mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a flight of an aircraft, the method comprising: monitoring for conditions in an environment around the aircraft during the flight of the aircraft on a route having a number of target points; responsive to detecting a condition requiring a change to the route of the aircraft, identifying current resources for the aircraft; characterised by: determining whether changing the route reduces the number of target points that can be reached based on the current resources for the aircraft; and responsive to a determination that changing the route reduces the number of target points (812, 813) that can be reached, changing the route to include a portion of the number of target points using the condition and a policy. monitoring for conditions in an environment around the aircraft during the flight of the aircraft on a route having a number of target points; responsive to detecting a condition requiring a change to the route of the aircraft, identifying current resources for the aircraft; characterised by: determining whether changing the route reduces the number of target points that can be reached based on the current resources for the aircraft; and responsive to a determination that changing the route reduces the number of target points (812, 813) that can be reached, changing the route to include a portion of the number of target points using the condition and a policy. determining whether changing the route reduces the number of target points that can be reached based on the current resources for the aircraft; and responsive to a determination that changing the route reduces the number of target points (812, 813) that can be reached, changing the route to include a portion of the number of target points using the condition and a policy.
A system for non-invasive medical imaging, the system comprising: a plurality of prismatoids (410, 420, 430); at least one detector; and a scintillator array, wherein the plurality of prismatoids (410, 420, 430) are configured to redirect light between adjacent scintillators of scintillator array, wherein the at least one detector is provided on an end of the scintillator array opposite the plurality of prismatoids (410, 420, 430); wherein the plurality of prismatoids (410, 420, 430) comprises a plurality of first prismatoids, a plurality of second prismatoids and a plurality of corner prismatoids, the second prismatoids and the corner prismatoids surrounding the plurality of first prismatoids, and wherein the prismatoids of the plurality of first and second prismatoids (410, 420) are substantially shaped as at least one of at least one prism, at least one antiprism, at least one frustum, at least one triangle, at least one cupola, at least one parallelepiped, at least one wedge, at least one pyramid, at least one truncated pyramid, and at least one portion of a sphere, characterized in that: at least one corner prismatoid from the plurality of corner prismatoids includes a plurality of substantially cuboid shapes: - upon which a plurality of substantially triangular shapes are respectively affixed, or - the plurality of substantially cuboid shapes are monolithically formed on substantially triangular shapes. a plurality of prismatoids (410, 420, 430); at least one detector; and a scintillator array, wherein the plurality of prismatoids (410, 420, 430) are configured to redirect light between adjacent scintillators of scintillator array, wherein the at least one detector is provided on an end of the scintillator array opposite the plurality of prismatoids (410, 420, 430); wherein the plurality of prismatoids (410, 420, 430) comprises a plurality of first prismatoids, a plurality of second prismatoids and a plurality of corner prismatoids, the second prismatoids and the corner prismatoids surrounding the plurality of first prismatoids, and wherein the prismatoids of the plurality of first and second prismatoids (410, 420) are substantially shaped as at least one of at least one prism, at least one antiprism, at least one frustum, at least one triangle, at least one cupola, at least one parallelepiped, at least one wedge, at least one pyramid, at least one truncated pyramid, and at least one portion of a sphere, characterized in that: at least one corner prismatoid from the plurality of corner prismatoids includes a plurality of substantially cuboid shapes: - upon which a plurality of substantially triangular shapes are respectively affixed, or - the plurality of substantially cuboid shapes are monolithically formed on substantially triangular shapes. - upon which a plurality of substantially triangular shapes are respectively affixed, or - the plurality of substantially cuboid shapes are monolithically formed on substantially triangular shapes.
A sensor comprising: a transparent elastic body; a first polarizing film provided on a surface of the transparent elastic body and configured to come into contact with an object; a light source provided under the transparent elastic body and configured to emit a light toward the object; a first detector provided under the transparent elastic body and configured to detect a light, passing through the first polarizing film after being emitted by the light source and scattered or reflected from the object, to measure a photoplethysmography signal; and a second detector provided under the transparent elastic body and configured to detect a light, not passing through the first polarizing film, to measure a contact pressure signal. a transparent elastic body; a first polarizing film provided on a surface of the transparent elastic body and configured to come into contact with an object; a light source provided under the transparent elastic body and configured to emit a light toward the object; a first detector provided under the transparent elastic body and configured to detect a light, passing through the first polarizing film after being emitted by the light source and scattered or reflected from the object, to measure a photoplethysmography signal; and a second detector provided under the transparent elastic body and configured to detect a light, not passing through the first polarizing film, to measure a contact pressure signal.
A wireless communication method, comprising: determining, by a user equipment, an identifier offset of a hybrid automatic repeat request HARQ, process; determining, by the user equipment based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + t / T MOD m wherein HARQ_PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling,SPS, interval, m corresponds to a number of SPS HARQ processes, └ ┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = n_SFN × M + n_Sub, wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame and n_Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process; and performing, by the user equipment, the HARQ process according to the identifier of the HARQ process. determining, by a user equipment, an identifier offset of a hybrid automatic repeat request HARQ, process; determining, by the user equipment based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + t / T MOD m wherein HARQ_PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling,SPS, interval, m corresponds to a number of SPS HARQ processes, └ ┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = n_SFN × M + n_Sub, wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame and n_Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process; and performing, by the user equipment, the HARQ process according to the identifier of the HARQ process.
Sub-assembly, in particular for a vehicle heating, ventilation and/or air-conditioning system, comprising a carrier, a body, a component which is movably mounted on the carrier and which transmits a movement during operation of the sub-assembly and a securing unit which is joined to the carrier and which is movable relative to the carrier, in particular in a resilient manner, such that the securing unit is able to adopt a retaining position in which the securing unit prevents a movement of the component relative to the carrier and a released position in which a movement of the component relative to the carrier is released, wherein the carrier is configured together with the component such that it may be coupled to the body, and wherein the securing unit is in the retaining position when the body and the carrier are still uncoupled and the securing unit is in the released position when the body and the carrier are attached to one another in their final position, characterized in that the securing unit comprises a blocking element and the component comprises a counter-blocking element or vice-versa, wherein the blocking element and the counter-blocking element in the retaining position of the securing unit engage in one another and in the released position of the securing unit are released from one another, and wherein the blocking element is a projection and the counter-blocking element is a recess, wherein the projection in the retaining position of the securing unit engages in the recess and in the released position is fully removed from the recess. a carrier, a body, a component which is movably mounted on the carrier and which transmits a movement during operation of the sub-assembly and a securing unit which is joined to the carrier and which is movable relative to the carrier, in particular in a resilient manner, such that the securing unit is able to adopt a retaining position in which the securing unit prevents a movement of the component relative to the carrier and a released position in which a movement of the component relative to the carrier is released, wherein the carrier is configured together with the component such that it may be coupled to the body, and wherein the securing unit is in the retaining position when the body and the carrier are still uncoupled and the securing unit is in the released position when the body and the carrier are attached to one another in their final position, characterized in that the securing unit comprises a blocking element and the component comprises a counter-blocking element or vice-versa, wherein the blocking element and the counter-blocking element in the retaining position of the securing unit engage in one another and in the released position of the securing unit are released from one another, and wherein the blocking element is a projection and the counter-blocking element is a recess, wherein the projection in the retaining position of the securing unit engages in the recess and in the released position is fully removed from the recess.
Method for operating a combustion plant, in which fuel containing carbon is burned in an oxygen flue gas atmosphere, - in which the oxygen for combustion is produced from air by means of a membrane unit, comprising a high temperature membrane, - in which the flue gas (G k) is cooled, - in which a part of the flue gas is recirculated, - in which the cooled, recirculated flue gas (H k) is then heated again to ensure the necessary operating temperature of the membrane, - in which the heating energy is obtained through a heat exchange with flue gas at the corresponding temperature level of the combustion process, - and in which the flue gas heated and recirculated in this way is supplied as purging gas (H h) for the membrane unit, characterised in that - the membrane unit is supplied with heated air at a maximum of 2 bars and - the air is heated to the operating temperature of the membrane before entry into the membrane unit through a heat exchange with flue gas at the corresponding temperature level of the combustion process in or outside the combustion chamber. - in which the oxygen for combustion is produced from air by means of a membrane unit, comprising a high temperature membrane, - in which the flue gas (G k) is cooled, - in which a part of the flue gas is recirculated, - in which the cooled, recirculated flue gas (H k) is then heated again to ensure the necessary operating temperature of the membrane, - in which the heating energy is obtained through a heat exchange with flue gas at the corresponding temperature level of the combustion process, - and in which the flue gas heated and recirculated in this way is supplied as purging gas (H h) for the membrane unit, - the membrane unit is supplied with heated air at a maximum of 2 bars and - the air is heated to the operating temperature of the membrane before entry into the membrane unit through a heat exchange with flue gas at the corresponding temperature level of the combustion process in or outside the combustion chamber.
Process for manufacturing a single-piece bladed disk (blisk), comprising: - a step in which an abrasive water jet is used to cut a block of material, so as to create blade preforms extending radially outwards from a disk, while keeping material to form the connecting means between at least two directly consecutive blade preforms, said connecting means being at a radial spacing from said disk; then - a step to remove said connecting means; then - a step to mill blade preforms. - a step in which an abrasive water jet is used to cut a block of material, so as to create blade preforms extending radially outwards from a disk, while keeping material to form the connecting means between at least two directly consecutive blade preforms, said connecting means being at a radial spacing from said disk; then - a step to remove said connecting means; then - a step to mill blade preforms.
An air-conditioning device for a motor vehicle, comprising a refrigerant circuit with - a compressor for compressing a refrigerant, - a condenser or gas cooler which is connected downstream of the compressor on the refrigerant side for liquefying or cooling the compressed refrigerant and - an evaporator which is flowed through by an air flow to be cooled, is connected downstream of the condenser or gas cooler on the refrigerant side and comprises a first evaporator section and a second evaporator section, wherein the second evaporator section is connected downstream of the first evaporator section both on the air side and on the refrigerant side, and wherein a first expansion member is arranged upstream of the first evaporator section on the refrigerant side and a second expansion member is arranged downstream of the first evaporator section and upstream of the second evaporator section, in each case for throttling the refrigerant flow in a regulatory manner, characterized in that the first expansion member is configured as a thermostatic expansion valve and the second expansion member is configured as a regulating valve. - a compressor for compressing a refrigerant, - a condenser or gas cooler which is connected downstream of the compressor on the refrigerant side for liquefying or cooling the compressed refrigerant and - an evaporator which is flowed through by an air flow to be cooled, is connected downstream of the condenser or gas cooler on the refrigerant side and comprises a first evaporator section and a second evaporator section, wherein the second evaporator section is connected downstream of the first evaporator section both on the air side and on the refrigerant side, and wherein a first expansion member is arranged upstream of the first evaporator section on the refrigerant side and a second expansion member is arranged downstream of the first evaporator section and upstream of the second evaporator section, in each case for throttling the refrigerant flow in a regulatory manner,
A method for separating a wafer comprising a growth substrate and a plurality of devices formed on the growth substrate and arranged in at least two rows separated by at least one street(s), the wafer comprising a front side on which the plurality of devices are formed and a back side comprising a surface of the growth substrate, the method comprising: scribing a first scribe line aligned with a first street from the at least one street(s) on the front side; scribing a second scribe line aligned with the first street on the back side, comprising forming a first modified region within the growth substrate; and scribing a third scribe line aligned with the first street on the back side, wherein scribing the third scribe line comprises forming a second modified region within the growth substrate; and the first modified region is at a different depth in the growth substrate than the second modified region. scribing a first scribe line aligned with a first street from the at least one street(s) on the front side; scribing a second scribe line aligned with the first street on the back side, comprising forming a first modified region within the growth substrate; and scribing a third scribe line aligned with the first street on the back side, wherein scribing the third scribe line comprises forming a second modified region within the growth substrate; and the first modified region is at a different depth in the growth substrate than the second modified region.
A vehicle body rear structure, comprising: plural frame members (12, 12) extending along a vehicle longitudinal direction; and shock absorbing members provided at positions corresponding to rear ends of the respective frame members, wherein the each shock absorbing member is formed such that plural corner portions (23a - 23f) provided at a rear end of the shock absorbing member are located at positions different from each other along the vehicle longitudinal direction, characterized in that each of the shock absorbing members is arranged such that a closed cross-section is formed by superimposing plural C-shaped members (30, 32) substantially in a C-shape in a side view on each other along a vehicle transverse direction, and that a width dimension, along a vehicle upper/lower direction, of a vertical wall of a C-shaped vehicle transverse inner member and a width dimension, along a vehicle upper/lower direction, of a vertical wall of a C-shaped vehicle transverse outer member are different from each other. plural frame members (12, 12) extending along a vehicle longitudinal direction; and shock absorbing members provided at positions corresponding to rear ends of the respective frame members, wherein the each shock absorbing member is formed such that plural corner portions (23a - 23f) provided at a rear end of the shock absorbing member are located at positions different from each other along the vehicle longitudinal direction, characterized in that each of the shock absorbing members is arranged such that a closed cross-section is formed by superimposing plural C-shaped members (30, 32) substantially in a C-shape in a side view on each other along a vehicle transverse direction, and that a width dimension, along a vehicle upper/lower direction, of a vertical wall of a C-shaped vehicle transverse inner member and a width dimension, along a vehicle upper/lower direction, of a vertical wall of a C-shaped vehicle transverse outer member are different from each other.
A liquid formulation of a rapamycin for coating an expandable medical device comprising 50 mg/ml of sirolimus and 2.5 mg/ml BHT combined in a solvent system of either (i) acetone, ethanol and water in a ratio of 50:40:10 by volume, or (ii) isopropanol/water in a ratio of 3.4:1 by volume, wherein, in use, the liquid formulation is coated on the expandable medical device and delivered to a treatment site.
Vapor extraction device for a kitchen appliance with a hob, wherein the vapor extraction device has at least one upper extraction opening extending along an edge lap of the hob, wherein the at least one extraction opening is designed narrow and elongated, so that the side of the at least one extraction opening extending along the edge lap of the hob is longer than the width of the preferably rectangular extraction opening extending away from the edge lap, with an extraction shaft adjoining this extraction opening and an extraction fan having a housing, by which vapor is extracted downwards from the hob through the extraction shaft, wherein the extraction shaft and the housing of the extraction fan lie with their wider sides directly adjacent to one another, so that the extraction shaft is guided along the housing of the extraction fan to a central transverse passage opening in an intermediate wall between the housing of the extraction fan and the extraction shaft, and thereby are each dimensioned with a narrow elongate cross-section which is adapted to the shape of the upper extraction opening, so that the cross-section of the extraction shaft essentially corresponds to the cross-section of the upper extraction opening, wherein the extraction shaft and the housing of the extraction fan are connected by the passage opening, characterized in that in that the extraction opening approximately aligns with an outer side of the housing of the extraction fan and an extraction shaft extends in Z-shape starting from the extraction opening above the housing transversely and consequently correspondingly downwards.
A method of making a medicinal inhalation device or a component of a medicinal inhalation device, said method comprising a step of: applying to at least a portion of a surface of the device or the component, respectively, a composition comprising a monofunctional polyfluoropolyether silane and a non-fluorinated cross-linking agent, wherein the monofunctional polyfluoropolyether silane is a monovalent polyfluoropolyether segment functionalized with one or more functional silane groups.