mhurhangee/patent-ind-claim-en huggingface dataset:
A method for connection of a user equipment device, UE, to a first cell of a wireless communication system, the first cell operating according to a first radio access technology, RAT, wherein the wireless communication system further comprises a second cell operating according to a second RAT, the method comprising: establishing, by a first base station serving the first cell , a first wireless link between the first cell and the UE according to the first RAT; receiving, by the first base station from the UE , an indication that the UE supports uplink, UL, sharing for one or more system bandwidths in a dual connectivity configuration with the first cell and the second cell ; receiving, by the first base station from the UE , a capability indicating binary information that indicates one of no retuning time needed and retuning time needed; coordinating, by the first base station , UL resources over an interface with a second base station serving the second cell using the second RAT; and transmitting, by the first base station to the UE , an allocation of first UL resources associated with the first cell using the first RAT, wherein the allocation corresponds to using time division multiplexing, TDM, for UL data transmissions for the first cell according to the first RAT and the second cell according to the second RAT. establishing, by a first base station serving the first cell , a first wireless link between the first cell and the UE according to the first RAT; receiving, by the first base station from the UE , an indication that the UE supports uplink, UL, sharing for one or more system bandwidths in a dual connectivity configuration with the first cell and the second cell ; receiving, by the first base station from the UE , a capability indicating binary information that indicates one of no retuning time needed and retuning time needed; coordinating, by the first base station , UL resources over an interface with a second base station serving the second cell using the second RAT; and transmitting, by the first base station to the UE , an allocation of first UL resources associated with the first cell using the first RAT, wherein the allocation corresponds to using time division multiplexing, TDM, for UL data transmissions for the first cell according to the first RAT and the second cell according to the second RAT.
A diesel particulate filter (DPF) diagnostic method, comprising: receiving, by a server, DPF data comprising a pressure drop across the DPF; determining, by the server, a DPF soot load by processing the pressure drop; and transmitting, by the server, the determined DPF soot load to a client terminal; wherein further DPF data comprising a gas mass flow is received by the server, the pressure drop being obtained at the gas mass flow, the DPF soot load being determined by processing both the pressure drop and the gas mass flow, wherein the gas mass flow is a gas mass flow at the inlet of the DPF or an engine intake gas mass flow. receiving, by a server, DPF data comprising a pressure drop across the DPF; determining, by the server, a DPF soot load by processing the pressure drop; and transmitting, by the server, the determined DPF soot load to a client terminal; wherein further DPF data comprising a gas mass flow is received by the server, the pressure drop being obtained at the gas mass flow, the DPF soot load being determined by processing both the pressure drop and the gas mass flow, wherein the gas mass flow is a gas mass flow at the inlet of the DPF or an engine intake gas mass flow.
Apparatus to electrically kill a plant or at least attenuate plant growth, the apparatus comprising: an electrical energy processing unit , the electrical energy processing unit comprising: a converter configured to receive unprocessed electrical energy from an electrical energy source, to convert the unprocessed electrical energy to processed electrical energy and to transmit said processed electrical energy between an applicator electrode of an applicator unit and an earth electrode of an earth unit ; at least one applicator unit to apply the processed electrical energy to a plant, the applicator unit comprising an applicator electrode , the applicator electrode comprising an electrically conductive material, which is connected to the converter of the electrical energy processing unit to receive therefrom the processed electrical energy, and; an earth unit , the earth unit comprising an earth electrode of electrically conductive material, which is connected to the converter to receive the processed electrical energy transmitted from the applicator unit through a load comprising a plant, characterised in that the applicator electrode is configured for direct transmission of the processed electrical energy to a plant, wherein the processed electrical energy comprises a waveform with a frequency of at least 18 kHz with a peak voltage of at least 1 kV and with an electrical current of at least 10 mA rms. a converter configured to receive unprocessed electrical energy from an electrical energy source, to convert the unprocessed electrical energy to processed electrical energy and to transmit said processed electrical energy between an applicator electrode of an applicator unit and an earth electrode of an earth unit ; at least one applicator unit to apply the processed electrical energy to a plant, the applicator unit comprising an applicator electrode , the applicator electrode comprising an electrically conductive material, which is connected to the converter of the electrical energy processing unit to receive therefrom the processed electrical energy, and; an earth unit , the earth unit comprising an earth electrode of electrically conductive material, which is connected to the converter to receive the processed electrical energy transmitted from the applicator unit through a load comprising a plant, characterised in that the applicator electrode is configured for direct transmission of the processed electrical energy to a plant, wherein the processed electrical energy comprises a waveform with a frequency of at least 18 kHz with a peak voltage of at least 1 kV and with an electrical current of at least 10 mA rms.
A linear sugar alcohol stabilized crosslinked (calcium 2-fluoroacrylate)-divinylbenzene-1,7-octadiene terpolymer with an amount of calcium in the polymer in the range of from about 8 wt.% to about 25 wt.%, based on the total weight of the polymer.
A security alarm system comprising: a plurality of RFID tags ; a sensor including an RFID reader mounted on the window or door , a distance between the sensor and the RFID tags increasing as the window or door is opened; and a control panel , the sensor signalling the control panel to trigger an alarm when the distance between the sensor and the RFID tags increases beyond a threshold distance (D1) and the sensor cannot read the RFID tags , characterized in that the system further includes a substrate strip with said plurality of RFID tags, namely a first RFID tag , a second RFID tag , a third RFID tag and a fourth RFID tag , the substrate strip being mounted on the window or door , wherein the sensor is mounted on a stile of the window and the substrate strip is mounted on a side jamb of the window near a sill thereof, or the substrate strip is mounted on a stile of the window and the sensor is mounted on a side jamb of the window near a sill thereof, or the sensor is mounted on a stile of the door and the substrate strip is mounted on a sill of the door , or the sensor is mounted on a sill of the door and the substrate strip is mounted on a bottom rail of the door . a plurality of RFID tags ; a sensor including an RFID reader mounted on the window or door , a distance between the sensor and the RFID tags increasing as the window or door is opened; and a control panel , the sensor signalling the control panel to trigger an alarm when the distance between the sensor and the RFID tags increases beyond a threshold distance (D1) and the sensor cannot read the RFID tags , characterized in that the system further includes a substrate strip with said plurality of RFID tags, namely a first RFID tag , a second RFID tag , a third RFID tag and a fourth RFID tag , the substrate strip being mounted on the window or door , wherein the sensor is mounted on a stile of the window and the substrate strip is mounted on a side jamb of the window near a sill thereof, or the substrate strip is mounted on a stile of the window and the sensor is mounted on a side jamb of the window near a sill thereof, or the sensor is mounted on a stile of the door and the substrate strip is mounted on a sill of the door , or the sensor is mounted on a sill of the door and the substrate strip is mounted on a bottom rail of the door .
A vacuum control system for a continuous loop media support belt , the vacuum control system comprising: multiple rows of multiple enclosures, each enclosure defining a vacuum chamber to underlay an upper run of the belt; a linear slot along a top of each enclosure to align with holes in the belt; a tubular duct ; circumferential slots in the duct arranged to include at least one group of multiple slots and at least one single slot; and multiple conduits each extending between the duct and one of the enclosures; and where the duct is: rotatable to connect some or all of the aligned conduits to a circumferential slot according to the rotational position of the duct, characterised in that the duct is translatable to align some or all of the conduits to a circumferential slot according to the translational position of the duct. multiple rows of multiple enclosures, each enclosure defining a vacuum chamber to underlay an upper run of the belt; a linear slot along a top of each enclosure to align with holes in the belt; a tubular duct ; circumferential slots in the duct arranged to include at least one group of multiple slots and at least one single slot; and multiple conduits each extending between the duct and one of the enclosures; and where the duct is: rotatable to connect some or all of the aligned conduits to a circumferential slot according to the rotational position of the duct, characterised in that the duct is translatable to align some or all of the conduits to a circumferential slot according to the translational position of the duct. rotatable to connect some or all of the aligned conduits to a circumferential slot according to the rotational position of the duct, characterised in that the duct is translatable to align some or all of the conduits to a circumferential slot according to the translational position of the duct.
Regulator device for the operation of a mechanical horological movement, this regulator device comprising: - a chassis ; - a resonator fixed to the chassis and comprising a first annular and periodic magnetic structure having a first whole number N1 of angular periods and defining a first central axis , this first magnetic structure forming the inertial part of the resonator; - a second annular and periodic magnetic structure having a second whole number N2 of angular periods and defining a second central axis , the second number N2 being different from the first number N1, this second magnetic structure being arranged so as to be able to rotate relative to said chassis about said second central axis which has a determined position relative to this chassis; wherein at least one magnetic structure from the first and second magnetic structures has, in each of the angular periods thereof, a magnetic material; said resonator being arranged such that it has a resonance mode in which said first magnetic structure undergoes, relative to said chassis, a curvilinear translation about said second central axis with a resonance frequency F1; said first and second magnetic structures being arranged so as to have a magnetic interaction therebetween such that a rotation at a frequency F2 of the second magnetic structure relative to said chassis and about said second central axis, by application of a motor torque in a usable range of the motor torque, enables said resonance mode to be excited and such that the frequency F2 of said relative rotation of the second magnetic structure and said resonance frequency F1 have, therebetween, in said usable range of the motor torque, a determined ratio R Fr , i.e. R Fr = F1/F2, which is equal to said second whole number N2 divided by the difference ΔN between this second whole number N2 and the first whole number N1, i.e. ΔN = N2-N1 and R Fr = N2 / ΔN. - a chassis ; - a resonator fixed to the chassis and comprising a first annular and periodic magnetic structure having a first whole number N1 of angular periods and defining a first central axis , this first magnetic structure forming the inertial part of the resonator; - a second annular and periodic magnetic structure having a second whole number N2 of angular periods and defining a second central axis , the second number N2 being different from the first number N1, this second magnetic structure being arranged so as to be able to rotate relative to said chassis about said second central axis which has a determined position relative to this chassis;
A valve for a dispenser, the valve comprising: - a valve body comprising: - an outer surface and an inner passageway extending about a longitudinal axis, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and - a first valve body surface and a second valve body surface opposite the first valve body surface, wherein the first valve body surface comprises an upper portion extending from the outer surface toward the longitudinal axis and a lower portion extending from the inner passageway toward the outer surface; - a valve stem extending through the inner passageway, wherein the valve stem comprises an outer stem surface and an inner stem surface opposite the outer stem surface, wherein the inner stem surface defines a channel ; and - a resilient member disposed on at least a portion of the first valve body surface, wherein the resilient member is made from a resilient polymeric material and has a non-linear compression profile and the resilient member is a multi-piece member. - a valve body comprising: - an outer surface and an inner passageway extending about a longitudinal axis, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and - a first valve body surface and a second valve body surface opposite the first valve body surface, wherein the first valve body surface comprises an upper portion extending from the outer surface toward the longitudinal axis and a lower portion extending from the inner passageway toward the outer surface; - an outer surface and an inner passageway extending about a longitudinal axis, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and - a first valve body surface and a second valve body surface opposite the first valve body surface, wherein the first valve body surface comprises an upper portion extending from the outer surface toward the longitudinal axis and a lower portion extending from the inner passageway toward the outer surface; - a valve stem extending through the inner passageway, wherein the valve stem comprises an outer stem surface and an inner stem surface opposite the outer stem surface, wherein the inner stem surface defines a channel ; and - a resilient member disposed on at least a portion of the first valve body surface, wherein the resilient member is made from a resilient polymeric material and has a non-linear compression profile and the resilient member is a multi-piece member.
A system, comprising: a polyphase generator ; a polyphase bridge rectifier electrically coupled to an output of the polyphase generator, wherein the polyphase bridge rectifier is a full-wave bridge rectifier configured to output a positive rectified ripple signal with respect to a ground voltage and a negative rectified ripple signal with respect to the ground voltage, wherein the positive rectified ripple signal and the negative rectified ripple signal are summed to produce a total ripple signal with respect to the ground such that in use the total ripple signal peaks and troughs above and below the ground voltage, respectively, in a stable manner without skipping a wave period and with equal positive and negative amplitudes; and a generator regulation feedback loop configured to regulate the output of the polyphase generator with a field control signal, wherein the field control signal is based on summing the total ripple signal and a reference voltage. a polyphase generator ; a polyphase bridge rectifier electrically coupled to an output of the polyphase generator, wherein the polyphase bridge rectifier is a full-wave bridge rectifier configured to output a positive rectified ripple signal with respect to a ground voltage and a negative rectified ripple signal with respect to the ground voltage, wherein the positive rectified ripple signal and the negative rectified ripple signal are summed to produce a total ripple signal with respect to the ground such that in use the total ripple signal peaks and troughs above and below the ground voltage, respectively, in a stable manner without skipping a wave period and with equal positive and negative amplitudes; and a generator regulation feedback loop configured to regulate the output of the polyphase generator with a field control signal, wherein the field control signal is based on summing the total ripple signal and a reference voltage.
Motor vehicle latch comprising a locking mechanism which substantially consists of a latch and a pawl, further comprising a drive and a securing element , the drive acting on the securing element via a toothed rack element , and the toothed rack element being equipped with a blocking element , characterized in that the blocking element is designed as a tilting lever that defines at least two end positions of the toothed rack element .
A device for detecting one or more characteristics of biological cells comprising: - a chamber insertion tray into which at least one sample examination chamber and one or more cleaning chambers are securely inserted; - one or more patch clamp electrodes , wherein the patch clamp electrodes are pipettes, each one having attached to its respective rear end a pressure/vacuum port and an electrode holder with which the respective patch clamp electrode is held; wherein the device comprises one or more ultrasonic generation devices configured to provide ultrasonic vibrations to each of the one or more patch clamp electrodes , characterized in that the one or more ultrasonic generation devices are - attached to one or more, preferably all of the electrode holders , or - attached to one or more, preferably all, of the cleaning chambers , or - attached to one or more, preferably all of the electrode holders , and to one or more, preferably all, of the cleaning chambers . - a chamber insertion tray into which at least one sample examination chamber and one or more cleaning chambers are securely inserted; - one or more patch clamp electrodes , wherein the patch clamp electrodes are pipettes, each one having attached to its respective rear end a pressure/vacuum port and an electrode holder with which the respective patch clamp electrode is held; wherein the device comprises one or more ultrasonic generation devices configured to provide ultrasonic vibrations to each of the one or more patch clamp electrodes , characterized in that the one or more ultrasonic generation devices are - attached to one or more, preferably all of the electrode holders , or - attached to one or more, preferably all, of the cleaning chambers , or - attached to one or more, preferably all of the electrode holders , and to one or more, preferably all, of the cleaning chambers . - attached to one or more, preferably all of the electrode holders , or - attached to one or more, preferably all, of the cleaning chambers , or - attached to one or more, preferably all of the electrode holders , and to one or more, preferably all, of the cleaning chambers .
Audio encoder for encoding an audio signal having a lower frequency band and an upper frequency band, comprising: a detector for detecting a peak spectral region in the upper frequency band of an MDCT spectrum of the audio signal; a shaper for shaping the lower frequency band of the MDCT spectrum using shaping information for the lower frequency band to obtain a shaped lower frequency band and for shaping the upper frequency band of the MDCT spectrum using at least a portion of the shaping information for the lower frequency band, wherein the shaper is configured to additionally attenuate spectral values in the detected peak spectral region in the upper frequency band to obtain a shaped upper frequency band of the MDCT spectrum; and a quantizer and coder stage for quantizing the shaped lower frequency band and the shaped upper frequency band and for entropy coding quantized spectral values from the shaped lower frequency band and the shaped upper frequency band. a detector for detecting a peak spectral region in the upper frequency band of an MDCT spectrum of the audio signal; a shaper for shaping the lower frequency band of the MDCT spectrum using shaping information for the lower frequency band to obtain a shaped lower frequency band and for shaping the upper frequency band of the MDCT spectrum using at least a portion of the shaping information for the lower frequency band, wherein the shaper is configured to additionally attenuate spectral values in the detected peak spectral region in the upper frequency band to obtain a shaped upper frequency band of the MDCT spectrum; and a quantizer and coder stage for quantizing the shaped lower frequency band and the shaped upper frequency band and for entropy coding quantized spectral values from the shaped lower frequency band and the shaped upper frequency band.