mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE (104, 204), the method comprising: receiving a radio resource control, RRC, message; identifying, based on the RRC message, a time division multiplex, TDM, pattern that associates a plurality of time domain resources with at least two radio access technologies comprising long term evolution, LTE, and fifth generation, 5G, new radio, NR, wherein: the TDM pattern is a modification of a LTE time domain duplex, TDD, configuration, at least one first time domain resource of the plurality of time domain resources is associated with LTE, at least one second time domain resource of the plurality of time domain resources is associated with 5G NR; transmitting a first uplink signal using the at least one first time domain resource associated with LTE at a first frequency, wherein the first frequency is an operating frequency for LTE; transmitting a second uplink signal using the at least one second time domain resource associated with 5G NR at the first frequency; and transmitting a hybrid automatic repeat request, HARQ, feedback according to the TDM pattern. receiving a radio resource control, RRC, message; identifying, based on the RRC message, a time division multiplex, TDM, pattern that associates a plurality of time domain resources with at least two radio access technologies comprising long term evolution, LTE, and fifth generation, 5G, new radio, NR, wherein: the TDM pattern is a modification of a LTE time domain duplex, TDD, configuration, at least one first time domain resource of the plurality of time domain resources is associated with LTE, at least one second time domain resource of the plurality of time domain resources is associated with 5G NR; transmitting a first uplink signal using the at least one first time domain resource associated with LTE at a first frequency, wherein the first frequency is an operating frequency for LTE; transmitting a second uplink signal using the at least one second time domain resource associated with 5G NR at the first frequency; and transmitting a hybrid automatic repeat request, HARQ, feedback according to the TDM pattern. the TDM pattern is a modification of a LTE time domain duplex, TDD, configuration, at least one first time domain resource of the plurality of time domain resources is associated with LTE, at least one second time domain resource of the plurality of time domain resources is associated with 5G NR; transmitting a first uplink signal using the at least one first time domain resource associated with LTE at a first frequency, wherein the first frequency is an operating frequency for LTE; transmitting a second uplink signal using the at least one second time domain resource associated with 5G NR at the first frequency; and transmitting a hybrid automatic repeat request, HARQ, feedback according to the TDM pattern.
Tool system having a drive unit and having at least one tool head which is able to be mounted onto the drive unit, characterized in that the drive unit has a drive, a controller, a connecting element and has an interface, wherein the connecting element is configured to arrest in a releasably form-fitting manner the tool head mounted onto the drive unit, wherein the drive is configured to transmit a mechanical force to the arrested tool head, wherein the controller is configured to identify an identifier of the tool head via the interface and, according to the identified identifier, to select an operating mode of the drive from a plurality of operating modes, characterized in that the interface has an optical sensor for colour detection, wherein the acquisition or detection of the identifier is realized by optical detection of a colour or a plurality of colours or a plurality of arranged colour areas.
A rotor structure, comprising a rotor body, wherein the rotor body is provided with permanent magnet slot groups; the permanent magnet slot groups each comprise multiple layers of permanent magnet slots; the multiple layers of permanent magnet slots comprise a first permanent magnet slot; the first permanent magnet slot comprises a first permanent magnet slot section and a first slot bent relative to the first permanent magnet slot section; a first end of the first permanent magnet slot section is arranged to extend toward a rotation shaft hole of the rotor body; a second end of the first permanent magnet slot section is arranged toward an outer edge of the rotor body; a first end of the first slot is connected to the second end of the first permanent magnet slot section; a second end of the first slot is arranged to extend toward the outer edge of the rotor body; a distance between the second end of the first slot and the quadrature axis being less than a distance between the second end of the first permanent magnet slot section and the quadrature axis; A denotes a distance from a midpoint of a side wall of the second end of the first slot, which is adjacent to the outer edge of the rotor body, to an intersection point of a geometric center line of the first permanent magnet slot section from the first end to the second end of the first permanent magnet slot section and the outer edge of the rotor body, and M denotes a width of the second end of the first permanent magnet slot section, characterized in that 0.6 M ≤ A. a first end of the first permanent magnet slot section is arranged to extend toward a rotation shaft hole of the rotor body; a second end of the first permanent magnet slot section is arranged toward an outer edge of the rotor body; a first end of the first slot is connected to the second end of the first permanent magnet slot section; a second end of the first slot is arranged to extend toward the outer edge of the rotor body; a distance between the second end of the first slot and the quadrature axis being less than a distance between the second end of the first permanent magnet slot section and the quadrature axis; A denotes a distance from a midpoint of a side wall of the second end of the first slot, which is adjacent to the outer edge of the rotor body, to an intersection point of a geometric center line of the first permanent magnet slot section from the first end to the second end of the first permanent magnet slot section and the outer edge of the rotor body, and M denotes a width of the second end of the first permanent magnet slot section, characterized in that 0.6 M ≤ A.
Power transistor comprising: - a flange (305; 505); - a die (319; 519) having a gate, a source, and a drain, wherein the source is electrically coupled with the flange (305; 505); - a gate tuning network located on the flange (305; 505) having an input and an output, the output being coupled with the gate; - a drain tuning network located on the flange (305; 505) having an input and an output, the input being coupled with the drain; - an input terminal (310; 510) being mechanically coupled to the flange (305; 505) and electrically coupled with the input of the gate tuning circuit; - an output terminal (320; 520) wherein the power transistor further comprises: - an input bias terminal (350; 550, 555) being mechanically coupled to the flange (305; 505) and electrically coupled with the gate; - an output bias terminal (360; 560, 565) being mechanically coupled to the flange (305; 505) and electrically coupled with the drain, characterized in that the gate tuning network and the drain tuning network each comprise a T network and a shunt network and the input bias terminal (350; 550) and the output bias terminal (360; 560, 565) each are coupled with the respective shunt network. - a flange (305; 505); - a die (319; 519) having a gate, a source, and a drain, wherein the source is electrically coupled with the flange (305; 505); - a gate tuning network located on the flange (305; 505) having an input and an output, the output being coupled with the gate; - a drain tuning network located on the flange (305; 505) having an input and an output, the input being coupled with the drain; - an input terminal (310; 510) being mechanically coupled to the flange (305; 505) and electrically coupled with the input of the gate tuning circuit; - an output terminal (320; 520) - an input bias terminal (350; 550, 555) being mechanically coupled to the flange (305; 505) and electrically coupled with the gate; - an output bias terminal (360; 560, 565) being mechanically coupled to the flange (305; 505) and electrically coupled with the drain,
A microporous crystalline material having building units of double-6-rings (d6r) and pore opening of 8-rings, wherein the material comprises a first metal chosen from alkali-earth group, rare-earth group, alkali group or mixtures thereof, and a second metal chosen from copper, iron or mixtures thereof, wherein the material has a molar silica to alumina ratio from 3 to 12; and exhibits an NH 3 adsorption capacity expressed as the molar NH 3 /Al ratio of 0.7 to 0.9, wherein the material comprises structural codes of CHA, LEV, AEI, AFT, AFX, EAB, ERI, KFI, SAT, TSC, and SAV.
A feedback control apparatus comprising: a detector configured to detect an output value based on a controlled object; a P control circuit wherein the P control circuit is an analog circuit and comprises a differential amplifier circuit, the differential amplifier circuit being configured to receive a detection value (V p_mon) of the detector and a target value (V p_set), the differential amplifier circuit being configured to output a P control component V P; an I control unit configured to output an I control component V I by integrating a deviation of the detection value (V p_mon) from the target value (V p_set) by digital processing; and a driver element configured to be driven based on the P control component V P from the P control circuit and the I control component V I from the I control unit to control the controlled object, wherein an output terminal of the differential amplifier circuit is connected to the driver element; characterized in that, the P control circuit is connected to the I control unit so that the I control component V I is input into one input terminal of the differential amplifier circuit together with the detection value (V p_mon) of the detector. a detector configured to detect an output value based on a controlled object; a P control circuit wherein the P control circuit is an analog circuit and comprises a differential amplifier circuit, the differential amplifier circuit being configured to receive a detection value (V p_mon) of the detector and a target value (V p_set), the differential amplifier circuit being configured to output a P control component V P; an I control unit configured to output an I control component V I by integrating a deviation of the detection value (V p_mon) from the target value (V p_set) by digital processing; and a driver element configured to be driven based on the P control component V P from the P control circuit and the I control component V I from the I control unit to control the controlled object, wherein an output terminal of the differential amplifier circuit is connected to the driver element; characterized in that, the P control circuit is connected to the I control unit so that the I control component V I is input into one input terminal of the differential amplifier circuit together with the detection value (V p_mon) of the detector.
A method for preparing a -7,9-decadienoate ester of the general formula: wherein R 1 is a monovalent hydrocarbon group having 1-15 carbon atoms, the method comprising at least steps of: hydrolyzing a 9,9-dialkoxy-7-nonenoate ester of the general formula: R 3 O(R 2 O)CHCH=CH(CH 2) 5 CO 2 R 1 wherein R 1 is as defined above, and R 2 and R 3 are each independently a monovalent hydrocarbon group having 1-15 carbon atoms or together form a divalent hydrocarbon group having 2-10 carbon atoms, R 2 -R 3, to form a -9-oxo-7-nonenoate ester of the general formula: wherein R 1 is as defined above; and subjecting the -9-oxo-7-nonenoate ester to a Wittig reaction with a triarylphosphonium methylide of the general formula: Ar 3 P=CH 2 wherein Ar is an aryl group having 6 or 7 carbon atoms, to form the -7,9-decadienoate ester. hydrolyzing a 9,9-dialkoxy-7-nonenoate ester of the general formula: R 3 O(R 2 O)CHCH=CH(CH 2) 5 CO 2 R 1 wherein R 1 is as defined above, and R 2 and R 3 are each independently a monovalent hydrocarbon group having 1-15 carbon atoms or together form a divalent hydrocarbon group having 2-10 carbon atoms, R 2 -R 3, to form a -9-oxo-7-nonenoate ester of the general formula: wherein R 1 is as defined above; and subjecting the -9-oxo-7-nonenoate ester to a Wittig reaction with a triarylphosphonium methylide of the general formula: Ar 3 P=CH 2 wherein Ar is an aryl group having 6 or 7 carbon atoms, to form the -7,9-decadienoate ester.
A vibratory cavity density meter comprising: a pipe extending from a first end (110a-310a) to a second end (110b-310b), wherein: the first end is configured to couple to a container and includes an aperture configured to receive a material from the container; and the second end (110b-310b) is self-enclosed so as to contain and prevent a flow of the material through the pipe (1 10a-310a); and at least one transducer (118, 218) directly coupled to the pipe, the at least one transducer (118, 218) configured to induce and sense a vibration in the pipe in case of one transducer and, in case of more than one transducer, at least one transducer is configured to induce and at least one transducer is configured to sense a vibration in the pipe to measure a density of the material. a pipe extending from a first end (110a-310a) to a second end (110b-310b), wherein: the first end is configured to couple to a container and includes an aperture configured to receive a material from the container; and the second end (110b-310b) is self-enclosed so as to contain and prevent a flow of the material through the pipe (1 10a-310a); and the first end is configured to couple to a container and includes an aperture configured to receive a material from the container; and the second end (110b-310b) is self-enclosed so as to contain and prevent a flow of the material through the pipe (1 10a-310a); and at least one transducer (118, 218) directly coupled to the pipe, the at least one transducer (118, 218) configured to induce and sense a vibration in the pipe in case of one transducer and, in case of more than one transducer, at least one transducer is configured to induce and at least one transducer is configured to sense a vibration in the pipe to measure a density of the material.
Pipe for transport of liquid or gaseous media, having at least one inner pipe of a polymeric material and having at least one outer layer surrounding the inner pipe, at least one interlayer being disposed between inner pipe and outer layer, and the outer layer comprising at least one repellent, characterized in that the outer layer comprises biodegradable components.
A single-axle agricultural machine with improved control, comprising an internal combustion engine, having a limited power, a clutch block and a mechanical gearbox, wheels and a power intake for work tools (16,17), in addition to a driving handlebar equipped with controls, said wheels and said power intake being controlled by the mechanical gearbox, a primary control shaft of a gear reduction (19,20) protruding from the clutch block, at the outlet of said reduction (19,20) there being a joint for transmitting the motion to a shaft of the power intake, a separate hydrostatic group which acquires the motion directly from the internal combustion engine through said clutch block by means of a first kinematic chain (28, 29, 30, 31), characterized in that said mechanical gearbox is a shift gearbox and that said hydrostatic group in turn is connected to a second kinematic chain (34, 35, 36, 40) which enters the shift gearbox and, through its final idle gear, controls an axle of the wheels, wherein said second kinematic chain comprises a further gear coaxial to an idle gear which, in turn, by means of an idle gear, causes the rotation of a gear which brings the rotation movement back into the shift gearbox, being further provided an idle shaft with multiple gear, through a sliding gear, which allows the speed range to be obtained.
A method performed by a wireless terminal in a Long Term Evolution system, comprising: sending a layer 1 indication indicating a State Transition using a first uplink transmission resource to request a second uplink transmission resource; the first uplink transmission resource is pre-allocated for the wireless terminal; and characterized in that the method further comprises resending the layer 1 indication to request the second uplink transmission resource using the first uplink transmission resource. sending a layer 1 indication indicating a State Transition using a first uplink transmission resource to request a second uplink transmission resource; the first uplink transmission resource is pre-allocated for the wireless terminal; and characterized in that the method further comprises resending the layer 1 indication to request the second uplink transmission resource using the first uplink transmission resource.
A tag memory, comprising: a plurality of non-configurable tag columns (204A, 204B,..., 204N) configured to be powered on during a normal operation; and a plurality of configurable tag columns (202A, 202B,..., 202M), wherein a first portion of the plurality of configurable tag columns is configured to be powered off during the normal operation and a second portion of the plurality of configurable tag columns is configured to be powered on during the normal operation; wherein the first portion of the plurality of configurable tag columns contains most significant bits of a physical address and the second portion of the plurality of configurable tag columns contains next most significant bits of the physical address; and wherein the plurality of non-configurable tag columns contains remaining bits of a tag field. a plurality of non-configurable tag columns (204A, 204B,..., 204N) configured to be powered on during a normal operation; and a plurality of configurable tag columns (202A, 202B,..., 202M), wherein a first portion of the plurality of configurable tag columns is configured to be powered off during the normal operation and a second portion of the plurality of configurable tag columns is configured to be powered on during the normal operation; wherein the first portion of the plurality of configurable tag columns contains most significant bits of a physical address and the second portion of the plurality of configurable tag columns contains next most significant bits of the physical address; and wherein the plurality of non-configurable tag columns contains remaining bits of a tag field.
A money processing system in which money is moved between money handling apparatuses (20 to 40), the money processing system comprising: a plurality of money handling apparatuses (20 to 40); and a management apparatus configured to detect a money handling apparatus (20 to 40) that requires movement of money, select, from among the plurality of money handling apparatuses (20 to 40), one or a plurality of money handling apparatuses (20 to 40) to move the money between the detected money handling apparatus (20 to 40) and the selected one or the plurality of money handling apparatuses (20 to 40), and display guidance for the movement of money between these apparatuses (20 to 40), wherein the management apparatus selects the one or the plurality of money handling apparatuses (20 to 40) based on priority levels previously set on the respective money handling apparatuses(20 to 40), and wherein, in case that the management apparatus selects a source apparatus from which the money moves to the detected money handling apparatus (20 to 40), the priority level of a change dispenser, which is a money handling apparatus performing checkout process, is low while the priority level of a money changer, which is a money handling apparatus performing only depositing without dispensing, is high. a plurality of money handling apparatuses (20 to 40); and a management apparatus configured to detect a money handling apparatus (20 to 40) that requires movement of money, select, from among the plurality of money handling apparatuses (20 to 40), one or a plurality of money handling apparatuses (20 to 40) to move the money between the detected money handling apparatus (20 to 40) and the selected one or the plurality of money handling apparatuses (20 to 40), and display guidance for the movement of money between these apparatuses (20 to 40), wherein the management apparatus selects the one or the plurality of money handling apparatuses (20 to 40) based on priority levels previously set on the respective money handling apparatuses(20 to 40), and wherein, in case that the management apparatus selects a source apparatus from which the money moves to the detected money handling apparatus (20 to 40), the priority level of a change dispenser, which is a money handling apparatus performing checkout process, is low while the priority level of a money changer, which is a money handling apparatus performing only depositing without dispensing, is high.
An integrated neuron circuit structure comprising: first and second thin-film resistors, first and second Metal Insulator Metal capacitors and first and second Negative Differential Resistance devices; an input node connected, through the first thin-film resistor, to a first intermediate node common to the first Metal Insulator Metal capacitor and the first Negative Differential Resistance device; said intermediate node being connected, through the second thin-film resistor, to a second intermediate node of the integrated circuit; said second intermediate node being common to the second Metal insulator Metal capacitor and the second Negative Differential Resistance device; and an output node connected to the second intermediate node; characterised in that at least one plate of one of the first or second Metal Insulator Metal capacitor is made out of a same material layer as the first or second thin-film resistor. first and second thin-film resistors, first and second Metal Insulator Metal capacitors and first and second Negative Differential Resistance devices; an input node connected, through the first thin-film resistor, to a first intermediate node common to the first Metal Insulator Metal capacitor and the first Negative Differential Resistance device; said intermediate node being connected, through the second thin-film resistor, to a second intermediate node of the integrated circuit; said second intermediate node being common to the second Metal insulator Metal capacitor and the second Negative Differential Resistance device; and an output node connected to the second intermediate node; characterised in that at least one plate of one of the first or second Metal Insulator Metal capacitor is made out of a same material layer as the first or second thin-film resistor.
A genetically engineered attenuated swine influenza virus, wherein the virus comprises a swine influenza virus NS1 gene with a mutation resulting in a swine influenza virus NS1 protein having a deletion of exactly 90 to 95 amino acid residues from the carboxy-terminus of the swine influenza virus NS1 protein, and wherein the swine influenza virus NS1 gene is from A/Swine/Texas/4199-2/98.