mhurhangee/ep-ind-claims huggingface dataset:
A user equipment operable to provide conditional HARQ-ACK states mapping for carrier aggregation, having computer circuitry configured to: receive a PDSCH transmission in a subframe; determine when condition 1 exists, wherein the condition 1 occurs when the subframe is transmitted without a corresponding a PDCCH for a HARQ bundling window; generate HARQ-ACK states for the condition 1 for the HARQ bundling window with DTX padding when a secondary HARQ bundling window size for a secondary cell, SCell, differs from a primary HARQ bundling window size for a primary cell, PCell; and generate HARQ-ACK states for a condition 2 for the HARQ bundling window with DTX padding including a DTX padding exception when the secondary HARQ bundling window size differs from the primary HARQ bundling window size, wherein the condition 2 includes conditions not covered by the condition 1, and the DTX padding exception generates a unique HARQ-ACK state for each padded HARQ-ACK state. receive a PDSCH transmission in a subframe; determine when condition 1 exists, wherein the condition 1 occurs when the subframe is transmitted without a corresponding a PDCCH for a HARQ bundling window; generate HARQ-ACK states for the condition 1 for the HARQ bundling window with DTX padding when a secondary HARQ bundling window size for a secondary cell, SCell, differs from a primary HARQ bundling window size for a primary cell, PCell; and generate HARQ-ACK states for a condition 2 for the HARQ bundling window with DTX padding including a DTX padding exception when the secondary HARQ bundling window size differs from the primary HARQ bundling window size, wherein the condition 2 includes conditions not covered by the condition 1, and the DTX padding exception generates a unique HARQ-ACK state for each padded HARQ-ACK state.
An eye tracking device (10a, 10b, 10c) comprising: an optical system including a capturing unit (C, C1, C2) configured to capture a first image of an eye of a user with a first focal length and characterised in that the capturing unit is further configured to capture a second image of the eye of the user with a second focal length different from the first focal length; and a processing unit configured to determine a gaze direction of the user based on the first image and the second image. an optical system including a capturing unit (C, C1, C2) configured to capture a first image of an eye of a user with a first focal length and characterised in that the capturing unit is further configured to capture a second image of the eye of the user with a second focal length different from the first focal length; and a processing unit configured to determine a gaze direction of the user based on the first image and the second image.
A method for minimizing damage to at least a portion of solid materials during dislodging and extraction of the solid materials from reactor tubes of a shell-and-tube reactor, wherein at least a portion of the solid materials remain structurally suitable for re-use after dislodging and extraction, wherein each reactor tube has an exposed end, said method comprising: a) axially aligning a hollow rod, having a tip, with a corresponding reactor tube, and positioning the hollow rod such that the tip is proximate to the exposed end of the corresponding reactor tube; b) rotating the hollow rod; c) axially inserting the rotating hollow rod into the exposed end of the corresponding reactor tube so that the tip thereof is in physical contact with at least a portion of the solid materials; d) dislodging at least a portion of the solid materials by applying a controlled axially-directed force to the rotating hollow rod and controllably pressing the tip of the rotating hollow rod against the solid materials, minimizing damage to at least a portion of the solid materials during dislodging, such that at least a portion of the solid materials remains structurally suitable for re-use after dislodging, wherein said dislodging step comprises monitoring and adjusting said rotating and said axially-directed force to minimize damage to at least a portion of the solid materials and ensure their structural suitability for re-use; and e) extracting at least a portion of the dislodged solid material from the corresponding reactor tube by aspirating the dislodged solid materials, in a flowing fluid stream, through the hollow rod. a) axially aligning a hollow rod, having a tip, with a corresponding reactor tube, and positioning the hollow rod such that the tip is proximate to the exposed end of the corresponding reactor tube; b) rotating the hollow rod; c) axially inserting the rotating hollow rod into the exposed end of the corresponding reactor tube so that the tip thereof is in physical contact with at least a portion of the solid materials; d) dislodging at least a portion of the solid materials by applying a controlled axially-directed force to the rotating hollow rod and controllably pressing the tip of the rotating hollow rod against the solid materials, minimizing damage to at least a portion of the solid materials during dislodging, such that at least a portion of the solid materials remains structurally suitable for re-use after dislodging, wherein said dislodging step comprises monitoring and adjusting said rotating and said axially-directed force to minimize damage to at least a portion of the solid materials and ensure their structural suitability for re-use; and e) extracting at least a portion of the dislodged solid material from the corresponding reactor tube by aspirating the dislodged solid materials, in a flowing fluid stream, through the hollow rod.
A product suction device for grasping a product, using an underpressure, comprising: an suction channel, which forms a suction cavity at an end thereof; a suction cup connected to the suction channel at the suction cavity, which suction cup comprises a suction cup cavity and a suction opening provided at a free side of the suction cup; wherein the product suction device further comprises a filter element provided on the inner side of the suction cup, over the suction cavity, at the end of the suction channel, which filter element has a porous filter wall suitable for realising a suction effect in the suction cup cavity in use by creating an underpressure in the suction channel, characterised in that the product suction device further comprises a medium inlet, and a medium supply system (17, 14) which connects the medium inlet to the suction cavity near the end of the suction channel and the filter element. an suction channel, which forms a suction cavity at an end thereof; a suction cup connected to the suction channel at the suction cavity, which suction cup comprises a suction cup cavity and a suction opening provided at a free side of the suction cup; wherein the product suction device further comprises a filter element provided on the inner side of the suction cup, over the suction cavity, at the end of the suction channel, which filter element has a porous filter wall suitable for realising a suction effect in the suction cup cavity in use by creating an underpressure in the suction channel, characterised in that the product suction device further comprises a medium inlet, and a medium supply system (17, 14) which connects the medium inlet to the suction cavity near the end of the suction channel and the filter element.
A heat shield component comprising: a substrate; and a ceramic porous layer arranged on the substrate, the ceramic porous layer including a base body including ceramic, and pores included in the base body, wherein inner walls of the pores are covered with thermoplastic resin, and a porosity of the ceramic porous layer is in a range of 40% to 70%. a substrate; and a ceramic porous layer arranged on the substrate, the ceramic porous layer including a base body including ceramic, and pores included in the base body, wherein inner walls of the pores are covered with thermoplastic resin, and a porosity of the ceramic porous layer is in a range of 40% to 70%.
A rotor for a rotating electrical machine having a number n of poles pairs ( p) that define corresponding direct pole axis (D-axis) and quadrature axis (Q-axis), and comprising a rotor core having a plurality of magnetically conductive laminations (10; 100) stacked in a rotor axial direction z, said magnetically conductive laminations (10; 100) comprising cut-out portions (11, 12, 13, 14; 101, 102) forming a plurality of flux barriers extending continuously with respect to said Q axis from a first rim portion (21; 201) to a second rim portion (22; 202) of said magnetically conductive laminations (10; 100) radially alternated by flux paths, said plurality of flux barriers forming a corresponding plurality of cavities (31, 32, 33, 34; 131, 132, 133) extending in the rotor core along said axial direction z, at least some of said plurality of cavities (31, 32, 33, 34; 131, 132, 133) being at least partially filled with a magnetically non-conductive material, characterized in that said magnetically conductive laminations further comprise a plurality of channels (41, 42, 43, 44; 141, 142, 143) spaced circumferentially and positioned along the axial direction z, each of said channels (41, 42, 43, 44; 141, 142, 143) transversally connecting two adjacent cavities of said plurality of cavities (31, 32, 33, 34; 131, 132, 133) and putting in communication said two adjacent cavities at a respective discrete point along and around said axial direction z, at least some of said channels (41, 42, 43, 44; 141, 142, 143) being at least partially filled with a magnetically non-conductive material to form a cage structure of magnetically non-conductive material.
An enantiomerically enriched (enantioenriched) mixture of BDDE stereisomers, wherein one of the following enantiomers of BDDE is present in a percentage share of at least 50%: and
A system for administering a medicament, comprising: a plurality of capsules, each comprising: a reservoir containing a medicament, and an outlet through which the medicament is released from the reservoir; and an external device comprising a receptacle configured to store the capsules and adapted to dispense the capsules to a user in accordance with a schedule, an access opening through which the user accesses fewer than all of the plurality of capsules, and a capsule activator for activating individual of the capsules, the capsule activator activating the capsules prior to the capsules being placed at the access opening or while the capsules are at the access opening. a plurality of capsules, each comprising: a reservoir containing a medicament, and an outlet through which the medicament is released from the reservoir; a reservoir containing a medicament, and an outlet through which the medicament is released from the reservoir; and an external device comprising a receptacle configured to store the capsules and adapted to dispense the capsules to a user in accordance with a schedule, an access opening through which the user accesses fewer than all of the plurality of capsules, and a capsule activator for activating individual of the capsules, the capsule activator activating the capsules prior to the capsules being placed at the access opening or while the capsules are at the access opening.
Elevator system comprising: at least one elevator car comprising at least one elevator car entrance and configured for traveling along a hoistway between a plurality of landings; a plurality of landing doors located at the landings and providing access to the hoistway from the landings; a plurality of landing door switches, wherein each landing door switch is configured for monitoring the open/closed state of an associated landing door, in particular of at least one associated landing door panel; characterized in that the elevator system further comprises: at least one landing door sensor, wherein each landing door sensor is attached to the at least one elevator car and configured for monitoring the open/closed state of a landing door panel currently located opposite to the landing door sensor. at least one elevator car comprising at least one elevator car entrance and configured for traveling along a hoistway between a plurality of landings; a plurality of landing doors located at the landings and providing access to the hoistway from the landings; a plurality of landing door switches, wherein each landing door switch is configured for monitoring the open/closed state of an associated landing door, in particular of at least one associated landing door panel; characterized in that the elevator system further comprises: at least one landing door sensor, wherein each landing door sensor is attached to the at least one elevator car and configured for monitoring the open/closed state of a landing door panel currently located opposite to the landing door sensor.
A culture apparatus comprising an outer case, an inner case arranged inside the outer case, a plurality of shelves on which cultures are to be placed, the shelves being arranged in a vertical direction inside the inner case, and a door configured to open and close an opening formed in front faces of the outer case and the inner case, the culture apparatus being characterized in that each of left and right side plates of the inner case has shelf rests, one of the shelf rests formed on the left side plate corresponding one of the shelf rests formed on the right side plate constitute a pair of shelf rests, on which side ends of a bottom surface of the shelf are to be placed, and a stopper which limits movement in a vertical direction of a shelf placed on one of the plural pairs of shelf rests is provided to each of the shelf rests, and in a state where at least one of the plurality of shelves is placed on one of the plural pair of shelf rests, an end portion of the at least one of the plurality of shelves is bent along a shape of the stopper provided to an immediately upper pair of shelf rests.
A data processing apparatus comprising: a processing unit configured to perform modulation processing on a physical layer frame including a preamble, which includes a modulation parameter, and one or more subframes, which include data, wherein any modulation parameter can be set for each of the subframes, and Tu i and Dx i have a relationship of: Tu i / Dx i ≥ Tu i + 1 / Dx i + 1 so that the one or more subframes are disposed in a descending order of Tu i /Dx i within the physical layer frame wherein an effective symbol length indicating a length of an effective symbol is Tu i and an interval between pilot signals in a frequency direction is Dx i in an i-th subframe, wherein i is an integer equal to or greater than 0. a processing unit configured to perform modulation processing on a physical layer frame including a preamble, which includes a modulation parameter, and one or more subframes, which include data, wherein any modulation parameter can be set for each of the subframes, and Tu i and Dx i have a relationship of: Tu i / Dx i ≥ Tu i + 1 / Dx i + 1 so that the one or more subframes are disposed in a descending order of Tu i /Dx i within the physical layer frame wherein an effective symbol length indicating a length of an effective symbol is Tu i and an interval between pilot signals in a frequency direction is Dx i in an i-th subframe, wherein i is an integer equal to or greater than 0.
Multilayer device - having a body, in which at least one first internal electrode and at least one second internal electrode are arranged, - wherein said internal electrodes (1, 2) have an overlap region, - having two first side faces (51, 52) having mutually parallel orientation and two second side faces (53, 54) having mutually parallel orientation of the body, and - having a first external electrode and a second external electrode on the first side faces (51, 52), wherein - each first internal electrode has a region of reduced width that faces the first external electrode and is connected thereto, and each second internal electrode has a region of reduced width that faces the second external electrode and is connected thereto, and - each of the first and second internal electrodes (1, 2) extends at least up to one of the second side faces (53, 54) of the body and an outer edge of the internal electrode (1, 2) is covered there by a passivation layer, - wherein the first and second internal electrodes (1, 2) have in each case a cutout in a corner region of the body for forming the region of reduced width. - having a body, in which at least one first internal electrode and at least one second internal electrode are arranged, - wherein said internal electrodes (1, 2) have an overlap region, - having two first side faces (51, 52) having mutually parallel orientation and two second side faces (53, 54) having mutually parallel orientation of the body, and - having a first external electrode and a second external electrode on the first side faces (51, 52), wherein - each first internal electrode has a region of reduced width that faces the first external electrode and is connected thereto, and each second internal electrode has a region of reduced width that faces the second external electrode and is connected thereto, and - each of the first and second internal electrodes (1, 2) extends at least up to one of the second side faces (53, 54) of the body and an outer edge of the internal electrode (1, 2) is covered there by a passivation layer, - wherein the first and second internal electrodes (1, 2) have in each case a cutout in a corner region of the body for forming the region of reduced width.
A solar powered aircraft, comprising: a substrate (150; 156) having a curvature to form a lift surface; a plurality of solar cells carried by, bonded to, and impressed into the substrate; and electrical connections between the solar cells carried by the substrate, wherein the electrical connections link the solar cells together to power the solar powered aircraft while in flight, wherein the solar cells are disposed, at least partially, within recesses impressed into the substrate and wherein the substrate comprises a multi-layer substrate and wherein the solar cells are impressed into at least one layer of the multi-layer substrate, the substrate including: first and second fabric layers (151a, 151b) coated in adhesive; and a center core layer disposed between and adhered to the first and second fabric layers, wherein the solar cells are bonded along backsides of the solar cells to bottom surfaces of the recesses and along side edges of the solar cells to side walls of the recesses with one or more adhesives to form an intimately integrated assembly. a substrate (150; 156) having a curvature to form a lift surface; a plurality of solar cells carried by, bonded to, and impressed into the substrate; and electrical connections between the solar cells carried by the substrate, wherein the electrical connections link the solar cells together to power the solar powered aircraft while in flight, wherein the solar cells are disposed, at least partially, within recesses impressed into the substrate and wherein the substrate comprises a multi-layer substrate and wherein the solar cells are impressed into at least one layer of the multi-layer substrate, the substrate including: first and second fabric layers (151a, 151b) coated in adhesive; and a center core layer disposed between and adhered to the first and second fabric layers, first and second fabric layers (151a, 151b) coated in adhesive; and a center core layer disposed between and adhered to the first and second fabric layers, wherein the solar cells are bonded along backsides of the solar cells to bottom surfaces of the recesses and along side edges of the solar cells to side walls of the recesses with one or more adhesives to form an intimately integrated assembly.
System for providing a sample in a measuring apparatus, comprising a sample holder, a control unit and a gripping apparatus, wherein the sample holder is intended for use in a reservoir filled with a cooling liquid and comprises a first sample position, wherein the cooling liquid is liquid nitrogen, characterized in that the first sample position comprises a permanent electromagnet for holding a magnetic or magnetizable sample with a holding force, wherein the permanent electromagnet comprises a permanent magnet and a coil, wherein the gripping apparatus comprises a sample gripper with a magnet in order to lift a sample held in the first sample position of the sample holder, wherein the control unit is connected to the coil of the permanent electromagnet of the first sample position in such a manner that the control unit can control or regulate the current through the coil in order to change the holding force of the permanent electromagnet, and wherein the control unit is configured to control or regulate the current through the coil of the permanent electromagnet of the first sample position in an extraction mode in such a manner that the holding force generated by the permanent electromagnet is reduced to such an extent that a sample can be lifted from the first sample position using the sample gripper, and/or to control or regulate the current through the coil of the permanent electromagnet of the first sample position in a holding mode in such a manner that the holding force generated by the permanent electromagnet is increased to such an extent that a sample cannot be lifted from the first sample position using the sample gripper.
Gamma ray detection system comprising a computation system including a signal processing and control system, a detection module assembly including at least one detection module configured for detecting gamma ray emissions from a target zone, each detection module comprising at least one monolithic scintillator plate having a major surface oriented to generally face the target zone and lateral minor surfaces defining edges of the scintillator layer, and a plurality of photon detectors coupled to edges of said at least one monolithic scintillator plate and connected to the signal processing and control system, the at least one monolithic scintillator plate comprising a material having isotopes intrinsically emitting radiation causing intrinsic scintillation events having an intensity measurable by the photon detectors, characterized in that the gamma ray detection system comprises a calibration module configured to execute a spatial calibration procedure based on measurements of a plurality of said intrinsic scintillation events output by the photon detectors, and wherein the module is configured to execute the spatial calibration procedure for determining spatial positions of scintillating events in the monolithic scintillator plate as a function of the outputs of the plurality of photon detectors.