mhurhangee/ep-ind-claims huggingface dataset:
A method performed at an application server for group communications over multimedia broadcast-multicast services, MBMS, comprising: establishing a first multicast flow; establishing and reserving a pool of one or more second multicast flows; receiving a request to establish a first group call from a user equipment; assigning at least one second multicast flow from the pool of one or more second multicast flows to a multicast group, wherein the at least one second multicast flow contains signaling and media for at least the first group call; establishing a reserve multicast flow to replenish the pool of one or more second multicast flows; wherein the first multicast flow is configured to send information regarding activity on the at least one second multicast flow; sending an announce message for the first group call on the first multicast flow; and sending media and signaling data for the first group call on the at least one second multicast flow. establishing a first multicast flow; establishing and reserving a pool of one or more second multicast flows; receiving a request to establish a first group call from a user equipment; assigning at least one second multicast flow from the pool of one or more second multicast flows to a multicast group, wherein the at least one second multicast flow contains signaling and media for at least the first group call; establishing a reserve multicast flow to replenish the pool of one or more second multicast flows; wherein the first multicast flow is configured to send information regarding activity on the at least one second multicast flow; sending an announce message for the first group call on the first multicast flow; and sending media and signaling data for the first group call on the at least one second multicast flow.
A gas sensor (100, 300) comprising: a first tuning fork quartz oscillator (101, 303) having a first frequency output; a second tuning fork quartz oscillator (102, 304) having a second frequency output, the first tuning fork quartz oscillator (101, 303) exposed to an environment that may contain a gas to be sensed, and the second tuning fork quartz oscillator (102, 304) exposed to an environment that does not contain the gas to be sensed; and circuitry (105, 307) for determining if the gas is sensed by the first tuning fork quartz oscillator by producing a frequency signal that is a difference between the first and second frequency outputs; characterized by the gas sensor also comprising a membrane permeable to the gas to be sensed and impermeable to other gases to not be sensed. a first tuning fork quartz oscillator (101, 303) having a first frequency output; a second tuning fork quartz oscillator (102, 304) having a second frequency output, the first tuning fork quartz oscillator (101, 303) exposed to an environment that may contain a gas to be sensed, and the second tuning fork quartz oscillator (102, 304) exposed to an environment that does not contain the gas to be sensed; and circuitry (105, 307) for determining if the gas is sensed by the first tuning fork quartz oscillator by producing a frequency signal that is a difference between the first and second frequency outputs; characterized by the gas sensor also comprising a membrane permeable to the gas to be sensed and impermeable to other gases to not be sensed.
Veterinary composition comprising paromomycin sulfate intended to be used in the prevention and/or treatment of cryptosporidiosis in a calf, wherein the composition is administered to the calf at a paromomycin sulfate dose of between 120 and 180 mg/kg/day, for 5 days.
An aqueous sanitary cleaning composition comprising: - a sulfamic acid in an amount of ≤ 10 wt.-%, - isotridecanol ethoxylate in an amount of less than 3 wt.-%, - a perfume in an amount in a range of ≥ 0.2 wt.-% to ≤ 0.5 wt.-%, and - water, wherein the wt.-% of the components are based on the total weight of the sanitary cleaning composition, and wherein the perfume comprises at least the following compounds according to the general formulas I, II and III: wherein: R 1 is selected from the group consisting of hydrogen andC 1-5 alkyl, and R 2, R 3, R 4 independently is selected from the group consisting of C 1-5 alkyl; and a compound according to the general formula IV: - a sulfamic acid in an amount of ≤ 10 wt.-%, - isotridecanol ethoxylate in an amount of less than 3 wt.-%, - a perfume in an amount in a range of ≥ 0.2 wt.-% to ≤ 0.5 wt.-%, and - water, wherein the wt.-% of the components are based on the total weight of the sanitary cleaning composition, and wherein the perfume comprises at least the following compounds according to the general formulas I, II and III: wherein: R 1 is selected from the group consisting of hydrogen andC 1-5 alkyl, and R 2, R 3, R 4 independently is selected from the group consisting of C 1-5 alkyl; and a compound according to the general formula IV: R 1 is selected from the group consisting of hydrogen andC 1-5 alkyl, and R 2, R 3, R 4 independently is selected from the group consisting of C 1-5 alkyl; and a compound according to the general formula IV:
A broadband radiating element comprising: a low-band resonator mounted above an antenna reflector comprising coupling cross-slots; a mid-band radiating patch mounted above the low-band resonator, wherein the low-band resonator is positioned between the mid-band radiating patch and the antenna reflector; and a high-band radiating patch mounted above the mid-band radiating patch, the broadband radiating element further comprises: a printed circuit board, PCB, positioned below the low-band resonator, and a central feed assembly extending through an opening in the low-band resonator, the central feed assembly including 4 feed pins in a cylindrical RF shield, wherein the feed pins electromagnetically couple RF power to the radiating patches (430, 440) through the crossed slots in the low-band resonator from the PCB. a low-band resonator mounted above an antenna reflector comprising coupling cross-slots; a mid-band radiating patch mounted above the low-band resonator, wherein the low-band resonator is positioned between the mid-band radiating patch and the antenna reflector; and a high-band radiating patch mounted above the mid-band radiating patch, the broadband radiating element further comprises: a printed circuit board, PCB, positioned below the low-band resonator, and a central feed assembly extending through an opening in the low-band resonator, the central feed assembly including 4 feed pins in a cylindrical RF shield, wherein the feed pins electromagnetically couple RF power to the radiating patches (430, 440) through the crossed slots in the low-band resonator from the PCB. a printed circuit board, PCB, positioned below the low-band resonator, and a central feed assembly extending through an opening in the low-band resonator, the central feed assembly including 4 feed pins in a cylindrical RF shield, wherein the feed pins electromagnetically couple RF power to the radiating patches (430, 440) through the crossed slots in the low-band resonator from the PCB.
An information processing apparatus comprising: a notification controlling unit configured to control a notification for prompting a driver to return to driving; and a calculation unit configured to calculate a return delay time period for determining a notification timing on a basis of a state of the driver, wherein the calculation unit is configured to calculate the return delay time period in response to an observable evaluation value based on a type of secondary task being executed by the driver and biological activity observable information of the driver, wherein the calculation unit is configured to calculate the return delay time period utilizing a plurality of pieces of relationship information between the observable evaluation value and the return delay time period, which are accumulated for each type of secondary task having been executed by the driver or are learned from history information, wherein the calculation unit is configured to calculate the return delay time period so as to succeed in driving return from the secondary task being executed by the driver at a success rate of a predetermined ratio utilizing the plurality of pieces of relationship information between the observable evaluation value and the return delay time period, and wherein the calculation unit is configured to acquire a success rate of the predetermined ratio as information retained by an infrastructure side by performing road-vehicle communication with an outside of a vehicle. a notification controlling unit configured to control a notification for prompting a driver to return to driving; and a calculation unit configured to calculate a return delay time period for determining a notification timing on a basis of a state of the driver, wherein the calculation unit is configured to calculate the return delay time period in response to an observable evaluation value based on a type of secondary task being executed by the driver and biological activity observable information of the driver, wherein the calculation unit is configured to calculate the return delay time period utilizing a plurality of pieces of relationship information between the observable evaluation value and the return delay time period, which are accumulated for each type of secondary task having been executed by the driver or are learned from history information, wherein the calculation unit is configured to calculate the return delay time period so as to succeed in driving return from the secondary task being executed by the driver at a success rate of a predetermined ratio utilizing the plurality of pieces of relationship information between the observable evaluation value and the return delay time period, and wherein the calculation unit is configured to acquire a success rate of the predetermined ratio as information retained by an infrastructure side by performing road-vehicle communication with an outside of a vehicle.
A method of sensing facial gestures of a user, comprising: obtaining a facial image of the user; determining a basic database for sensing facial gestures of the user including recognizing a face of the user based on the facial image, determine whether the user is registered and use a predetermined personalized database as the basic database when the user is registered, and use a general database as the basic database when the user is not registered; wherein the personalized database is constructed by acquiring, from a camera, a plurality of images from various viewpoints from the user wherein a head pose of the user varies according to instructions while the user maintains an expressionless face, and wherein user identification information and a mesh model parameter coinciding with characteristics of the user, for mesh fitting, is stored; estimating a head pose of said user based on a face descriptor extracted from a face region; extracting from the basic database, on a computer, a mesh model corresponding to the estimated head pose, and sensing, using said computer, the facial gestures using the extracted mesh model; by fitting the extracted mesh model onto the face of said user; and by performing mesh tracking with respect to the fitted mesh model; reflecting the sensed facial gestures to a virtual object. obtaining a facial image of the user; determining a basic database for sensing facial gestures of the user including recognizing a face of the user based on the facial image, determine whether the user is registered and use a predetermined personalized database as the basic database when the user is registered, and use a general database as the basic database when the user is not registered; wherein the personalized database is constructed by acquiring, from a camera, a plurality of images from various viewpoints from the user wherein a head pose of the user varies according to instructions while the user maintains an expressionless face, and wherein user identification information and a mesh model parameter coinciding with characteristics of the user, for mesh fitting, is stored; estimating a head pose of said user based on a face descriptor extracted from a face region; extracting from the basic database, on a computer, a mesh model corresponding to the estimated head pose, and sensing, using said computer, the facial gestures using the extracted mesh model; by fitting the extracted mesh model onto the face of said user; and by performing mesh tracking with respect to the fitted mesh model; reflecting the sensed facial gestures to a virtual object.
An apparatus for evaluating gas barrier properties, comprising: a polymer-containing support for supporting a sample; a chamber on a permeation side; and a detection unit (31,32,33), in which the support is connected with an opening of the chamber on the permeation side so as to close the opening, and in which the glass transition point of the polymer contained in the support is 100°C or higher, characterized in that the support and the permeation-side chamber are united even when samples are exchanged. a polymer-containing support for supporting a sample; a chamber on a permeation side; and a detection unit (31,32,33), in which the support is connected with an opening of the chamber on the permeation side so as to close the opening, and in which the glass transition point of the polymer contained in the support is 100°C or higher, characterized in that the support and the permeation-side chamber are united even when samples are exchanged.
An assembly of a voice assistant, one or more elements controllable by the voice assistant, and an instruction forwarding system, where a sound output part is positioned in a vicinity of the voice assistant, the voice assistant being configured to control one of the controllable elements based on the sound from the sound output part, the instruction forwarding system comprising: - the sound output part, - an instruction receiving portion comprising a plurality of user operable elements, the instruction receiving portion is configured to output a signal when one of the user operable elements is operated and where the instruction receiving portion is configured to output different signals when different user operable elements are operated, each signal corresponding to an instruction received, - a processing element configured to: - receive the signal and determine, for each signal, a corresponding command of a plurality of predetermined commands, one or more commands being defined for each user operable element, - determine a pre-amble corresponding to the voice assistant and - control the sound output part to output sound corresponding to the pre-amble followed by the determined command. - the sound output part, - an instruction receiving portion comprising a plurality of user operable elements, the instruction receiving portion is configured to output a signal when one of the user operable elements is operated and where the instruction receiving portion is configured to output different signals when different user operable elements are operated, each signal corresponding to an instruction received, - a processing element configured to: - receive the signal and determine, for each signal, a corresponding command of a plurality of predetermined commands, one or more commands being defined for each user operable element, - determine a pre-amble corresponding to the voice assistant and - control the sound output part to output sound corresponding to the pre-amble followed by the determined command. - receive the signal and determine, for each signal, a corresponding command of a plurality of predetermined commands, one or more commands being defined for each user operable element, - determine a pre-amble corresponding to the voice assistant and - control the sound output part to output sound corresponding to the pre-amble followed by the determined command.
An engineered, non-naturally occurring Clustered Regularly Interspersed Short Palindromic Repeat (CRISPR)-CRISPR associated (Cas) (CRISPR-Cas) system comprising a) one or more Type V CRISPR-Cas polynucleotide sequences comprising a guide RNA which comprises a guide sequence linked to a direct repeat sequence, wherein the guide sequence is capable of hybridizing with a target sequence, or one or more nucleotide sequences encoding the one or more Type V CRISPR-Cas polynucleotide sequences, and b) a Cpf1 effector protein, or one or more nucleotide sequences encoding the Cpf1 effector protein; wherein the one or more guide sequences hybridize to said target sequence, said target sequence is 3' of a Protospacer Adjacent Motif, and said guide RNA forms a complex with the Cpf1 effector protein, wherein the system comprises Mg 2+. a) one or more Type V CRISPR-Cas polynucleotide sequences comprising a guide RNA which comprises a guide sequence linked to a direct repeat sequence, wherein the guide sequence is capable of hybridizing with a target sequence, or one or more nucleotide sequences encoding the one or more Type V CRISPR-Cas polynucleotide sequences, and b) a Cpf1 effector protein, or one or more nucleotide sequences encoding the Cpf1 effector protein;
Radiation therapy plan determination system for determining a radiation therapy plan for a radiation therapy system comprising a multi-leaf collimator, wherein the MLC comprises a plurality of moveable leaves for shaping an aperture of the MLC such that a radiation beam is shaped by the aperture before being provided to a patient, wherein the radiation therapy plan determination system comprises: - a therapy system characteristics providing unit for providing characteristics of the radiation therapy system, wherein the characteristics comprise possible leaf positions defining possible apertures of the MLC and possible radiation fluence values that are providable by the radiation therapy system, - a planning objectives providing unit for providing planning objectives, wherein the planning objectives are indicative of a desired therapeutic radiation dose distribution that should be provided to the patient, - an optimization function providing unit for providing an optimization function being indicative of a deviation of a radiation dose distribution from the planning objectives, wherein the radiation dose distribution depends on a sequence of possible apertures defined by the possible leaf positions and possible radiation fluence values, and wherein the optimization function is further indicative of an uncertainty of the radiation dose distribution at edges of the possible apertures, - a therapy plan optimization unit for determining an optimized therapy plan, wherein the therapy plan optimization unit is adapted to determine a sequence of possible apertures and possible radiation fluence values for which the optimization function is optimized, wherein the sequence of optimized possible apertures and optimized possible fluence values defines the optimized therapy plan. - a therapy system characteristics providing unit for providing characteristics of the radiation therapy system, wherein the characteristics comprise possible leaf positions defining possible apertures of the MLC and possible radiation fluence values that are providable by the radiation therapy system, - a planning objectives providing unit for providing planning objectives, wherein the planning objectives are indicative of a desired therapeutic radiation dose distribution that should be provided to the patient, - an optimization function providing unit for providing an optimization function being indicative of a deviation of a radiation dose distribution from the planning objectives, wherein the radiation dose distribution depends on a sequence of possible apertures defined by the possible leaf positions and possible radiation fluence values, and wherein the optimization function is further indicative of an uncertainty of the radiation dose distribution at edges of the possible apertures, - a therapy plan optimization unit for determining an optimized therapy plan, wherein the therapy plan optimization unit is adapted to determine a sequence of possible apertures and possible radiation fluence values for which the optimization function is optimized, wherein the sequence of optimized possible apertures and optimized possible fluence values defines the optimized therapy plan.
A wireless communications base station having a data store for storing reference transmission characteristics, a receiver for detecting wireless transmissions transmitted by other wireless base stations, a sensor for searching for transmissions received by the receiver for transmissions having the reference characteristics, the sensor being configured to detect a first, hibernation, signal indicative that a neighbouring base station is entering a first hibernation state in which it is scanning for transmissions from mobile terminals but is not transmitting a beacon signal, and to detect a second, shut down signal, indicative that a neighbouring base station is entering a second state in which it is neither transmitting nor receiving, the sensor being configured to identify when a transmission having the reference characteristics ceases to be detected by the sensor, and a reporting system is configured to initiate a channel reallocation plan in response to the second, shutdown, signal, and to report a transmitter outage if the sensor system identifies that a transmission having the reference characteristics has ceased to be detected, and neither the first hibernation signal nor the second shutdown signal has been received. the sensor being configured to detect a first, hibernation, signal indicative that a neighbouring base station is entering a first hibernation state in which it is scanning for transmissions from mobile terminals but is not transmitting a beacon signal, and to detect a second, shut down signal, indicative that a neighbouring base station is entering a second state in which it is neither transmitting nor receiving, the sensor being configured to identify when a transmission having the reference characteristics ceases to be detected by the sensor, and a reporting system is configured to initiate a channel reallocation plan in response to the second, shutdown, signal, and to report a transmitter outage if the sensor system identifies that a transmission having the reference characteristics has ceased to be detected, and neither the first hibernation signal nor the second shutdown signal has been received.