluid and a downstream conduit for the outflow of a fluid, said conduits being substantially aligned along a longitudinal axis (X-X), - a rotative ball for controlling the fluid passage and having a cavity with axis perpendicular to its rotating axis (Y-Y), - a first upstream seat operating in SPE configuration and in conjunction with said upstream conduit and said rotative ball , - a first downstream seat operating in conjunction with said downstream conduit and said rotative ball , - a second downstream seat axially arranged between said first downstream seat and said downstream conduit , and - an intermediate element axially arranged between said first downstream seat and said second downstream seat and axially moveable between said first downstream seat and said second downstream seat , characterized in that said first downstream seat , said intermediate element and said second downstream seat are in the DPE configuration, wherein between said first downstream seat and said intermediate element is arranged just one seal lip , between said intermediate element and said second downstream seat is arranged just one seal lip and wherein between said second downstream seat and said downstream conduit is arranged just one seal lip . - a valve body having an upstream conduit for the inflow of a fluid and a downstream conduit for the outflow of a fluid, said conduits being substantially aligned along a longitudinal axis (X-X), - a rotative ball for controlling the fluid passage and having a cavity with axis perpendicular to its rotating axis (Y-Y), - a first upstream seat operating in SPE configuration and in conjunction with said upstream conduit and said rotative ball , - a first downstream seat operating in conjunction with said downstream conduit and said rotative ball , - a second downstream seat axially arranged between said first downstream seat and said downstream conduit , and - an intermediate element axially arranged between said first downstream seat and said second downstream seat and axially moveable between said first downstream seat and said second downstream seat , characterized in that
A computer-implemented method for configuring a plurality of field devices, the method comprising: receiving user selection of device parameters to define a configuration template that defines configuration information for the plurality of field devices, which is stored in a database of an asset management system; identifying the set of field devices for application of the defined configuration template, by identifying a unique field device identifier corresponding to each of the set of field devices; mapping the configuration template to the set of field devices; automatically applying the defined configuration template to the set of field devices, the automatic application including initiating a bulk transfer of the configuration template in the asset management system, and commissioning the set of field devices in a bulk commissioning process wherein each individual field device is provided with the configuration information stored in the configuration template that is mapped to that field device; and wherein the automatic application of the configuration template is accomplished with a single command from the user. receiving user selection of device parameters to define a configuration template that defines configuration information for the plurality of field devices, which is stored in a database of an asset management system; identifying the set of field devices for application of the defined configuration template, by identifying a unique field device identifier corresponding to each of the set of field devices; mapping the configuration template to the set of field devices; automatically applying the defined configuration template to the set of field devices, the automatic application including initiating a bulk transfer of the configuration template in the asset management system, and commissioning the set of field devices in a bulk commissioning process wherein each individual field device is provided with the configuration information stored in the configuration template that is mapped to that field device; and wherein the automatic application of the configuration template is accomplished with a single command from the user.
A horticultural apparatus comprising: a rotating drum having at least one ring ; a drive system to rotatably drive said ring ; a light source within said drum; a plurality of medium retaining members extending transversely of said ring ; a feed arrangement comprising a housing having a manifold line and a feed line ; said feed arrangement including a feed for water , a fertilizer feed , and a manifold , wherein said feed for water and said fertilizer feed are meeting at the manifold , and wherein said feed for water and said fertilizer feed each having a filter , a valve and a flow meter , each of said medium retaining members comprises a plurality of cells , each of said cells adapted to receive a plant; characterized in that said feed arrangement comprising a plurality of injectors , each injector being associated with an individual cell of said plurality of cells; each of said cells having a moisture sensor associated therewith; said feed arrangement including a sensor trigger adapted to contact each moisture sensor to receive information as to the status of each of the cells , said feed arrangement including a computer card adapted to control said feed for water and said fertilizer feed . a rotating drum having at least one ring ; a drive system to rotatably drive said ring ; a light source within said drum; a plurality of medium retaining members extending transversely of said ring ; a feed arrangement comprising a housing having a manifold line and a feed line ; said feed arrangement including a feed for water , a fertilizer feed , and a manifold , wherein said feed for water and said fertilizer feed are meeting at the manifold , and wherein said feed for water and said fertilizer feed each having a filter , a valve and a flow meter , each of said medium retaining members comprises a plurality of cells , each of said cells adapted to receive a plant; characterized in that said feed arrangement comprising a plurality of injectors , each injector being associated with an individual cell of said plurality of cells; each of said cells having a moisture sensor associated therewith; said feed arrangement including a sensor trigger adapted to contact each moisture sensor to receive information as to the status of each of the cells , said feed arrangement including a computer card adapted to control said feed for water and said fertilizer feed .
A sintered polycrystalline ceramic body comprising a chalcogenide material in a polymorphic form having a cubic structure and having an extinction coefficient of ≤ 2.75 cm -1 at a wavelength of 1100 nm and a Vickers hardness of ≥ 1.765 GPa (≥ 180 kgf/mm 2 ).
A method for determining the relative orientation of a gas leak relative to a sniffer leak detector which comprises a handpiece with a sniffer probe having a test gas inlet , a reference gas inlet disposed at the handpiece remote from the test gas inlet , a gas analyzer , and a switching valve , wherein the switching valve is configured to alternately connect the test gas inlet with the gas analyzer and the reference gas inlet with the gas analyzer in a gas conducting manner, so that either the gas sucked in through the test gas inlet or the gas sucked in through the reference gas inlet is analyzed by the gas analyzer , with the following steps: a) supplying gas sucked in through the test gas inlet to the gas analyzer , b) determining the test gas concentration in the gas supplied to the gas analyzer , c) switching the switching valve , d) supplying gas sucked in through the reference gas inlet to the gas analyzer , e) analyzing the test gas concentration in the gas supplied to the gas analyzer , f) forming a differential signal from the difference of the test gas concentration determined according to step b) and the test gas concentration determined according to step e), characterized in that g) changing the spatial orientation of the handpiece, h) repeating steps a) - f), i) determining whether the differential signal has changed after step h) compared to the differential signal according to f), j) deducing, by the change in the differential signal, the relative direction of a gas leak to be localized relative to the orientation of the handpiece. a handpiece with a sniffer probe having a test gas inlet , a reference gas inlet disposed at the handpiece remote from the test gas inlet , a gas analyzer , and a switching valve , a) supplying gas sucked in through the test gas inlet to the gas analyzer , b) determining the test gas concentration in the gas supplied to the gas analyzer , c) switching the switching valve , d) supplying gas sucked in through the reference gas inlet to the gas analyzer , e) analyzing the test gas concentration in the gas supplied to the gas analyzer , f) forming a differential signal from the difference of the test gas concentration determined according to step b) and the test gas concentration determined according to step e), characterized in that g) changing the spatial orientation of the handpiece, h) repeating steps a) - f), i) determining whether the differential signal has changed after step h) compared to the differential signal according to f), j) deducing, by the change in the differential signal, the relative direction of a gas leak to be localized relative to the orientation of the handpiece.
Mechatronic actuator consisting of a housing comprising a longitudinal axis incorporating, in a shell , a three-phase electric motor formed by a stator , the stator being excited by electric coils and by a magnetized rotor , driving an output shaft via a gear train, the axis of said rotor , the axis of the output shaft and the axes of intermediate gear wheels (18 to 20) being parallel, said stator having the shape of a radial triangular star of which the three coiled poles (41 to 43) form the three star branches, the axes of symmetry of two consecutive coiled poles forming a mechanical angle of 120°, characterized in that the housing also incorporates an electronic circuit comprising a capacitor for filtering the electrical signal and in that said filtering capacitor is constituted by a tubular component mounted perpendicularly to the plane of the printed circuit , said capacitor being positioned in the space delimited on the one hand by two consecutive stator poles and on the other hand by an angle of the housing located opposite said two consecutive stator poles, the stator is positioned in the housing so that the axis of symmetry of one of said three coiled poles (41 to 43) forms an angle of between 70° and 110° with the longitudinal axis (L) of the housing, said capacitor being positioned in the space delimited on the one hand by the pole of which the axis of symmetry forms the angle of between 70° and 110° with the longitudinal axis (L) of the housing, and the consecutive stator pole , and on the other hand by the angle of the housing located opposite said two consecutive stator poles.
A system for detecting cavitation signals from a target region of a patient during a focused ultrasound procedure, the system comprising: an ultrasound transducer ; an imaging device for acquiring physiological characteristics of a plurality of anatomical regions through which the cavitation signals from the target region travel; a controller ; and at least one cavitation detection device ; characterized in that : the controller is configured to: select at least one of the anatomical regions based at least in part on the physiological characteristics thereof; and map the selected anatomical region to a corresponding skin region; and the at least one cavitation detection device is attachable to the corresponding skin region. an ultrasound transducer ; an imaging device for acquiring physiological characteristics of a plurality of anatomical regions through which the cavitation signals from the target region travel; a controller ; and at least one cavitation detection device ; characterized in that : the controller is configured to: select at least one of the anatomical regions based at least in part on the physiological characteristics thereof; and map the selected anatomical region to a corresponding skin region; and the at least one cavitation detection device is attachable to the corresponding skin region. the controller is configured to: select at least one of the anatomical regions based at least in part on the physiological characteristics thereof; and map the selected anatomical region to a corresponding skin region; and select at least one of the anatomical regions based at least in part on the physiological characteristics thereof; and map the selected anatomical region to a corresponding skin region; and the at least one cavitation detection device is attachable to the corresponding skin region.
A recombinant microalga, wherein the recombinant microalga is modified to alter the expression level of genes encoding a polyunsaturated fatty acid synthase, including the altering of the expression of PFA1 which encodes polyunsaturated fatty acid synthase subunit 1 (PFA1), and/or PFA3 which encodes polyunsaturated fatty acid synthase subunit 3 (PFA3); wherein the recombinant microalga is modified to contain multiple copies of a gene encoding PFA1 and/or a gene encoding PFA3 and thus increase expression level of PFA1 and/or PFA3, when compared to the host microalga, and wherein the recombinant microalga produces lipids with an increased level of eicosapentaenoic acid (EPA), when compared to the host microalga.
A method for manufacturing a module having an electronic chip comprising: - metallisations accessible from a first side of the metallisations and an integrated circuit chip arranged on the second side of the metallisations, opposite to the first side, - electrical interconnection elements , separate from the metallisations, directly connecting the chip and arranged on the second side of the metallisations, characterised in that the electrical interconnection elements are produced on a single-surface module. - metallisations accessible from a first side of the metallisations and an integrated circuit chip arranged on the second side of the metallisations, opposite to the first side, - electrical interconnection elements , separate from the metallisations, directly connecting the chip and arranged on the second side of the metallisations,
A user equipment, UE, comprising: a receiver configured to receive multiple Channel State Information Reference Signals, CSI-RSs, transmitted from a base station, BS, using first beams; wherein each of the multiple CSI-RSs is associated with each of the first beams, a processor configured to perform beam selection in which at least a second beam is selected from the first beams; and a transmitter configured to transmit, to the BS, a first indicator that indicates the second beam, wherein when Reference Signal Received Power, RSRP, of each of the CSI-RSs is not greater than a predetermined value the processor determines that there is no beam to be selected from the first beams, and characterised in that the receiver is further configured to receive, from the BS using Radio Resource Control, RRC, signaling, information indicating whether the UE should transmit a second indicator indicating that there is no beam to be selected from the first beams, and when the BS requires a second indicator, indicating that there is no beam to be selected from the first beams to be transmitted, the transmitter is configured to transmit the second indicator as one-bit information to the BS. a receiver configured to receive multiple Channel State Information Reference Signals, CSI-RSs, transmitted from a base station, BS, using first beams; wherein each of the multiple CSI-RSs is associated with each of the first beams, a processor configured to perform beam selection in which at least a second beam is selected from the first beams; and a transmitter configured to transmit, to the BS, a first indicator that indicates the second beam, wherein when Reference Signal Received Power, RSRP, of each of the CSI-RSs is not greater than a predetermined value the processor determines that there is no beam to be selected from the first beams, and characterised in that the receiver is further configured to receive, from the BS using Radio Resource Control, RRC, signaling, information indicating whether the UE should transmit a second indicator indicating that there is no beam to be selected from the first beams, and when the BS requires a second indicator, indicating that there is no beam to be selected from the first beams to be transmitted, the transmitter is configured to transmit the second indicator as one-bit information to the BS.
Vehicle body for a rail vehicle comprising a control panel , in particular an auxiliary control panel, for controlling the rail vehicle , and a control panel receptacle , wherein the control panel comprises an arrangement of control elements , wherein the control panel is repositionable from a rest position into an operating position, the control panel being arranged in the control panel receptacle in a rest position and being arranged at least partly outside the control panel receptacle in the operating position in such a way that the control elements are accessible for operation, characterized in that the control panel receptacle is arranged in a side wall of an end wall paneling of the carriage body of the rail vehicle , and the control panel is arranged outside a clearance of a passageway for people in the rest position and in particular is pivotable from the operating position out of the clearance into the rest position. wherein the control panel is repositionable from a rest position into an operating position, the control panel being arranged in the control panel receptacle in a rest position and being arranged at least partly outside the control panel receptacle in the operating position in such a way that the control elements are accessible for operation, characterized in that