mhurhangee/patent-ind-claim-en huggingface dataset:
Drum , in particular a piece of drums so-called tom or tom-tom, comprising a cylindrical shell , a batter head on one side of the cylindrical shell , a resonant head on the opposite side of the cylindrical shell , two hoops , one of which is connected to the periphery of a head and the other is connected to the periphery of the other head , and tension rods allowing each hoop to be pulled in a direction opposite to the corresponding end of the shell , in order to exert tension on the head (3; 4); each hoop forms a first zone for the engagement of the tension rods ; the shell has at least one rail (15; 15a, 15b) fixed to the outside of it, extending over the entire circumference of the shell , or substantially over the whole of this circumference, this rail (15; 15a, 15b) forming at least one second zone for the engagement of the tension rods ; each tension rod has a first grip end , adapted to come into engagement with said first engagement zone formed by the hoop , and has a second grip end , adapted to engage said at least second engagement zone formed by rail (15; 15a, 15b); characterized in that : - said first zone for the engagement of the tension rods is continuous or substantially continuous over the entire circumference of the hoop ; - said at least second zone for the engagement of the tension rods is continuous over the entire length of the rail (15; 15a, 15b); and - said first grip end is adapted to engage with said first engagement zone at any point of the circumference of the hoop , or substantially at any point of the circumference of this hoop, and said second grip end is adapted to engage said at least second engagement zone formed by the rail (15; 15a, 15b), at any point of the circumference of that rail, or substantially at any point of on the circumference of that rail. - said first zone for the engagement of the tension rods is continuous or substantially continuous over the entire circumference of the hoop ; - said at least second zone for the engagement of the tension rods is continuous over the entire length of the rail (15; 15a, 15b); and - said first grip end is adapted to engage with said first engagement zone at any point of the circumference of the hoop , or substantially at any point of the circumference of this hoop, and said second grip end is adapted to engage said at least second engagement zone formed by the rail (15; 15a, 15b), at any point of the circumference of that rail, or substantially at any point of on the circumference of that rail.
An assembly carriage configured to assemble a cartridge for an aerosol delivery device, the assembly carriage comprising: a platform ; a first nest disposed on the platform and configured to receive a partially-assembled cartridge in a first orientation; and a second nest disposed on the platform and configured to receive the partially-assembled cartridge in a second orientation that differs from the first orientation. a platform ; a first nest disposed on the platform and configured to receive a partially-assembled cartridge in a first orientation; and a second nest disposed on the platform and configured to receive the partially-assembled cartridge in a second orientation that differs from the first orientation.
A non-oriented electrical steel sheet adhesive coating composition, being a composition comprising: a first component including an organic/inorganic composite; and a second component including a composite metal phosphate, wherein the composition includes 80 to 97 wt% of the first component and 3 to 20 wt% of the second component based on a total amount, 100 wt%, of the composition, the organic/inorganic composite is formed by having inorganic nanoparticles chemically substituted with some functional groups in an organic resin, the organic resin is one, or two or more, selected from an epoxy-based resin, an ester-based resin, an acrylic resin, a styrene-based resin, a urethane-based resin, and an ethylene-based resin, and the inorganic nanoparticles are one, or two or more, selected from SiO 2 , Al 2 O 3 , TiO 2 , MgO, ZnO, and ZrO 2 , wherein the first component is a mixture of two or more selected from a SiO 2 -epoxy composite, an Al 2 O 3 -epoxy composite, a TiO 2 -epoxy composite, a SiO 2 -ester composite, a ZnO-ester composite, a SiO 2 -acrylic composite, an Al 2 O 3 -acrylic composite, a ZnO-acrylic composite, a ZrO 2 -acrylic composite, a SiO 2 -styrene composite, a TiO 2 -styrene composite, a MgO-styrene composite, a SiO 2 -urethane composite, an Al 2 O 3 -urethane composite, a ZnO-urethane composite, a SiO 2 -ethylene composite, an Al 2 O 3 -ethylene composite, and a ZnO-ethylene composite. a first component including an organic/inorganic composite; and a second component including a composite metal phosphate, wherein the composition includes 80 to 97 wt% of the first component and 3 to 20 wt% of the second component based on a total amount, 100 wt%, of the composition, the organic/inorganic composite is formed by having inorganic nanoparticles chemically substituted with some functional groups in an organic resin, the organic resin is one, or two or more, selected from an epoxy-based resin, an ester-based resin, an acrylic resin, a styrene-based resin, a urethane-based resin, and an ethylene-based resin, and the inorganic nanoparticles are one, or two or more, selected from SiO 2 , Al 2 O 3 , TiO 2 , MgO, ZnO, and ZrO 2 , wherein the first component is a mixture of two or more selected from a SiO 2 -epoxy composite, an Al 2 O 3 -epoxy composite, a TiO 2 -epoxy composite, a SiO 2 -ester composite, a ZnO-ester composite, a SiO 2 -acrylic composite, an Al 2 O 3 -acrylic composite, a ZnO-acrylic composite, a ZrO 2 -acrylic composite, a SiO 2 -styrene composite, a TiO 2 -styrene composite, a MgO-styrene composite, a SiO 2 -urethane composite, an Al 2 O 3 -urethane composite, a ZnO-urethane composite, a SiO 2 -ethylene composite, an Al 2 O 3 -ethylene composite, and a ZnO-ethylene composite.
An implantable pulse generator , IPG, for providing a neurostimulation therapy to a patient, comprising: pulse generating circuitry for generating electrical pulses for stimulating neural tissue of the patient; and switching circuitry for outputting the generated electrical pulses from the IPG electrode selection circuitry configured to select one or more electrodes for use during a discharge mode of operation, wherein the IPG controls the pulse generating circuitry and switching circuitry, in an active discharge mode of operation, to provide stimulation pulses followed by respective active discharge pulses wherein electrode polarities of selected two or more electrodes are reversed for a given stimulation pulse and its corresponding active discharge pulse; wherein the stimulation pulses are constant current pulses; characterized in that the pulse generating circuitry is configured to control discharge current for the active discharge pulses to follow a programmed exponentially decreasing current pattern. pulse generating circuitry for generating electrical pulses for stimulating neural tissue of the patient; and switching circuitry for outputting the generated electrical pulses from the IPG electrode selection circuitry configured to select one or more electrodes for use during a discharge mode of operation, wherein the IPG controls the pulse generating circuitry and switching circuitry, in an active discharge mode of operation, to provide stimulation pulses followed by respective active discharge pulses wherein electrode polarities of selected two or more electrodes are reversed for a given stimulation pulse and its corresponding active discharge pulse; wherein the stimulation pulses are constant current pulses; characterized in that the pulse generating circuitry is configured to control discharge current for the active discharge pulses to follow a programmed exponentially decreasing current pattern.
A channel power control method, comprising: receiving, by a user equipment, a Radio Resource Control, RRC, signaling from a communication node configuring a set of path loss, PL, reference signals; receiving (S801), by the user equipment, a Media Access Control-Control Element, MAC-CE, signaling from the communication node, wherein the MAC-CE signaling includes an index indicating a path loss, PL, reference signal of a Physical Uplink Shared Channel, PUSCH, in the set of PL reference signals; determining (S802), by the user equipment, the PL reference signal of the PUSCH according to the index in the MAC-CE signaling; and determining, by the user equipment, a transmission power for a transmission on the PUSCH based on the PL reference signal. receiving, by a user equipment, a Radio Resource Control, RRC, signaling from a communication node configuring a set of path loss, PL, reference signals; receiving (S801), by the user equipment, a Media Access Control-Control Element, MAC-CE, signaling from the communication node, wherein the MAC-CE signaling includes an index indicating a path loss, PL, reference signal of a Physical Uplink Shared Channel, PUSCH, in the set of PL reference signals; determining (S802), by the user equipment, the PL reference signal of the PUSCH according to the index in the MAC-CE signaling; and determining, by the user equipment, a transmission power for a transmission on the PUSCH based on the PL reference signal.
A method in a Network Access Node in a wireless communication network, for receiving synchronization information from a network device in the wireless communication network, comprising: receiving transmitter location information, from the network device , in an information element, IE, indicating a location for each of one or more transmitters that provide synchronization signals; determining one or more propagation delays of a synchronization signal received from a transmitter, based on transmitter location information received for the transmitter in the IE; and using the determined one or more propagation delays to compensate for a timing difference between the Network Access Node and the transmitter of the synchronization signal. receiving transmitter location information, from the network device , in an information element, IE, indicating a location for each of one or more transmitters that provide synchronization signals; determining one or more propagation delays of a synchronization signal received from a transmitter, based on transmitter location information received for the transmitter in the IE; and using the determined one or more propagation delays to compensate for a timing difference between the Network Access Node and the transmitter of the synchronization signal.
A system for inhibiting electromagnetic interference of a refrigerant radiator, comprising: a refrigerant radiator ; a drive circuit corresponding to the refrigerant radiator ; a metal conductor ; and a filter unit ; wherein the metal conductor is respectively connected to the filter unit and the refrigerant radiator , the filter unit is connected to an N terminal or a P terminal of a DC power supply of the drive circuit , a closed-loop of electromagnetic interference is formed among the refrigerant radiator , the metal conductor , the filter unit , and the drive circuit corresponding to the refrigerant radiator ; characterized in that the system comprises a plurality of metal conductors and a plurality of filter units , each of the metal conductors corresponds to a corresponding filter unit of the filter units and connects to a different connection position on the refrigerant radiator; each of the metal conductors connects the corresponding filter unit with the refrigerant radiator ; each of the filter units is connected to the N terminal or the P terminal of the DC power supply of the drive circuit ; and a closed-loop of electromagnetic interference is formed among the refrigerant radiator , each of the metal conductors , the filter unit corresponding to each of the metal conductors , and the drive circuit corresponding to the refrigerant radiator . a refrigerant radiator ; a drive circuit corresponding to the refrigerant radiator ; a metal conductor ; and a filter unit ; wherein the metal conductor is respectively connected to the filter unit and the refrigerant radiator , the filter unit is connected to an N terminal or a P terminal of a DC power supply of the drive circuit , a closed-loop of electromagnetic interference is formed among the refrigerant radiator , the metal conductor , the filter unit , and the drive circuit corresponding to the refrigerant radiator ; characterized in that the system comprises a plurality of metal conductors and a plurality of filter units , each of the metal conductors corresponds to a corresponding filter unit of the filter units and connects to a different connection position on the refrigerant radiator; each of the metal conductors connects the corresponding filter unit with the refrigerant radiator ; each of the filter units is connected to the N terminal or the P terminal of the DC power supply of the drive circuit ; and a closed-loop of electromagnetic interference is formed among the refrigerant radiator , each of the metal conductors , the filter unit corresponding to each of the metal conductors , and the drive circuit corresponding to the refrigerant radiator .
A method for rekeying a security association, SA, applied in a network system including a first network device and a second network device, wherein an Internet Key Exchange, IKE, tunnel and an Internet Protocol Security, IPSec, tunnel are established between the first network device and the second network device, said method comprising: sending , by the first network device, a first rekey request to the second network device for rekeying an SA when there is no change in a cryptographic suite associated with the first network device, wherein the first rekey request carries a first Security Parameter Index, SPI, and does not carry the cryptographic suite associated with the first network device; receiving , by the first network device, a first rekey response from the second network device, wherein the first rekey response carries a second SPI and does not carry a cryptographic suite associated with the second network device when there is no change in the cryptographic suite associated with the second network device; rekeying , by the first network device, the SA according to the first SPI and second SPI when there is no change in the cryptographic suite associated with the first network device and in the cryptographic suite associated with the second network device. sending , by the first network device, a first rekey request to the second network device for rekeying an SA when there is no change in a cryptographic suite associated with the first network device, wherein the first rekey request carries a first Security Parameter Index, SPI, and does not carry the cryptographic suite associated with the first network device; receiving , by the first network device, a first rekey response from the second network device, wherein the first rekey response carries a second SPI and does not carry a cryptographic suite associated with the second network device when there is no change in the cryptographic suite associated with the second network device; rekeying , by the first network device, the SA according to the first SPI and second SPI when there is no change in the cryptographic suite associated with the first network device and in the cryptographic suite associated with the second network device.
A device for switching electrical or electronical systems for picking up the vibrations of the strings of a musical instrument comprising a front face facing the strings , the device comprising: - a cradle intended to be fastened or integrated to the front face and provided with means for electrical connection to an amplification circuit , - at least one barrel that is provided with at least two pickup systems , which is fitted to the cradle so as to be mobile in rotation with respect to the cradle between at least two positions so as to place, in each position, one pickup system in working position opposite the strings and that comprises means for electrically coupling at least the pickup system opposite the strings to the connection means , and - means for rotating the barrel , wherein the axis of rotation A1 of the barrel is substantially parallel to the front face when the cradle is fastened to the latter . - a cradle intended to be fastened or integrated to the front face and provided with means for electrical connection to an amplification circuit , - at least one barrel that is provided with at least two pickup systems , which is fitted to the cradle so as to be mobile in rotation with respect to the cradle between at least two positions so as to place, in each position, one pickup system in working position opposite the strings and that comprises means for electrically coupling at least the pickup system opposite the strings to the connection means , and - means for rotating the barrel ,
A multilayer pharmaceutical composition comprising a fixed dose combination of rosuvastatin or a pharmaceutically acceptable salt thereof and fenofibrate or a pharmaceutically acceptable salt thereof, wherein the fenofibrate or the pharmaceutically acceptable salt thereof and the rosuvastatin or the pharmaceutically acceptable salt thereof are present in separate layers, namely a fenofibrate layer and a rosuvastatin layer, and wherein fenofibrate layer comprises micronized fenofibrate, and wherein fenofibrate and rosuvastatin are immediately released from the fenofibrate layer and the rosuvastatin layer, respectively.
Method for drilling or cutting by removing fusible or vaporisable material of a workpiece by means of absorption of laser radiation, wherein fused and/or vaporised material is transported away by a gas flow from the bore hole forming, the cutting joint forming or the cutting slot forming, defined as the removal zone, wherein one or more process parameters are modulated with the fundamental natural frequency of the gas volume spatially limited in the region of the ablation zone by a forming wall, with higher harmonics thereof or with a mixture thereof, in order thereby to support the removal of the material from the forming ablation zone, characterised in that , in the generation of a noncontinuous ablation zone of a depth t in a workpiece of a thickness d, with t<d, a resonant wavelength λ m is set for modulation with λ m = 4 t / m , m = 1 , 2,3 , ... where the following applies for the associated frequencies v m ν m = c / λ m = m c / 4 t with the speed of sound c and in that , for the generation of a continuous ablation zone in the direction of a thickness d of the workpiece, a resonant wavelength λ n is set for modulation with λ n = 2 d/n , n = 1 , 2,3 , ... where the following applies for the associated frequencies v n ν n = c / λ n = n c/ 2 d with the speed of sound c.
An electric toothbrush brush head detachably attached to a handle of an electric toothbrush , the handle comprising a vibrating drive shaft extending from the handle , the electric toothbrush brush head comprising: a brush head main body comprising a receiving cavity along a first direction (X') receiving at least a part of the drive shaft , wherein the first direction (X') is along an end of the brush head main body connected to the handle toward another end of the brush head main body away from the handle , the receiving cavity comprises a cavity wall and an abutment wall integrally formed with the cavity wall , and when the electric toothbrush brush head is in an assembled state, the abutment wall abuts at least a part of the drive shaft under an external force; and an elastic member positioned corresponding to the abutment wall , wherein the elastic member abuts the abutment wall along an outer surface of the cavity wall toward an inner surface of the cavity wall so as to provide the abutment wall with the external force to abut the drive shaft , and the elastic member is in a shape of a curved sheet, characterized in that , the elastic member consists of a first curved surface portion , two second curved surface portions , and two flat surface portions , the two second curved surface portions are respectively located at two ends of the first curved surface portion , the two flat surface portions are respectively located at two ends of the two second curved surface portions away from the first curved surface portion , and the first curved surface portion and the second curved surface portions are arc-shaped. a brush head main body comprising a receiving cavity along a first direction (X') receiving at least a part of the drive shaft , wherein the first direction (X') is along an end of the brush head main body connected to the handle toward another end of the brush head main body away from the handle , the receiving cavity comprises a cavity wall and an abutment wall integrally formed with the cavity wall , and when the electric toothbrush brush head is in an assembled state, the abutment wall abuts at least a part of the drive shaft under an external force; and an elastic member positioned corresponding to the abutment wall , wherein the elastic member abuts the abutment wall along an outer surface of the cavity wall toward an inner surface of the cavity wall so as to provide the abutment wall with the external force to abut the drive shaft , and the elastic member is in a shape of a curved sheet, characterized in that , the elastic member consists of a first curved surface portion , two second curved surface portions , and two flat surface portions , the two second curved surface portions are respectively located at two ends of the first curved surface portion , the two flat surface portions are respectively located at two ends of the two second curved surface portions away from the first curved surface portion , and the first curved surface portion and the second curved surface portions are arc-shaped.
A polarizing plate comprising: a polarizer ; and a protective layer , which is on one surface or both surfaces of the polarizer directly adjoining the polarizer, wherein the protective layer is a cured material of a photocurable composition for a polarizing plate protective layer comprising an epoxy compound and an oxetane-based compound, and in a spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer, the following Equation 1 is satisfied: 0.9 ≤ I e I a + I e in Equation 1, I e is a ratio of peak intensity at 920 cm -1 to 900 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer; and I a is peak intensity at 1420 cm -1 to 1380 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer. a polarizer ; and a protective layer , which is on one surface or both surfaces of the polarizer directly adjoining the polarizer, wherein the protective layer is a cured material of a photocurable composition for a polarizing plate protective layer comprising an epoxy compound and an oxetane-based compound, and in a spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer, the following Equation 1 is satisfied: 0.9 ≤ I e I a + I e in Equation 1, I e is a ratio of peak intensity at 920 cm -1 to 900 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer; and I a is peak intensity at 1420 cm -1 to 1380 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer.