mhurhangee/ep-ind-claims huggingface dataset:
An inhalation device for inhalation of a medicament in dry powder form from capsules comprising - bottom-casing, - a mid-plate covering the bottom-casing, - a capsule chamber integrated with the mid-plate in order to place the capsule, - a filter in order to filtrate the dry powder formulation, - a filter connector in order to hold the filter, - a mouthpiece which is closed over the mid-plate and wherein the filter connector is inserted, - an mouthpiece cover in order to cover the mouthpiece, - a hinge providing the connection between the mouthpiece cover, the mouthpiece, the mid-plate and the bottom-casing with each other, - at least one needle (12b, 12c) in order to pierce the capsule in the capsule chamber, - a movable press button in order to push at least one needle (12b, 12c) into the capsule chamber, - a safety lock button preventing the movement of the mouthpiece and the mouthpiece cover in sleep mode of the device, characterized in that - the safety lock button comprises locking latches (8a, 8b) situated on the upper side of the safety lock button, - there are extensions (6c, 6d, 1b, 1c) situated on the filter connector and the mouthpiece cover, and - the safety lock button is connected with both the filter connector which is inserted into the mouthpiece and the mouthpiece cover by way of the extensions situated on the filter connector and the mouthpiece cover interlocking with the locking latches situated on the upper side of the safety lock button, - such that the mouthpiece and the mouthpiece cover are releasable together and simultaneously when the safety lock button is in actuation position. - bottom-casing, - a mid-plate covering the bottom-casing, - a capsule chamber integrated with the mid-plate in order to place the capsule, - a filter in order to filtrate the dry powder formulation, - a filter connector in order to hold the filter, - a mouthpiece which is closed over the mid-plate and wherein the filter connector is inserted, - an mouthpiece cover in order to cover the mouthpiece, - a hinge providing the connection between the mouthpiece cover, the mouthpiece, the mid-plate and the bottom-casing with each other, - at least one needle (12b, 12c) in order to pierce the capsule in the capsule chamber, - a movable press button in order to push at least one needle (12b, 12c) into the capsule chamber, - a safety lock button preventing the movement of the mouthpiece and the mouthpiece cover in sleep mode of the device, - the safety lock button comprises locking latches (8a, 8b) situated on the upper side of the safety lock button, - there are extensions (6c, 6d, 1b, 1c) situated on the filter connector and the mouthpiece cover, and - the safety lock button is connected with both the filter connector which is inserted into the mouthpiece and the mouthpiece cover by way of the extensions situated on the filter connector and the mouthpiece cover interlocking with the locking latches situated on the upper side of the safety lock button, - such that the mouthpiece and the mouthpiece cover are releasable together and simultaneously when the safety lock button is in actuation position.
A method for providing channel diversity in a multiple access wireless communication system, the method comprising: transmitting a plurality of signals using a plurality of communication channels, wherein each of the plurality of communication channels has a physical characteristic that is detectable by a wireless terminal and each of the plurality of signals has a signal transmission characteristic; changing at least one signal transmission characteristic to modify the physical characteristic of at least one of the plurality of communication channels as received by the wireless terminal; receiving a feedback information from the wireless terminal wherein the feedback information is based on the modified physical characteristic; and selecting one of the plurality of communication channels based on the feedback information for use in transmission, wherein changing at least one signal transmission characteristic occurs at a rate equal to or slower than a rate at which feedback information is received from the wireless terminal; and wherein the at least one signal transmission characteristic being changed comprises a parameter controlling the antenna pattern of the transmission. transmitting a plurality of signals using a plurality of communication channels, wherein each of the plurality of communication channels has a physical characteristic that is detectable by a wireless terminal and each of the plurality of signals has a signal transmission characteristic; changing at least one signal transmission characteristic to modify the physical characteristic of at least one of the plurality of communication channels as received by the wireless terminal; receiving a feedback information from the wireless terminal wherein the feedback information is based on the modified physical characteristic; and selecting one of the plurality of communication channels based on the feedback information for use in transmission, wherein changing at least one signal transmission characteristic occurs at a rate equal to or slower than a rate at which feedback information is received from the wireless terminal; and wherein the at least one signal transmission characteristic being changed comprises a parameter controlling the antenna pattern of the transmission.
A computer-implemented method of processing a primitive in a graphics processing system, the method comprising tiling the primitive to determine which of a plurality of tiles of a rendering space the primitive is in, said tiling the primitive comprising: determining a bounding box for the primitive; for each tile of a subset of the tiles in the bounding box, performing, for each edge of the primitive, an edge-specific test to determine whether the tile is outside that edge of the primitive; and using results of edge-specific tests for at least two tiles of the subset determined to be outside an edge of the primitive to infer that at least one other tile is outside that edge of the primitive without needing to perform an edge-specific test for that at least one other tile with respect to that edge of the primitive, wherein said at least one other tile is: (i) not part of said subset of tiles, and (ii) located within a region bounded by said at least two tiles of the subset. determining a bounding box for the primitive; for each tile of a subset of the tiles in the bounding box, performing, for each edge of the primitive, an edge-specific test to determine whether the tile is outside that edge of the primitive; and using results of edge-specific tests for at least two tiles of the subset determined to be outside an edge of the primitive to infer that at least one other tile is outside that edge of the primitive without needing to perform an edge-specific test for that at least one other tile with respect to that edge of the primitive, wherein said at least one other tile is: (i) not part of said subset of tiles, and (ii) located within a region bounded by said at least two tiles of the subset.
Rolling body guide cage with a ring element which is produced from a sheet metal material and has an axial profiling formed by forming techniques and several rolling body guide structures which are arranged in succession in the circumferential direction, wherein the ring element is composed of at least two flat material ring segments (S1, S2, S3) which are joined to one another in succession in the circumferential direction, wherein the flat material ring segments (S1, S2, S3) are welded to one another via weld points (W1, W2, W3), characterized in that the flat material ring segments (S1, S2, S3) are joined together in a production step which precedes the formation of the axial profiling, wherein the flat material ring segments (S1, S2, S3) are connected to one another across positively engaging joint contours (F1, F2, F3).
A method for operating a mobile device (110, 300), the method comprising: at the mobile device, generating false reports on availability of at least one remote server, wherein, in response to receiving the false reports, one or more applications stored in a memory of the mobile device suspend routine status messages; at the mobile device, receiving multiple messages from the one or more applications stored in the memory of the mobile device, wherein the multiple messages are to be transmitted from the mobile device to the at least one remote server through a communications network; at the mobile device, coordinating the multiple messages in time to allow for a single wireless transmission of the multiple messages from the mobile device to the at least one remote server via the communications network, wherein a radio transmitter of the mobile device is in a low power state while coordinating the multiple messages in time; and at the mobile device, transmitting the multiple messages to the remote servers through the single transmission, wherein the radio transmitter of the mobile device is transitioned to a high power state only once for the transmission of the multiple messages. at the mobile device, generating false reports on availability of at least one remote server, wherein, in response to receiving the false reports, one or more applications stored in a memory of the mobile device suspend routine status messages; at the mobile device, receiving multiple messages from the one or more applications stored in the memory of the mobile device, wherein the multiple messages are to be transmitted from the mobile device to the at least one remote server through a communications network; at the mobile device, coordinating the multiple messages in time to allow for a single wireless transmission of the multiple messages from the mobile device to the at least one remote server via the communications network, wherein a radio transmitter of the mobile device is in a low power state while coordinating the multiple messages in time; and at the mobile device, transmitting the multiple messages to the remote servers through the single transmission, wherein the radio transmitter of the mobile device is transitioned to a high power state only once for the transmission of the multiple messages.
A method of implementing call handover, HO, using a user equipment, UE, configured to communicate with a wireless communication network, comprising: sending a measurement report (120, 140, 200, 220, 240, 260, 280) to at least one of a serving cell and at least one cell of a coordinated multi-point (CoMP) cell set, the measurement report (120, 140, 200, 220, 240, 260, 280) including a downlink, DL, signal quality indication of one or more cells in the CoMP cell set; listening for control channel transmissions comprising a handover command message, HCM, from at least one of the serving cell and a first cell in the CoMP cell set; receiving a DL resource allocation from the serving cell comprising decoding a first Physical Downlink Control Channel, PDCCH, from the serving cell and receiving the DL resource allocation from the first cell in the CoMP cell set (132, 152) comprising decoding a second PDCCH from the first cell, wherein the second PDCCH is different to the first PDCCH; after PDCCH decoding; directly reading a composite HO command received jointly from the serving cell and the first cell in the CoMP cell set (134, 154), the HO command identifying a target cell; and performing handover to the target cell identified in the HO command. sending a measurement report (120, 140, 200, 220, 240, 260, 280) to at least one of a serving cell and at least one cell of a coordinated multi-point (CoMP) cell set, the measurement report (120, 140, 200, 220, 240, 260, 280) including a downlink, DL, signal quality indication of one or more cells in the CoMP cell set; listening for control channel transmissions comprising a handover command message, HCM, from at least one of the serving cell and a first cell in the CoMP cell set; receiving a DL resource allocation from the serving cell comprising decoding a first Physical Downlink Control Channel, PDCCH, from the serving cell and receiving the DL resource allocation from the first cell in the CoMP cell set (132, 152) comprising decoding a second PDCCH from the first cell, wherein the second PDCCH is different to the first PDCCH; after PDCCH decoding; directly reading a composite HO command received jointly from the serving cell and the first cell in the CoMP cell set (134, 154), the HO command identifying a target cell; and performing handover to the target cell identified in the HO command.
A multipath device (200, 300, 400) for processing multipath data traffic, the multipath device comprising: a multipath network access interface comprising at least one access interface for receiving multipath data traffic; and a host processor configured to operate at least one multi-connectivity network protocol and a multipath protocol policy manager, MPPM, wherein the at least one multi-connectivity network protocol is configured to process data traffic of the multipath data traffic that is related to the at least one multi-connectivity network protocol and received via multiple paths of the multipath network access interface, and wherein the MPPM is configured to manage the multiple paths of the multipath network access interface and/or the at least one access interface of the multipath network access interface according to a multipath network protocol policy, wherein the multipath network protocol policy depends on feedback (202, 203) from other multi-connectivity network protocols (117, 113) running on the host processor, characterised in that the at least one multi-connectivity network protocol is configured to register and/or deregister at the MPPM for receiving the multipath network protocol policy related to the at least one multi-connectivity network protocol. a multipath network access interface comprising at least one access interface for receiving multipath data traffic; and a host processor configured to operate at least one multi-connectivity network protocol and a multipath protocol policy manager, MPPM, wherein the at least one multi-connectivity network protocol is configured to process data traffic of the multipath data traffic that is related to the at least one multi-connectivity network protocol and received via multiple paths of the multipath network access interface, and wherein the MPPM is configured to manage the multiple paths of the multipath network access interface and/or the at least one access interface of the multipath network access interface according to a multipath network protocol policy, wherein the multipath network protocol policy depends on feedback (202, 203) from other multi-connectivity network protocols (117, 113) running on the host processor, characterised in that the at least one multi-connectivity network protocol is configured to register and/or deregister at the MPPM for receiving the multipath network protocol policy related to the at least one multi-connectivity network protocol.
A compound of the formula: wherein: R 1 is selected from: C 1-4 alkyl and -(CH 2) a OR A, wherein a is an integer selected from 1, 2, 3 and 4, and R A is H; R 2 is selected from: -CN, C 1-4 alkyl, cyclopropyl, -C 1-4 alkylOC 1-4 alkyl and -(CR 3 R 4) b OH; R 3 and R 4 are each independently selected from H and C 1-4 alkyl, provided that at least one R 3 or R 4 in the -(CR 3 R 4) b OH group is C 1-4 alkyl; b is an integer selected from 1, 2, 3 and 4; provided that R 1 and R 2 are not both C 1-4 alkyl. R 1 is selected from: C 1-4 alkyl and -(CH 2) a OR A, wherein a is an integer selected from 1, 2, 3 and 4, and R A is H; R 2 is selected from: -CN, C 1-4 alkyl, cyclopropyl, -C 1-4 alkylOC 1-4 alkyl and -(CR 3 R 4) b OH; R 3 and R 4 are each independently selected from H and C 1-4 alkyl, provided that at least one R 3 or R 4 in the -(CR 3 R 4) b OH group is C 1-4 alkyl; b is an integer selected from 1, 2, 3 and 4; provided that R 1 and R 2 are not both C 1-4 alkyl.
A linear actuator comprising: a casing that contains a moveable shaft that is moved by a motor in response to a drive signal and is coupled to an encoder that determines movement of the shaft and forms part of a control loop that adjusts the drive signal so as to ensure accurate positioning of the shaft; a temperature sensor mounted in association with the shaft for producing a temperature signal indicative of instantaneously measured temperature of the shaft; and a temperature compensator responsive to the measured temperature for generating a negative or positive offset for correcting the drive signal so as to move the shaft to a position that is corrected for instantaneous expansion or contraction of the shaft owing to departures of the shaft's actual temperature from a known baseline temperature; the motor advances the shaft forward or backward and is configured for coupling to a driven mechanism that is external to the actuator; characterized in that: the encoder is a linear encoder that includes a reading head and scale and determines an actual instantaneous position of the shaft; the shaft is anchored at one end to the reading head; and the temperature compensator is responsive to a known geometry of the shaft for generating said offset. a casing that contains a moveable shaft that is moved by a motor in response to a drive signal and is coupled to an encoder that determines movement of the shaft and forms part of a control loop that adjusts the drive signal so as to ensure accurate positioning of the shaft; a temperature sensor mounted in association with the shaft for producing a temperature signal indicative of instantaneously measured temperature of the shaft; and a temperature compensator responsive to the measured temperature for generating a negative or positive offset for correcting the drive signal so as to move the shaft to a position that is corrected for instantaneous expansion or contraction of the shaft owing to departures of the shaft's actual temperature from a known baseline temperature; the motor advances the shaft forward or backward and is configured for coupling to a driven mechanism that is external to the actuator; characterized in that: the encoder is a linear encoder that includes a reading head and scale and determines an actual instantaneous position of the shaft; the shaft is anchored at one end to the reading head; and the temperature compensator is responsive to a known geometry of the shaft for generating said offset. the encoder is a linear encoder that includes a reading head and scale and determines an actual instantaneous position of the shaft; the shaft is anchored at one end to the reading head; and the temperature compensator is responsive to a known geometry of the shaft for generating said offset.
A placeholder for implantation in a human or animal body, the placeholder comprising: a first tubular body having a jacket surface with a plurality of openings for in-growth of adjacent tissue; at least a second tubular body having a jacket surface with a plurality of openings, the second tubular body being disposed at least partially inside the first tubular body, characterized by the fact that the first body has an oval or kidney-like cross-sectional shape and the second body/bodies has/have a triangular, rectangular, hexagonal, octagonal or generally polygonal cross-sectional shape. a first tubular body having a jacket surface with a plurality of openings for in-growth of adjacent tissue; at least a second tubular body having a jacket surface with a plurality of openings, the second tubular body being disposed at least partially inside the first tubular body, characterized by the fact that the first body has an oval or kidney-like cross-sectional shape and the second body/bodies has/have a triangular, rectangular, hexagonal, octagonal or generally polygonal cross-sectional shape.
A surge protection device connected between two terminals (T1, T2), comprising: an impedance device, a voltage-limiting surge protector (PMOV), and a switching surge protector; wherein the impedance device is connected in parallel with the voltage-limiting surge protector; a parallel branch of the impedance device and the voltage-limiting surge protector is connected in series with the switching surge protector to form a discharge channel of a lightning impulse current; and a series branch of the impedance device and the switching surge protector forms a discharge channel of a follow current characterized in that the impedance device comprises a series branch formed by a resistor and an inductor. an impedance device, a voltage-limiting surge protector (PMOV), and a switching surge protector; wherein the impedance device is connected in parallel with the voltage-limiting surge protector; a parallel branch of the impedance device and the voltage-limiting surge protector is connected in series with the switching surge protector to form a discharge channel of a lightning impulse current; and a series branch of the impedance device and the switching surge protector forms a discharge channel of a follow current characterized in that the impedance device comprises a series branch formed by a resistor and an inductor.
An anti-reflective film comprising: a hard coating layer; and a low-refractive layer including an organic polymer resin and two or more kinds of hollow inorganic particles having different particle sizes which are dispersed in the organic polymer resin, wherein the two or more kinds of hollow inorganic particles having different particle sizes include one kind of hollow inorganic particles having a particle size of 35 nm to 61 nm and one kind of hollow inorganic particles having a particle size of 64 nm to 100 nm, and the anti-reflective film exhibits one or more peaks at a scattering vector (q max) of 0.128 nm -1 to 0.209 nm -1 in a graph showing a log value of a scattering intensity to a scattering vector defined in small-angle X-ray scattering, wherein a weight ratio of the hollow inorganic particles having a particle size of 35 nm to 61 nm and the hollow inorganic particles having a particle size of 64 nm to 100 nm is 7:3 to 3:7.