mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless transmit/receive unit , WTRU, comprising: a receiver; a transmitter; and a processor, wherein the processor: causes the transmitter to transmit to a base station a random access procedure preamble over a random access channel; processes a response received by the receiver from the base station, the response being responsive to the transmitted random access procedure preamble; and characterized in that : the response identifies resources for transmission of a message for uplink contention based access using a hybrid automatic repeat request, HARQ, process by the WTRU ; and in that the processor further causes the transmitter to transmit to the base station the message a number of times using the allocated resources, wherein the number of times that the WTRU is to transmit the message using the HARQ process is received by the WTRU from the base station during a random access procedure, and wherein the message is different from the random access procedure preamble. a receiver; a transmitter; and a processor, wherein the processor: causes the transmitter to transmit to a base station a random access procedure preamble over a random access channel; processes a response received by the receiver from the base station, the response being responsive to the transmitted random access procedure preamble; and characterized in that : the response identifies resources for transmission of a message for uplink contention based access using a hybrid automatic repeat request, HARQ, process by the WTRU ; and in that the processor further causes the transmitter to transmit to the base station the message a number of times using the allocated resources, wherein the number of times that the WTRU is to transmit the message using the HARQ process is received by the WTRU from the base station during a random access procedure, and wherein the message is different from the random access procedure preamble. causes the transmitter to transmit to a base station a random access procedure preamble over a random access channel; processes a response received by the receiver from the base station, the response being responsive to the transmitted random access procedure preamble; and characterized in that : the response identifies resources for transmission of a message for uplink contention based access using a hybrid automatic repeat request, HARQ, process by the WTRU ; and in that the processor further causes the transmitter to transmit to the base station the message a number of times using the allocated resources, wherein the number of times that the WTRU is to transmit the message using the HARQ process is received by the WTRU from the base station during a random access procedure, and wherein the message is different from the random access procedure preamble.
A magnetic shielding sheath for an electric cable , the sheath having the form of an initially substantially flat sheet, wound on itself to form a flexible tubular casing configured to receive the cable , the sheath comprising elongated elements , such as wires or strips, which are assembled in a crisscross manner and/or forming an encircling, characterized in that the elongated elements include: - elongated elements of a first type, made of at least one electrically conductive material, configured to form a conductor able to carry out a return current of a carried out by the cable housed in the sheath, the return current creating a magnetic field opposite to a disturbing magnetic field created by the current flowing in the cable; - elongated elements of a second type, different from the first type, made of at least one material having a relative magnetic permeability μr of between μr min and μr max, where, at room temperature, and in a frequency range comprised between 0 Hz and 500 kHz: - μr min is equal to 50, preferably 100, better still 200, or even 500; - μr max is equal to 7000, preferably 6000, better still 5500, or even 1000; the elongated elements of the second type thus being configured to provide a shielding against the magnetic field resulting from the sum of the disturbing field and the field created by the return current; the sheath being further characterized in that it includes end connectors made of an electrically conductive material and assembled to the flexible tubular casing formed by the elongated elements , and at least one orifice , distinct from the axial ends of the sheath , configured to allow passage of the cable . - elongated elements of a first type, made of at least one electrically conductive material, configured to form a conductor able to carry out a return current of a carried out by the cable housed in the sheath, the return current creating a magnetic field opposite to a disturbing magnetic field created by the current flowing in the cable; - elongated elements of a second type, different from the first type, made of at least one material having a relative magnetic permeability μr of between μr min and μr max, where, at room temperature, and in a frequency range comprised between 0 Hz and 500 kHz: - μr min is equal to 50, preferably 100, better still 200, or even 500; - μr max is equal to 7000, preferably 6000, better still 5500, or even 1000; - μr min is equal to 50, preferably 100, better still 200, or even 500; - μr max is equal to 7000, preferably 6000, better still 5500, or even 1000; the elongated elements of the second type thus being configured to provide a shielding against the magnetic field resulting from the sum of the disturbing field and the field created by the return current; the sheath being further characterized in that it includes end connectors made of an electrically conductive material and assembled to the flexible tubular casing formed by the elongated elements , and at least one orifice , distinct from the axial ends of the sheath , configured to allow passage of the cable .
A filter device for filtering complex fluid samples, comprising: a first filter funnel having an inlet and an outlet and an internal space dimensioned to receive a volume of sample fluid to be filtered; a second filter funnel having an inlet and an outlet and an internal space dimensioned to receive the volume of sample fluid, wherein said first and second filter funnels are sequentially arranged with a first filter medium located therebetween such that the volume of sample fluid placed in the internal space of the first filter funnel can pass through the first filter medium and be collected in the internal space of the second filter funnel ; and a valve arrangement , an intermediate connector provided downstream of the first filter medium and upstream of the internal space of the second filter funnel and having a port and/or a vent for communicating the internal space of the second filter funnel with an external gas source/atmosphere via the valve arrangement , wherein the first filter medium is a pre-filter and a second filter medium is provided downstream of the outlet of the second filter funnel wherein the valve arrangement comprises a calibrated leak adapted to communicate the internal space of the second filter funnel via the port or the vent of the intermediate connector with the external gas source/atmosphere. a first filter funnel having an inlet and an outlet and an internal space dimensioned to receive a volume of sample fluid to be filtered; a second filter funnel having an inlet and an outlet and an internal space dimensioned to receive the volume of sample fluid, wherein said first and second filter funnels are sequentially arranged with a first filter medium located therebetween such that the volume of sample fluid placed in the internal space of the first filter funnel can pass through the first filter medium and be collected in the internal space of the second filter funnel ; and a valve arrangement , an intermediate connector provided downstream of the first filter medium and upstream of the internal space of the second filter funnel and having a port and/or a vent for communicating the internal space of the second filter funnel with an external gas source/atmosphere via the valve arrangement , wherein the first filter medium is a pre-filter and a second filter medium is provided downstream of the outlet of the second filter funnel
Ultrasonic sensor for measuring transit time in a medium , in particular in a fluid , comprising an acoustic transducer which can be used as an ultrasonic transmitter and/or as an ultrasonic receiver , wherein the acoustic transducer is designed with a directional characteristic in such a way that it emits sound in at least two different directions (R 1 , R 2a , R 2b ) and/or receives sound from at least two different directions (R 1 , R 2a , R 2b ), wherein the acoustic transducer has a diaphragm with at least one dimension a or dimensions a, b, wherein the diaphragm has a variable thickness (d) with a plurality of raised portions and/or a plurality of recesses and/or a direction-indicating element is fitted on the diaphragm and has a variable thickness (d) with a plurality of raised portions and/or a plurality of recesses ; characterized in that the diaphragm has at least one of the following properties: the diaphragm is of circular design and the dimension a is a diameter of the diaphragm , wherein the dimension a is two to three times the wavelength λ of the emitted and/or received sound; the diaphragm is of elliptical design, wherein one of the dimensions a, b of the elliptical diaphragm lies in the range of two to three times the wavelength of the emitted and/or received sound; the diaphragm is of rectangular design, wherein the at least one dimension comprises a first side length a and a second side length b, wherein the first side length a is 1.7 to 3.5 times the wavelength λ and the second side length b is 1.5 to 4 times the wavelength λ of the emitted and/or received sound, wherein the diaphragm is, in particular, of square design with a side length a = b. the diaphragm is of circular design and the dimension a is a diameter of the diaphragm , wherein the dimension a is two to three times the wavelength λ of the emitted and/or received sound; the diaphragm is of elliptical design, wherein one of the dimensions a, b of the elliptical diaphragm lies in the range of two to three times the wavelength of the emitted and/or received sound; the diaphragm is of rectangular design, wherein the at least one dimension comprises a first side length a and a second side length b, wherein the first side length a is 1.7 to 3.5 times the wavelength λ and the second side length b is 1.5 to 4 times the wavelength λ of the emitted and/or received sound, wherein the diaphragm is, in particular, of square design with a side length a = b.
A method for wireless communication, comprising: operating a first device in a multi-connectivity mode using a plurality of radios of the first device; receiving , at the first device, a pre-scheduling message for a downlink transmission from a second device, wherein the pre-scheduling message identifies a transmission type of the downlink transmission; selecting a subset of radios based at least in part on the transmission type of the downlink transmission; transmitting , from the first device, a scheduling message to the second device in response to receiving the pre-scheduling message, the scheduling message comprising at least one parameter for transmitting the downlink transmission, wherein the parameter identifies the subset of radios of the plurality of radios; and receiving , at the first device, the downlink transmission in accordance with the at least one parameter for transmitting the downlink transmission. operating a first device in a multi-connectivity mode using a plurality of radios of the first device; receiving , at the first device, a pre-scheduling message for a downlink transmission from a second device, wherein the pre-scheduling message identifies a transmission type of the downlink transmission; selecting a subset of radios based at least in part on the transmission type of the downlink transmission; transmitting , from the first device, a scheduling message to the second device in response to receiving the pre-scheduling message, the scheduling message comprising at least one parameter for transmitting the downlink transmission, wherein the parameter identifies the subset of radios of the plurality of radios; and receiving , at the first device, the downlink transmission in accordance with the at least one parameter for transmitting the downlink transmission.
A computer-implemented method of processing a signal representing a physiological rhythm of a subject , the method comprising the steps of: a) receiving the signal from the subject, b) filtering the signal with a band pass filter, c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising at least three analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length of the physiological rhythm from the sum of the outputs of the plurality of interval length estimation methods, g) detecting a peak in the filtered signal in consecutive analysis windows corresponding to an end of the determined interval length, and h) calculating a median determined interval length from the set of matching peaks of the same amplitude. a) receiving the signal from the subject, b) filtering the signal with a band pass filter, c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising at least three analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length of the physiological rhythm from the sum of the outputs of the plurality of interval length estimation methods, g) detecting a peak in the filtered signal in consecutive analysis windows corresponding to an end of the determined interval length, and h) calculating a median determined interval length from the set of matching peaks of the same amplitude.
An inhalable composition comprising: nicotine or a pharmaceutically acceptable salt thereof; at least 90 %w/w of a propellant, wherein the propellant is a hydrofluorocarbon; a monohydric alcohol; and 0.1 to 1 %w/w of a glycol and/or glycol ether based on the total weight of the composition, wherein the glycol and/or glycol ether is propylene glycol, characterised in that the ratio of monohydric alcohol : glycol or glycol ether by weight is from 3:1 to 1:1. nicotine or a pharmaceutically acceptable salt thereof; at least 90 %w/w of a propellant, wherein the propellant is a hydrofluorocarbon; a monohydric alcohol; and 0.1 to 1 %w/w of a glycol and/or glycol ether based on the total weight of the composition, wherein the glycol and/or glycol ether is propylene glycol, characterised in that the ratio of monohydric alcohol : glycol or glycol ether by weight is from 3:1 to 1:1.
A coating composition, comprising a component (S): organosilicon compounds and/or a silicon-containing substance which is a hydrolyzate thereof; and a component (T): modified metal oxide colloid particles having an average particle diameter of 2 to 100 nm, the average particle diameter being determined by a dynamic light scattering method, wherein the organosilicon compounds of the component (S) include a component (S1): an organosilicon compound which includes at least one hydrolyzable group selected from the group consisting of an alkoxy group, an aryloxy group, an aralkyloxy group and an acyloxy group and does not have a nitrogen-containing heterocyclic structure, and a component (S2): an organosilicon compound having a nitrogen-containing heterocyclic group, and wherein a nitrogen-containing heterocycle in the nitrogen-containing heterocyclic group is a pyrrole ring, a pyrrolidone ring, an indole ring, an indoline ring, a carbazole ring, a pyridine ring, a piperidine ring, a pyrimidine ring, a quinoline ring, a pyrazole ring, an imidazole ring, an imidazoline ring, an imidazolidine ring, a benzimidazole ring, a triazole ring, a benzotriazole ring, or a triazine ring. a component (S): organosilicon compounds and/or a silicon-containing substance which is a hydrolyzate thereof; and a component (T): modified metal oxide colloid particles having an average particle diameter of 2 to 100 nm, the average particle diameter being determined by a dynamic light scattering method, wherein the organosilicon compounds of the component (S) include a component (S1): an organosilicon compound which includes at least one hydrolyzable group selected from the group consisting of an alkoxy group, an aryloxy group, an aralkyloxy group and an acyloxy group and does not have a nitrogen-containing heterocyclic structure, and a component (S2): an organosilicon compound having a nitrogen-containing heterocyclic group, and wherein a nitrogen-containing heterocycle in the nitrogen-containing heterocyclic group is a pyrrole ring, a pyrrolidone ring, an indole ring, an indoline ring, a carbazole ring, a pyridine ring, a piperidine ring, a pyrimidine ring, a quinoline ring, a pyrazole ring, an imidazole ring, an imidazoline ring, an imidazolidine ring, a benzimidazole ring, a triazole ring, a benzotriazole ring, or a triazine ring.
A fiber circuit management system, comprising: a fiber circuit platform ; and a splice tray to hold a fiber splice, the splice tray being formed as an oblong structure, the splice tray being rotatably coupled to the fiber circuit platform , the splice tray including a plurality of latching mechanisms , each latching mechanism being formed on a different outer portion of a body of the splice tray to be coupled to the fiber circuit platform in more than one orientation and rotatably engageable with the fiber circuit platform , wherein each latching mechanism includes a coupling portion and one or more fiber entrance/exit channels that are formed as an extension that extends away from a main splice tray body area, wherein, when the latching mechanism is engaged with the platform, the corresponding one or more fiber entrance/exit channels extend to a position proximate to a respective fiber guiding channel formed on the fiber circuit platform . a fiber circuit platform ; and a splice tray to hold a fiber splice, the splice tray being formed as an oblong structure, the splice tray being rotatably coupled to the fiber circuit platform , the splice tray including a plurality of latching mechanisms , each latching mechanism being formed on a different outer portion of a body of the splice tray to be coupled to the fiber circuit platform in more than one orientation and rotatably engageable with the fiber circuit platform , wherein each latching mechanism includes a coupling portion and one or more fiber entrance/exit channels that are formed as an extension that extends away from a main splice tray body area, wherein, when the latching mechanism is engaged with the platform, the corresponding one or more fiber entrance/exit channels extend to a position proximate to a respective fiber guiding channel formed on the fiber circuit platform .
A turbomolecular pump comprising a pump inlet and a pump outlet which are formed in a common pump housing ; at least one turbomolecular pump stage which has an inlet region associated with the pump inlet and an outlet region ; and at least one backing pump stage which acts between the outlet region of the turbomolecular pump stage and the pump outlet and which is configured to compress gas conveyed by the turbomolecular pump stage and to expel it against a gas pressure of more than 1 mbar, in particular against atmospheric pressure, wherein the backing pump stage is integrated into the turbomolecular pump , and wherein the backing pump stage is based on an orbiting relative movement of its pump-active components which is different from the pump driving movement of the turbomolecular pump stage , characterized in that the backing pump stage comprises at least one stationary conveying element and at least one conveying element moving relative to the stationary conveying element during operation, wherein the stationary conveying element of the backing pump stage is at least partly formed by the pump housing . a pump inlet and a pump outlet which are formed in a common pump housing ; at least one turbomolecular pump stage which has an inlet region associated with the pump inlet and an outlet region ; and at least one backing pump stage which acts between the outlet region of the turbomolecular pump stage and the pump outlet and which is configured to compress gas conveyed by the turbomolecular pump stage and to expel it against a gas pressure of more than 1 mbar, in particular against atmospheric pressure, wherein the backing pump stage is integrated into the turbomolecular pump , and wherein the backing pump stage is based on an orbiting relative movement of its pump-active components which is different from the pump driving movement of the turbomolecular pump stage , characterized in that the backing pump stage comprises at least one stationary conveying element and at least one conveying element moving relative to the stationary conveying element during operation, wherein the stationary conveying element of the backing pump stage is at least partly formed by the pump housing .
A method of providing identity services, the method comprising: receiving , by an identity system from an identity provider system of an identity provider, identity data of an identity that the identity provider has generated for an individual, wherein the identity data is validated by the identity provider; generating , by the identity system , a transaction to store an identifier representing the identity data in a data structure on a blockchain of a distributed system; sending , by the identity system , the transaction to at least one node of the distributed system; generating , by the identity system , an identity token incorporating the identifier stored in the data structure in the blockchain of the distributed system; providing, by the identity system to a user system of the individual, the generated identity token; receiving , by the identity system from a restricted access system , data extracted from the identity token received by the restricted access system from the user system ; determining , by the identity system, whether the extracted data matches the identifier stored in the data structure on the blockchain; and outputting , by the identity system to the restricted access system , an indication of a validity of the identity generated by the identity provider based on the determination. receiving , by an identity system from an identity provider system of an identity provider, identity data of an identity that the identity provider has generated for an individual, wherein the identity data is validated by the identity provider; generating , by the identity system , a transaction to store an identifier representing the identity data in a data structure on a blockchain of a distributed system; sending , by the identity system , the transaction to at least one node of the distributed system; generating , by the identity system , an identity token incorporating the identifier stored in the data structure in the blockchain of the distributed system; providing, by the identity system to a user system of the individual, the generated identity token; receiving , by the identity system from a restricted access system , data extracted from the identity token received by the restricted access system from the user system ; determining , by the identity system, whether the extracted data matches the identifier stored in the data structure on the blockchain; and outputting , by the identity system to the restricted access system , an indication of a validity of the identity generated by the identity provider based on the determination.