mhurhangee/ep-ind-claims huggingface dataset:
One or more computer-readable storage media, storing information to enable a computing device that resides in a physical environment to perform a process, the computing device comprising a processor, hardware components, and a kernel, which is part of an operating system executing on the computing device and controlling the processor and other resources of the computing device, the process comprising: receiving (130, 250) environment data about the current physical environment of the computing device, wherein the receiving the environment data comprises reading a physical sensor that senses an aspect of the physical environment, the sensing of the physical sensor comprises generating a signal that indicates a radiation, and the physical environment is an immediate vicinity of the computing device; evaluating (132, 254), by a first module running in kernel space, a set of rules that specify physical environmental conditions of the physical environment to determine from the environment data that the physical environment currently has a condition specified by a rule; and modifying (134, 256), by a second module running in kernel space, a behavior or functionality of the kernel in response to the determination that the physical environment has the specified condition, whereby the behavior or functionality of the kernel is modified in accordance with the physical environment, wherein modifying comprises when a level of radiation is detected, altering management routines of the kernel to make use of error correction codes to mitigate radiation induced bit reversals. receiving (130, 250) environment data about the current physical environment of the computing device, wherein the receiving the environment data comprises reading a physical sensor that senses an aspect of the physical environment, the sensing of the physical sensor comprises generating a signal that indicates a radiation, and the physical environment is an immediate vicinity of the computing device; evaluating (132, 254), by a first module running in kernel space, a set of rules that specify physical environmental conditions of the physical environment to determine from the environment data that the physical environment currently has a condition specified by a rule; and modifying (134, 256), by a second module running in kernel space, a behavior or functionality of the kernel in response to the determination that the physical environment has the specified condition, whereby the behavior or functionality of the kernel is modified in accordance with the physical environment, wherein modifying comprises when a level of radiation is detected, altering management routines of the kernel to make use of error correction codes to mitigate radiation induced bit reversals.
A beverage capsule for use in a beverage preparing machine, the beverage capsule comprising: a body having a side wall extending from an end wall to an opening to define an interior space; a plurality of air flow channels defined between ribs in an interior surface of said side wall of said body, said air flow channels extending at least partway between said opening and said end wall of said body; a filter disposed in said body to define an ingredients chamber and an extraction chamber; ingredients disposed in said ingredients chamber for preparing a consumable product; and a cover disposed over said opening for sealing said interior space; characterized in that said filter has an air flow permeability of at least 400 L/s.m2 and that a vent region is defined by a portion of a side wall of said filter that is available for venting and thus not sealed to said body between a top surface of said ingredients and a bottom surface of said cover, said vent region being adapted for venting gas through said filter between said ingredients chamber and said extraction chamber. a body having a side wall extending from an end wall to an opening to define an interior space; a plurality of air flow channels defined between ribs in an interior surface of said side wall of said body, said air flow channels extending at least partway between said opening and said end wall of said body; a filter disposed in said body to define an ingredients chamber and an extraction chamber; ingredients disposed in said ingredients chamber for preparing a consumable product; and a cover disposed over said opening for sealing said interior space; characterized in that said filter has an air flow permeability of at least 400 L/s.m2 and that a vent region is defined by a portion of a side wall of said filter that is available for venting and thus not sealed to said body between a top surface of said ingredients and a bottom surface of said cover, said vent region being adapted for venting gas through said filter between said ingredients chamber and said extraction chamber.
Method for calibrating a stereoscopic photography device having two cameras for capturing a right-hand image and a left-hand image, said device having a plurality of defects, each of these defects being able to be corrected by applying a transformation to at least one of the two captured images, said defects being hierarchized in at least two orders: • a step of estimating the correction parameters for the defects of a first given order; • a step of estimating the correction parameters for the defects of a second order higher than the first order; • a new step of estimating the correction parameters for the first-order defects, the estimation of the second-order parameters being used for a new estimation of the correction parameters for the first-order defects; characterised in that four orders are used for prioritizing four defects, consisting in: • a global translation offset of the image; • a horizontal and vertical trapezium deformation; • a rotation; • a zoom factor. • a step of estimating the correction parameters for the defects of a first given order; • a step of estimating the correction parameters for the defects of a second order higher than the first order; • a new step of estimating the correction parameters for the first-order defects, the estimation of the second-order parameters being used for a new estimation of the correction parameters for the first-order defects; characterised in that four orders are used for prioritizing four defects, consisting in: • a global translation offset of the image; • a horizontal and vertical trapezium deformation; • a rotation; • a zoom factor.
A method of assisting operation of an aircraft, the method comprising: identifying a first triggering event; identifying a threshold monitoring period associated with the triggering event, the threshold monitoring period having a duration; identifying a second triggering event different from the first triggering event; in response to the identification of the second triggering event, dynamically adjusting the duration of the threshold monitoring period by a scaling factor to thereby obtain a reduced threshold monitoring period, the scaling factor being associated with an event type associated with the second triggering event, wherein the scaling factor varies depending on the event type; monitoring one or more components for user input within the reduced threshold monitoring period associated with the triggering event; and automatically initiating activation of an autoland functionality associated with the aircraft in an absence of user input within the reduced threshold monitoring period, wherein a flight guidance system of the aircraft autonomously configures the aircraft for landing when the autoland functionality is activated. identifying a first triggering event; identifying a threshold monitoring period associated with the triggering event, the threshold monitoring period having a duration; identifying a second triggering event different from the first triggering event; in response to the identification of the second triggering event, dynamically adjusting the duration of the threshold monitoring period by a scaling factor to thereby obtain a reduced threshold monitoring period, the scaling factor being associated with an event type associated with the second triggering event, wherein the scaling factor varies depending on the event type; monitoring one or more components for user input within the reduced threshold monitoring period associated with the triggering event; and automatically initiating activation of an autoland functionality associated with the aircraft in an absence of user input within the reduced threshold monitoring period, wherein a flight guidance system of the aircraft autonomously configures the aircraft for landing when the autoland functionality is activated.
A cleaning liquid composition comprising: a transition metal compound represented by Chemical Formula 1 below; and a hydrocarbon-based solvent: in Chemical Formula 1, M is ruthenium or osmium, R 1 and R 2 are each independently a hydrogen atom or a substituent represented by Chemical Formula 2 below, at least one of R 1 or R 2 is a substituent represented by Chemical Formula 2 below, X 1 and X 2 are each independently a halogen atom, and Ph is a phenyl group, in Chemical Formula 2, R 3 and R 4 are each independently a C1-C10 alkyl group; or R 3 and R 4 are linked with each other to form a saturated or unsaturated 5-membered ring. a transition metal compound represented by Chemical Formula 1 below; and a hydrocarbon-based solvent: in Chemical Formula 1, M is ruthenium or osmium, R 1 and R 2 are each independently a hydrogen atom or a substituent represented by Chemical Formula 2 below, at least one of R 1 or R 2 is a substituent represented by Chemical Formula 2 below, X 1 and X 2 are each independently a halogen atom, and Ph is a phenyl group, in Chemical Formula 2, R 3 and R 4 are each independently a C1-C10 alkyl group; or R 3 and R 4 are linked with each other to form a saturated or unsaturated 5-membered ring.
A measurement reporting method, comprising: configuring, by a first network device, first information for a user equipment wherein the first information comprises a first threshold value and a second threshold value, wherein the first threshold is used to trigger a first type of measurement event, and the second threshold is used to trigger a second type of measurement event; wherein the first type of measurement event is considered for mobility of the user equipment on a cell level and is based on a comparison of a cell measurement result with the first threshold and the second type of measurement event is considered for mobility of the user equipment on a beam level and is based on a comparison of a beam measurement result with the second threshold; wherein the second threshold is used to trigger reporting the beam measurement result comprising the best N beams or the best N beam pairs, wherein N is an integer larger than or equal to 1; sending, by the first network device, the first information to the user equipment; receiving, by the first network device, the cell measurement result and/or the beam measurement result from the user equipment. configuring, by a first network device, first information for a user equipment wherein the first information comprises a first threshold value and a second threshold value, wherein the first threshold is used to trigger a first type of measurement event, and the second threshold is used to trigger a second type of measurement event; wherein the first type of measurement event is considered for mobility of the user equipment on a cell level and is based on a comparison of a cell measurement result with the first threshold and the second type of measurement event is considered for mobility of the user equipment on a beam level and is based on a comparison of a beam measurement result with the second threshold; wherein the second threshold is used to trigger reporting the beam measurement result comprising the best N beams or the best N beam pairs, wherein N is an integer larger than or equal to 1; sending, by the first network device, the first information to the user equipment; receiving, by the first network device, the cell measurement result and/or the beam measurement result from the user equipment.
A system for reinforcing a cavity defined by one or more walls of a structural member of a vehicle, the system comprising: a substantially rigid carrier configured to reside in the cavity such that a gap is defined between at least a portion of an exterior surface of the carrier and the wall of the structural member; an adhesive configured to be disposed in the gap, characterized in that the adhesive is disposed proximate to a pathway, the pathway is disposed in the carrier and provides an aperture between the exterior surface and an interior surface of the carrier, allowing the adhesive to flow through the carrier, and the carrier is configured such that the gap is less than approximately 6 mm when the carrier is positioned within the cavity. a substantially rigid carrier configured to reside in the cavity such that a gap is defined between at least a portion of an exterior surface of the carrier and the wall of the structural member; an adhesive configured to be disposed in the gap, characterized in that the adhesive is disposed proximate to a pathway, the pathway is disposed in the carrier and provides an aperture between the exterior surface and an interior surface of the carrier, allowing the adhesive to flow through the carrier, and the carrier is configured such that the gap is less than approximately 6 mm when the carrier is positioned within the cavity.
A bone graft comprising 20% to 95% by weight with respect to total weight of the bone graft, of Collagen Type I, and 20% to 95% by weight with respect to the total weight of the bone graft, of more than one minerals having different dissolution properties and/or sizes than one another, wherein the more than one minerals are chosen from calcium phosphate, carbonate apatite, and/or calcium carbonate and have two or more dissolution rates, wherein the more than one minerals include a first mineral having a first dissolution rate and a second mineral having a second dissolution rate, wherein the first dissolution rate is faster than the second dissolution rate and wherein the more than one minerals includes one or more of the following: beta-tricalcium phosphate having a size ranging from 75 nm to 500 μm, carbonate apatite having a size ranging from 75 nm to 500 μm, calcium carbonate having a size ranging from 75 nm to 500 μm.
A medical imaging device for imaging a patient during a medical imaging process, the medical imaging device comprising: a housing including: a bore extending in a lateral direction between a proximal end and a distal end, wherein the bore is configured to accommodate at least a portion of the patient extending in the lateral direction during the medical imaging process, wherein a cross-section of the bore has a circumference; and an imager configured to generate images of the patient as the patient extends in the lateral direction within the bore; a ventilation channel having an opening within the bore, wherein the opening extends around at least a portion of the bore circumference; and at least one lighting circuit, positioned within the ventilation channel, and configured to illuminate the bore, wherein the ventilation channel is configured to allow air to pass through the ventilation channel and over the at least one lighting circuit; wherein the at least one lighting circuit comprises one or more light emitting diodes mounted on a printed circuit board; and wherein at least one light emitting diode has a direction of light emission that is parallel to the plane of the printed circuit board. a housing including: a bore extending in a lateral direction between a proximal end and a distal end, wherein the bore is configured to accommodate at least a portion of the patient extending in the lateral direction during the medical imaging process, wherein a cross-section of the bore has a circumference; and an imager configured to generate images of the patient as the patient extends in the lateral direction within the bore; a bore extending in a lateral direction between a proximal end and a distal end, wherein the bore is configured to accommodate at least a portion of the patient extending in the lateral direction during the medical imaging process, wherein a cross-section of the bore has a circumference; and an imager configured to generate images of the patient as the patient extends in the lateral direction within the bore; a ventilation channel having an opening within the bore, wherein the opening extends around at least a portion of the bore circumference; and at least one lighting circuit, positioned within the ventilation channel, and configured to illuminate the bore, wherein the ventilation channel is configured to allow air to pass through the ventilation channel and over the at least one lighting circuit; wherein the at least one lighting circuit comprises one or more light emitting diodes mounted on a printed circuit board; and wherein at least one light emitting diode has a direction of light emission that is parallel to the plane of the printed circuit board.
A radiation imaging apparatus comprising: radiation imaging means for performing imaging of a radiation image in one frame by performing driving of a plurality of pixels to use signals stored in the plurality of pixels based on radiation irradiating the plurality of pixels arranged in a matrix; and imaging control means for controlling the imaging by controlling the driving based on a setting value, wherein the imaging control means causes the radiation imaging means to perform the imaging in a plurality of modes varying in the setting value, and wherein the imaging control means causes the radiation imaging means to perform standby driving of the plurality of pixels to reduce signals stored in the plurality of pixels during a period in which the plurality of pixels is not irradiated with radiation, the plurality of modes including a first mode in which the radiation imaging means performs first imaging using a first setting value and a second mode in which the radiation imaging means performs second imaging using a second setting value different from the first setting value after the first imaging, and the imaging control means causes the radiation imaging means to perform the standby driving using the setting value closer to the second setting value than to the first setting value in response to end of the first imaging in causing the radiation imaging means to perform the second imaging. radiation imaging means for performing imaging of a radiation image in one frame by performing driving of a plurality of pixels to use signals stored in the plurality of pixels based on radiation irradiating the plurality of pixels arranged in a matrix; and imaging control means for controlling the imaging by controlling the driving based on a setting value, wherein the imaging control means causes the radiation imaging means to perform the imaging in a plurality of modes varying in the setting value, and wherein the imaging control means causes the radiation imaging means to perform standby driving of the plurality of pixels to reduce signals stored in the plurality of pixels during a period in which the plurality of pixels is not irradiated with radiation, the plurality of modes including a first mode in which the radiation imaging means performs first imaging using a first setting value and a second mode in which the radiation imaging means performs second imaging using a second setting value different from the first setting value after the first imaging, and the imaging control means causes the radiation imaging means to perform the standby driving using the setting value closer to the second setting value than to the first setting value in response to end of the first imaging in causing the radiation imaging means to perform the second imaging.
A hybrid dynamic pressure gas thrust bearing, comprises two outer discs, an inner disc clamped between the two outer discs, and foil type elastic parts arranged between each outer disc and the inner disc; and the two end faces of the inner disc are respectively provided with regular groove-type patterns (21, 22), and the groove-type pattern in one end face is in mirror symmetry with the groove-type pattern in the other end face, characterised in that, groove-type patterns are also arranged in the outer circumferential face of the inner disc, and the shape of the groove-type pattern in the outer circumferential face is the same as the shape of the groove-type pattern (21, 22) in the left and right end faces, and axial contour lines of the groove-type patterns in the outer circumferential face and radial contour lines of the groove-type patterns (21, 22) in the left and right end faces are in one-to-one correspondence and are connected with each other.
A method of mapping cardiac activity, comprising: receiving an electrogram signal S(t) at a signal processor; and using the signal processor: transforming the electrogram signal S(t) into the wavelet domain, thereby computing a scalogram G(f, t); computing at least one energy function L(t) of the scalogram G(f, t), wherein the at least one energy function L(t) is of form L ( t) = ∑ G ( f,t); and computing at least one metric of the electrogram signal S(t) using the at least one energy function L(t), wherein computing at least one metric of the electrogram signal S(t) using the at least one energy function L(t) comprises computing a pulse wave L Pulse (t) having a pulse duration and one or more pulses according to an equation L Pulse t = { 1, if L t > 0 0, otherwise. receiving an electrogram signal S(t) at a signal processor; and using the signal processor: transforming the electrogram signal S(t) into the wavelet domain, thereby computing a scalogram G(f, t); computing at least one energy function L(t) of the scalogram G(f, t), wherein the at least one energy function L(t) is of form L ( t) = ∑ G ( f,t); and computing at least one metric of the electrogram signal S(t) using the at least one energy function L(t), wherein computing at least one metric of the electrogram signal S(t) using the at least one energy function L(t) comprises computing a pulse wave L Pulse (t) having a pulse duration and one or more pulses according to an equation L Pulse t = { 1, if L t > 0 0, otherwise. transforming the electrogram signal S(t) into the wavelet domain, thereby computing a scalogram G(f, t); computing at least one energy function L(t) of the scalogram G(f, t), wherein the at least one energy function L(t) is of form L ( t) = ∑ G ( f,t); and computing at least one metric of the electrogram signal S(t) using the at least one energy function L(t), wherein computing at least one metric of the electrogram signal S(t) using the at least one energy function L(t) comprises computing a pulse wave L Pulse (t) having a pulse duration and one or more pulses according to an equation L Pulse t = { 1, if L t > 0 0, otherwise.