mhurhangee/ep-ind-claims huggingface dataset:
A surgical mesh comprising: a body portion configured to extend across a tissue defect; the body portion including pre-defined regions (112a, 112b, 112c, 112d), each pre-defined region having a portion (120a, 120b, 120c, 120d) of a plurality of fibers secured to the body portion, the plurality of fibers extending outwardly from an intended proximal surface of the body portion; characterised in that the portion of fibers in each pre-defined region being formed into at least one yarn (122a, 122b, 122c, 122d) for gathering at a common location of the body portion for handling by a clinician; and a guide provided at the common location through which the plurality of gathered yarns extend proximally and outwardly. a body portion configured to extend across a tissue defect; the body portion including pre-defined regions (112a, 112b, 112c, 112d), each pre-defined region having a portion (120a, 120b, 120c, 120d) of a plurality of fibers secured to the body portion, the plurality of fibers extending outwardly from an intended proximal surface of the body portion; characterised in that the portion of fibers in each pre-defined region being formed into at least one yarn (122a, 122b, 122c, 122d) for gathering at a common location of the body portion for handling by a clinician; and a guide provided at the common location through which the plurality of gathered yarns extend proximally and outwardly.
A sub-sea scanning apparatus for measuring the attenuation of gamma radiation passing from a gamma radiation source along a radiation path to a radiation detector comprises: a) a source of gamma radiation; a spacer mounted in a fixed relationship with respect to the source and positioned, in use, between the source and an object to be scanned; characterised in that said apparatus further comprises: b) at least one radiation detector capable of detecting gamma radiation emitted by said source; c) a data processor associated with said at least one radiation detector for calculating a property of material present in a linear radiation path between said source and said at least one detector; a spacer mounted in a fixed relationship with respect to the at least one radiation detector and positioned, in use, between the at least one radiation detector and the object to be scanned; wherein said spacers (26, 28) are movable with a part of the scanning apparatus and said spacers (26, 28) each define a space which, in use, excludes water and have an average density which is less than 1 gcm -3. a) a source of gamma radiation; a spacer mounted in a fixed relationship with respect to the source and positioned, in use, between the source and an object to be scanned; characterised in that said apparatus further comprises: b) at least one radiation detector capable of detecting gamma radiation emitted by said source; c) a data processor associated with said at least one radiation detector for calculating a property of material present in a linear radiation path between said source and said at least one detector;
A method for communication, comprising: receiving, by a terminal device, first information sent by a first network device, wherein the first information is a radio access parameter; and determining, by the terminal device, whether to use the first information according to the validity information of the first information, wherein the validity information of the first information is used for indicating an applicable condition of the first information, characterized in that the validity information of the first information comprises area information to which the first information applies. receiving, by a terminal device, first information sent by a first network device, wherein the first information is a radio access parameter; and determining, by the terminal device, whether to use the first information according to the validity information of the first information, wherein the validity information of the first information is used for indicating an applicable condition of the first information, characterized in that the validity information of the first information comprises area information to which the first information applies.
A dielectric filter, comprising a dielectric block whose outer surface is covered with a metal layer, wherein the dielectric block comprises at least two resonant cavities (1, 2); the dielectric block is provided with a via hole, the via hole is located between two adjacent resonant cavities (1, 2), and an inner wall of the via hole is covered with a metal layer; and a first partition ring is disposed on the outer surface of the dielectric block and is surrounding at least one opening of the via hole, and the dielectric block is exposed in an area enclosed by an inner edge of the first partition ring and an outer edge of the first partition ring; wherein the inner edge of the first partition ring and an edge of an opening of the via hole are disposed at intervals; wherein a combined structure of the via hole and the first partition ring implements a capacitive coupling between the two adjacent cavities. the dielectric block is provided with a via hole, the via hole is located between two adjacent resonant cavities (1, 2), and an inner wall of the via hole is covered with a metal layer; and a first partition ring is disposed on the outer surface of the dielectric block and is surrounding at least one opening of the via hole, and the dielectric block is exposed in an area enclosed by an inner edge of the first partition ring and an outer edge of the first partition ring; wherein the inner edge of the first partition ring and an edge of an opening of the via hole are disposed at intervals; wherein a combined structure of the via hole and the first partition ring implements a capacitive coupling between the two adjacent cavities.
A method for operating a negative pressure generator, using pressure fluid for generating the negative pressure, in which the negative pressure generator has a pressure access for supplying pressure fluid and a suction connection, and in operation of the negative pressure generator, operating cycles are performed, and during an operating cycle the pressure fluid supply is activated at least once and afterward deactivated again at least once, characterized in that during the operating cycle, an active time period (T A) is measured as the period of time during which the pressure fluid supply is activated during the operating cycle, and that during the operating cycle, the supply pressure (p v) of the pressure fluid prevailing in the pressure access is measured.
A system for processing an input audio signal including a left input channel and a right input channel, the system comprising: a crossover network configured to separate the input audio signal into a low frequency signal and a high frequency signal; a high frequency processor configured to apply a b-chain processing to the high frequency signal to generate a high frequency output signal, the b-chain processing comprising adjusting for an asymmetry between a left speaker and a right speaker in at least one of a frequency response, a time alignment, or a signal level; a low frequency processor configured to: apply a parametric band-pass filter and a first gain to the low frequency signal to generate a low frequency resonator signal, apply a second gain to the low frequency signal to generate a low frequency passthrough signal, and generate a low frequency output signal by combining the low frequency resonator signal with the low frequency passthrough signal; and a combiner configured to generate an output signal including a left channel of the high frequency output signal for the left speaker and a right channel of the high frequency output signal for the right speaker, wherein the combiner is further configured to combine the low frequency output signal with one of the left channel of the high frequency output signal for the left speaker or the right channel of the high frequency output signal for the right speaker. a crossover network configured to separate the input audio signal into a low frequency signal and a high frequency signal; a high frequency processor configured to apply a b-chain processing to the high frequency signal to generate a high frequency output signal, the b-chain processing comprising adjusting for an asymmetry between a left speaker and a right speaker in at least one of a frequency response, a time alignment, or a signal level; a low frequency processor configured to: apply a parametric band-pass filter and a first gain to the low frequency signal to generate a low frequency resonator signal, apply a second gain to the low frequency signal to generate a low frequency passthrough signal, and generate a low frequency output signal by combining the low frequency resonator signal with the low frequency passthrough signal; and apply a parametric band-pass filter and a first gain to the low frequency signal to generate a low frequency resonator signal, apply a second gain to the low frequency signal to generate a low frequency passthrough signal, and generate a low frequency output signal by combining the low frequency resonator signal with the low frequency passthrough signal; and a combiner configured to generate an output signal including a left channel of the high frequency output signal for the left speaker and a right channel of the high frequency output signal for the right speaker, wherein the combiner is further configured to combine the low frequency output signal with one of the left channel of the high frequency output signal for the left speaker or the right channel of the high frequency output signal for the right speaker.
An antibody variant composition and a fragment of the antibody variant composition, comprising amino acid residues of an Asn-X-Ser/Thr (X represents an amino acid residue other than Pro) sequence in an Fc region of a human IgG antibody, in which Asn-X-Ser/Thr sequence at least one amino acid substitution selected from an amino acid substitution of Asn to other amino acid residue, an amino acid substitution of X to Pro and an amino acid substitution of Ser/Thr to other amino acid residue is carried out, wherein the Asn-X-Ser/Thr (X is an amino acid residue other than Pro) sequence is the amino acid residues at positions 392 to 394 according to the EU index, and wherein the Fc region of a human IgG antibody comprises the amino acid sequence of SEQ ID NO:1
Method for estimating a steering torque, in particular for the lateral control of a vehicle, comprising the steps of: - detecting at least one signal on a current vehicle state and/or current vehicle environment, - determining a desired steering angle ( δ) by a steering control unit based on the at least one detected signal, - estimating a vehicle lateral force on the basis of a tire dynamics model, including the determined steering angle ( δ) as an input factor, - estimating a vehicle lateral force on the basis of a lateral dynamics model, - correcting the lateral force value estimated by the tire dynamics model on the basis of the lateral force value estimated by the lateral dynamics model, - estimating a self-aligning torque based on the corrected lateral force value, and - estimating a steering torque from the estimated self-aligning torque. - detecting at least one signal on a current vehicle state and/or current vehicle environment, - determining a desired steering angle ( δ) by a steering control unit based on the at least one detected signal, - estimating a vehicle lateral force on the basis of a tire dynamics model, including the determined steering angle ( δ) as an input factor, - estimating a vehicle lateral force on the basis of a lateral dynamics model, - correcting the lateral force value estimated by the tire dynamics model on the basis of the lateral force value estimated by the lateral dynamics model, - estimating a self-aligning torque based on the corrected lateral force value, and - estimating a steering torque from the estimated self-aligning torque.
A robot cleaner (1, 100) comprising: a body which forms an outer appearance; and a mop module which is detachably connected to the body, wherein the mop module comprises: a pair of spin mops which contacts a floor while rotating clockwise or counterclockwise when viewed from a top; and a module housing which connects the pair of spin mops, wherein the robot cleaner (1, 100) further comprises: a mop driving unit disposed at the body, wherein torque of the mop driving unit is transmitted to the pair of spin mops in the connected state where the body and the mop module are connected. a body which forms an outer appearance; and a mop module which is detachably connected to the body, wherein the mop module comprises: a pair of spin mops which contacts a floor while rotating clockwise or counterclockwise when viewed from a top; and a module housing which connects the pair of spin mops, a pair of spin mops which contacts a floor while rotating clockwise or counterclockwise when viewed from a top; and a module housing which connects the pair of spin mops, wherein the robot cleaner (1, 100) further comprises: a mop driving unit disposed at the body, wherein torque of the mop driving unit is transmitted to the pair of spin mops in the connected state where the body and the mop module are connected. a mop driving unit disposed at the body, wherein torque of the mop driving unit is transmitted to the pair of spin mops in the connected state where the body and the mop module are connected.
Device for operating a magnetic field applicator (1, 10) for magnetic field treatment of people on a treatment bed (2, 12) and/or a treatment chair having at least one magnetic coil (8, 8a, 8b), wherein the at least one magnetic coil (8, 8a, 8b) is designed to be longitudinally displaceable at least partly over the length of the treatment bed (2, 12) and/or of the treatment chair and a magnetic field at least partly penetrating the body of the person can be generated, characterised in that during the longitudinal displacement of the at least one magnetic coil (8, 8a, 8b), the strength of the at least one magnetic field and/or its frequency is controllable depending on position as a function of the region of the body of the person, wherein the displaceable magnetic coil (8, 8a, 8b) is connected to a position sensor which records the current place and position of the magnetic coil (8, 8a, 8b) with respect to the treated body region of the person, and the thus recorded sensor signal is input to a generator which controls the amplitude of the magnetic field and/or the frequency and/or the repetition period and/or the treatment time and/or the pulse form.
A process for preparing detergent granules, comprising the steps of: (a) mixing a liquid acid precursor of an anionic surfactant and a first neutralizing agent, wherein said first neutralizing agent is provided in an amount sufficient for neutralizing from 5% to 20% by weight of said liquid acid precursor of the anionic surfactant to form a partially neutralized mixture; and (b) subsequently, mixing the partially neutralized mixture with a second neutralizing agent, wherein said second neutralizing agent is provided in an amount sufficient for substantially neutralizing the remaining liquid acid precursor of the anionic surfactant in the partially neutralized mixture to form detergent granules. (a) mixing a liquid acid precursor of an anionic surfactant and a first neutralizing agent, wherein said first neutralizing agent is provided in an amount sufficient for neutralizing from 5% to 20% by weight of said liquid acid precursor of the anionic surfactant to form a partially neutralized mixture; and (b) subsequently, mixing the partially neutralized mixture with a second neutralizing agent, wherein said second neutralizing agent is provided in an amount sufficient for substantially neutralizing the remaining liquid acid precursor of the anionic surfactant in the partially neutralized mixture to form detergent granules.
A friction reducing device for a vessel comprising: a first air storage unit including a blow hole configured to blow air out into water; a plurality of second air storage units disposed rearward from the first air storage unit, each including a blow hole configured to blow air out into water, and disposed at a first interval formed between the second air storage units; first detection sensors (40;41;42;43;44;45;46) each configured to measure air pressures of a respective first air storage unit and the second air storage unit; a first valve (60; 760; 870) configured to adjust an amount of air supplied to the first air storage unit; second valves (61; 62; 770; 772; 872) configured to adjust an amount of air supplied to the second air storage units; characterised in that the friction reducing device comprises a pipe duct to form an air flow path to the first and second air storage units (100, 200), accommodating a facility pipeline therein, wherein the facility pipeline may include an electric pipeline, a drinking water pipeline, a hot water pipeline, a fuel pipeline, and the like and wherein a space in the internal space of the pipe duct, except for a space occupied by the facility pipeline, is used as an air flow path, and wherein the first interval is shorter than a dimension in a width direction of the first air storage unit. a first air storage unit including a blow hole configured to blow air out into water; a plurality of second air storage units disposed rearward from the first air storage unit, each including a blow hole configured to blow air out into water, and disposed at a first interval formed between the second air storage units; first detection sensors (40;41;42;43;44;45;46) each configured to measure air pressures of a respective first air storage unit and the second air storage unit; a first valve (60; 760; 870) configured to adjust an amount of air supplied to the first air storage unit; second valves (61; 62; 770; 772; 872) configured to adjust an amount of air supplied to the second air storage units; characterised in that the friction reducing device comprises a pipe duct to form an air flow path to the first and second air storage units (100, 200), accommodating a facility pipeline therein, wherein the facility pipeline may include an electric pipeline, a drinking water pipeline, a hot water pipeline, a fuel pipeline, and the like and wherein a space in the internal space of the pipe duct, except for a space occupied by the facility pipeline, is used as an air flow path, and
A method for responding to a touch operation, applicable to a mobile terminal comprising a touch display screen, and the method comprising: receiving (701; 1502; 2101; 2202; 2301) a first touch operation applied on the touch display screen and a second touch operation applied on the touch display screen within a predetermined duration; determining (2102; 2203; 2303) a first operation type of the first touch operation, the first operation type being one of a click type, a slide type and a long press type; and determining (2103; 2204; 2303) a second operation type of the second touch operation, the second operation type being one of the click type, the slide type and the long press type; determining an operation region of the first touch operation and determining an operation region of the second touch operation; determining a response priority of the first operation type and a response priority of the second operation type; and determining, based on the response priorities of the first and second operation types and the operation regions of the first and second touch operations, whether to respond to the first touch operation and then respond to the second touch operation, or to respond to the second touch operation and then respond to the first touch operation, or only respond to the first touch operation, or only respond to the second touch operation. receiving (701; 1502; 2101; 2202; 2301) a first touch operation applied on the touch display screen and a second touch operation applied on the touch display screen within a predetermined duration; determining (2102; 2203; 2303) a first operation type of the first touch operation, the first operation type being one of a click type, a slide type and a long press type; and determining (2103; 2204; 2303) a second operation type of the second touch operation, the second operation type being one of the click type, the slide type and the long press type; determining an operation region of the first touch operation and determining an operation region of the second touch operation; determining a response priority of the first operation type and a response priority of the second operation type; and determining, based on the response priorities of the first and second operation types and the operation regions of the first and second touch operations, whether to respond to the first touch operation and then respond to the second touch operation, or to respond to the second touch operation and then respond to the first touch operation, or only respond to the first touch operation, or only respond to the second touch operation.
A method for buffer management in a distributed database network, the method comprising: receiving, by a lower-layer buffer management entity in a first network node, data messages from a second network node, wherein a query execution plan assigns at least some of the data messages to be processed by different upper-layer query processing operations of the first network node, and wherein each of the upper-layer query processing operations is configured to process data stored in a corresponding one of a plurality of working buffers; determining, by the lower-layer buffer management entity, priority levels associated with the data messages based on a priority level of a corresponding upper-layer query processing operation assigned to process the corresponding data messages; and buffering the data messages in communication buffers of the first network node in accordance with the priority levels associated with the data messages, wherein data messages having different priority levels are stored in different communication buffers, and forwarding the data messages from the communication buffers to the working buffers, wherein the data messages stored in the communication buffers are not available to be processed by the upper-layer query processing operations until the data messages are forwarded from the communication buffers to the working buffers. receiving, by a lower-layer buffer management entity in a first network node, data messages from a second network node, wherein a query execution plan assigns at least some of the data messages to be processed by different upper-layer query processing operations of the first network node, and wherein each of the upper-layer query processing operations is configured to process data stored in a corresponding one of a plurality of working buffers; determining, by the lower-layer buffer management entity, priority levels associated with the data messages based on a priority level of a corresponding upper-layer query processing operation assigned to process the corresponding data messages; and buffering the data messages in communication buffers of the first network node in accordance with the priority levels associated with the data messages, wherein data messages having different priority levels are stored in different communication buffers, and forwarding the data messages from the communication buffers to the working buffers, wherein the data messages stored in the communication buffers are not available to be processed by the upper-layer query processing operations until the data messages are forwarded from the communication buffers to the working buffers.