mhurhangee/ep-ind-claims huggingface dataset:
A method for displaying 3-dimensional graphic data corresponding to an entire area and displaying a region around a mobile object in 3-dimensional graphics, the method comprising: predicting a candidate region for a position of the mobile object at a display time after a predetermined period of time using current position and motion information of the mobile object; loading 3-dimensional graphic data corresponding to the predicted candidate region into memory; and rendering and displaying data corresponding to a region around the position of the mobile object at the display time among the 3-dimensional graphic data loaded into the memory. predicting a candidate region for a position of the mobile object at a display time after a predetermined period of time using current position and motion information of the mobile object; loading 3-dimensional graphic data corresponding to the predicted candidate region into memory; and rendering and displaying data corresponding to a region around the position of the mobile object at the display time among the 3-dimensional graphic data loaded into the memory.
A switched inductor system, comprising: a switching regulator configured to receive an input signal and provide a voltage output, the switching regulator having at least one switch and at least one inductor; and a sensing circuit in parallel with the inductor, the sensing circuit including a first RC circuit configured to detect an alternating current component of the voltage output and characterised in that the sensing circuit further includes a second RC circuit configured to detect a direct current component of the voltage output. a switching regulator configured to receive an input signal and provide a voltage output, the switching regulator having at least one switch and at least one inductor; and a sensing circuit in parallel with the inductor, the sensing circuit including a first RC circuit configured to detect an alternating current component of the voltage output and characterised in that the sensing circuit further includes a second RC circuit configured to detect a direct current component of the voltage output.
A method of forming a memory device (100, 200), the method comprising: depositing a spin torque enhancing layer (112, 216) on a first electrical contact; depositing a free layer (110, 214) on the spin torque enhancing layer (112, 216), wherein the free layer (110, 214) is in contact with the spin torque enhancing layer (112, 216); depositing a spacer layer (108, 212) on the free layer (110, 214); depositing a pinned layer (106, 206, 210) on the spacer layer (108, 212); depositing an anti-ferromagnetic material, AFM, pinning layer (104, 204) on the pinned layer (106, 206, 210); and depositing a second electrical contact on the AFM pinning layer; wherein the spin torque enhancing layer (112, 216) is configured to substantially reduce a damping constant of the free layer (110, 214), characterised in that the spin torque enhancing layer (112, 216) comprises one of double perovskite (SR 2 FeMoO 6) and half-Heusler alloy (NiMnSb), the method being further characterized in that the free layer (110, 214) is deposited in advance of the pinned layer (106, 206, 210). depositing a spin torque enhancing layer (112, 216) on a first electrical contact; depositing a free layer (110, 214) on the spin torque enhancing layer (112, 216), wherein the free layer (110, 214) is in contact with the spin torque enhancing layer (112, 216); depositing a spacer layer (108, 212) on the free layer (110, 214); depositing a pinned layer (106, 206, 210) on the spacer layer (108, 212); depositing an anti-ferromagnetic material, AFM, pinning layer (104, 204) on the pinned layer (106, 206, 210); and depositing a second electrical contact on the AFM pinning layer; wherein the spin torque enhancing layer (112, 216) is configured to substantially reduce a damping constant of the free layer (110, 214), characterised in that the spin torque enhancing layer (112, 216) comprises one of double perovskite (SR 2 FeMoO 6) and half-Heusler alloy (NiMnSb), the method being further characterized in that the free layer (110, 214) is deposited in advance of the pinned layer (106, 206, 210).
A side airbag device provided in a vehicle seat having: a seat cushion forming a seat surface; a seat back forming a backrest; and a side supporting part that expands in a vehicle traveling direction, vehicle front, on a side part in a vehicle width direction, edge part, of the seat back; comprising: an airbag disposed inside the side supporting part, that restrains an occupant by expanding and deploying in the event of a vehicle collision; and an inflator that supplies expansion gas to the airbag; wherein: the airbag is stored in the side supporting part folded and in an extending condition such that the vertical direction is the longitudinal direction of the airbag, and a lower part of the airbag in the stored condition is folded a plurality of times in the longitudinal direction to form a lower compressed part, a bracket that secures the inflator to a seat frame side wall part inside the side supporting part is provided, wherein: the bracket includes a long plate part extending such that the vertical direction is the longitudinal direction of the bracket and the airbag is disposed along the long plate part in a folded stored condition, characterized in that the lower compressed part is formed by a lower part of the airbag protruding from a lower end of the long plate part below the long plate part. an airbag disposed inside the side supporting part, that restrains an occupant by expanding and deploying in the event of a vehicle collision; and an inflator that supplies expansion gas to the airbag; wherein: the airbag is stored in the side supporting part folded and in an extending condition such that the vertical direction is the longitudinal direction of the airbag, and a lower part of the airbag in the stored condition is folded a plurality of times in the longitudinal direction to form a lower compressed part, a bracket that secures the inflator to a seat frame side wall part inside the side supporting part is provided, wherein: the bracket includes a long plate part extending such that the vertical direction is the longitudinal direction of the bracket and the airbag is disposed along the long plate part in a folded stored condition, the airbag is stored in the side supporting part folded and in an extending condition such that the vertical direction is the longitudinal direction of the airbag, and a lower part of the airbag in the stored condition is folded a plurality of times in the longitudinal direction to form a lower compressed part, a bracket that secures the inflator to a seat frame side wall part inside the side supporting part is provided, wherein: the bracket includes a long plate part extending such that the vertical direction is the longitudinal direction of the bracket and the airbag is disposed along the long plate part in a folded stored condition,
A hybrid airbreathing rocket engine module comprising: an air intake arrangement configured to receive air; a heat exchanger arrangement configured to cool air from said air intake arrangement; a compressor configured to compress air from said heat exchanger arrangement; and one or more thrust chambers; wherein the air intake arrangement, the compressor, the heat exchanger arrangement, and the one or more thrust chambers are arranged generally along an axis of the engine module; wherein the engine module comprises a longitudinal axis, said axis has a first end, and a second end located downstream of the first end, wherein the air intake arrangement is arranged at the first end and the one or more thrust chambers are arranged at the second end; wherein the heat exchanger arrangement is arranged between the compressor and the one or more thrust chambers; wherein an inlet end of the compressor is located proximate to the heat exchanger arrangement and facing the heat exchanger arrangement, and an outlet end of the compressor is located proximate and facing the air inlet; and wherein there is provided a first air flow path from the air intake arrangement to the heat exchanger arrangement, and a second air flow path from the heat exchanger arrangement to the inlet end of the compressor, wherein the second air flow path is configured to allow air to flow in a substantially longitudinal direction which is opposite to the flow of air in the first air flow path. an air intake arrangement configured to receive air; a heat exchanger arrangement configured to cool air from said air intake arrangement; a compressor configured to compress air from said heat exchanger arrangement; and one or more thrust chambers; wherein the air intake arrangement, the compressor, the heat exchanger arrangement, and the one or more thrust chambers are arranged generally along an axis of the engine module; wherein the engine module comprises a longitudinal axis, said axis has a first end, and a second end located downstream of the first end, wherein the air intake arrangement is arranged at the first end and the one or more thrust chambers are arranged at the second end; wherein the heat exchanger arrangement is arranged between the compressor and the one or more thrust chambers; wherein an inlet end of the compressor is located proximate to the heat exchanger arrangement and facing the heat exchanger arrangement, and an outlet end of the compressor is located proximate and facing the air inlet; and wherein there is provided a first air flow path from the air intake arrangement to the heat exchanger arrangement, and a second air flow path from the heat exchanger arrangement to the inlet end of the compressor, wherein the second air flow path is configured to allow air to flow in a substantially longitudinal direction which is opposite to the flow of air in the first air flow path.
A method for diagnosing an ischemic state in a subject showing signs and symptoms of acute coronary syndrome but not fulfilling the diagnostic criteria for a myocardial infarction for having an amount of troponin T determined in a sample of the subject of lower than 0.1 ng/ml, comprising a) determining the amount of soluble fms-like tyrosine kinase-1 (sFLT-1) in a sample of said subject, b) comparing the amount of sFLT-1 determined in step a) to at least one reference amount, and c) diagnosing the ischemic state based on the information obtained in step b), wherein an amount of sFLT-1 below the reference amount is indicative for a non ischemic state not associated with or leading to a reversible cardiac dysfunction or a non reversible cardiac injury, and an amount of sFLT-1 equal to or larger than the reference amount is indicative for an ischemic state associated with or leading to a reversible cardiac dysfunction or a non reversible cardiac injury. a) determining the amount of soluble fms-like tyrosine kinase-1 (sFLT-1) in a sample of said subject, b) comparing the amount of sFLT-1 determined in step a) to at least one reference amount, and c) diagnosing the ischemic state based on the information obtained in step b), wherein an amount of sFLT-1 below the reference amount is indicative for a non ischemic state not associated with or leading to a reversible cardiac dysfunction or a non reversible cardiac injury, and an amount of sFLT-1 equal to or larger than the reference amount is indicative for an ischemic state associated with or leading to a reversible cardiac dysfunction or a non reversible cardiac injury.
A delivery device comprising an introducer sheath, the introducer sheath comprising: an adjustable tubular structure having a wall defining a lumen extending through the tubular structure, the tubular structure being movable between a first configuration and a second configuration, wherein in the first configuration the tubular structure has a first diameter and a first axial length, and in the second configuration the tubular structure has a larger second diameter and a shorter second axial length; and an actuator to move the tubular structure between the first and second configurations, the actuator comprising an inner member and an outer member coupled to one another to surround the tubular structure, the inner member disposed along an inner wall of the tubular structure, the outer member disposed along an outer wall of the tubular structure, the outer member and/or the inner member being movable relative to the tubular structure in a first direction and in a second direction, wherein in response to relative movement between the outer member and/or the inner member and the tubular structure in the first direction, the actuator allows the tubular structure to move to the first configuration, and in the second direction, the actuator allows the tubular structure to move to the second configuration. an adjustable tubular structure having a wall defining a lumen extending through the tubular structure, the tubular structure being movable between a first configuration and a second configuration, wherein in the first configuration the tubular structure has a first diameter and a first axial length, and in the second configuration the tubular structure has a larger second diameter and a shorter second axial length; and an actuator to move the tubular structure between the first and second configurations, the actuator comprising an inner member and an outer member coupled to one another to surround the tubular structure, the inner member disposed along an inner wall of the tubular structure, the outer member disposed along an outer wall of the tubular structure, the outer member and/or the inner member being movable relative to the tubular structure in a first direction and in a second direction, wherein in response to relative movement between the outer member and/or the inner member and the tubular structure in the first direction, the actuator allows the tubular structure to move to the first configuration, and in the second direction, the actuator allows the tubular structure to move to the second configuration.
A solar cell, characterized by comprising: a substrate having a front surface and a rear surface opposite to the front surface; wherein the substrate includes a base and an emitter; a first passivation layer, a second passivation layer and a third passivation layer sequentially formed on the front surface and in a direction away from the front surface; wherein the first passivation layer is configured to cover the emitter and includes a dielectric material; the second passivation layer includes a first silicon nitride Si m N n material, and a ratio of n/m is 0.5-1; the third passivation layer includes a silicon oxynitride SiO i N j material, and a ratio of j/i is 0.1∼0.6; wherein the dielectric material is an aluminum oxide Al x O y material, and a ratio of y/x is 1.1~1.5; and a tunneling oxide layer and a doped conductive layer sequentially formed on the rear surface and in a direction away from the rear surface, wherein the doped conductive layer and the substrate have a doping element of a same conductivity type; wherein the first passivation layer has a thickness of 3 nm~10 nm in a direction perpendicular to the front surface. a substrate having a front surface and a rear surface opposite to the front surface; wherein the substrate includes a base and an emitter; a first passivation layer, a second passivation layer and a third passivation layer sequentially formed on the front surface and in a direction away from the front surface; wherein the first passivation layer is configured to cover the emitter and includes a dielectric material; the second passivation layer includes a first silicon nitride Si m N n material, and a ratio of n/m is 0.5-1; the third passivation layer includes a silicon oxynitride SiO i N j material, and a ratio of j/i is 0.1∼0.6; wherein the dielectric material is an aluminum oxide Al x O y material, and a ratio of y/x is 1.1~1.5; and a tunneling oxide layer and a doped conductive layer sequentially formed on the rear surface and in a direction away from the rear surface, wherein the doped conductive layer and the substrate have a doping element of a same conductivity type; wherein the first passivation layer has a thickness of 3 nm~10 nm in a direction perpendicular to the front surface.
A method for manufacturing a worn article by producing individual worn articles from a continuous laminate, the continuous laminate including a first continuous web to be one torso portion of each of the individual worn articles, a second continuous web to be another torso portion of each of the individual worn articles, and a plurality of absorbent bodies provided so as to bridge in a width direction between the first continuous web and the second continuous web, the method comprising: a step of carrying the continuous laminate in a carrying direction extending along a direction in which the first continuous web and the second continuous web are continuous; a step of folding, in two, the continuous laminate so that first edges of the first and second webs (W1, W2) are laid on each other at portions in a central portion between adjacent absorbent bodies, with the first continuous web being shrunk in the width direction, whereby second edges, opposite to the first edges, of the continuous webs (W1, W2) are misaligned with each other in the width direction; a first attachment step, in which portions of respective first edges of the first continuous web and the second continuous web laid on each other are attached together intermittently in the carrying direction, the first edges extending in the carrying direction and being to be leg holes of each of the individual worn articles; a step of smoothing out, in the width direction, creases on the first continuous web after the first attachment step; and a second attachment step, in which the first continuous web and the second continuous web are attached together at least at portions of the second edges, with the creases being smoothed out. a step of carrying the continuous laminate in a carrying direction extending along a direction in which the first continuous web and the second continuous web are continuous; a step of folding, in two, the continuous laminate so that first edges of the first and second webs (W1, W2) are laid on each other at portions in a central portion between adjacent absorbent bodies, with the first continuous web being shrunk in the width direction, whereby second edges, opposite to the first edges, of the continuous webs (W1, W2) are misaligned with each other in the width direction; a first attachment step, in which portions of respective first edges of the first continuous web and the second continuous web laid on each other are attached together intermittently in the carrying direction, the first edges extending in the carrying direction and being to be leg holes of each of the individual worn articles; a step of smoothing out, in the width direction, creases on the first continuous web after the first attachment step; and a second attachment step, in which the first continuous web and the second continuous web are attached together at least at portions of the second edges, with the creases being smoothed out.
A method comprising: creating, by a trust domain resource manager, TDRM, executing on a processing device to manage a trust domain, TD, a TD and a randomly-generated encryption key corresponding to the TD, the randomly-generated encryption key identified by a guest key identifier, GKID, in scope of the TD and protected against software access from at least the TDRM; referencing, by the TDRM, a key ownership table, KOT, that includes a state of each host key identifier, HKID, of a list of HKIDs and is protected against software access to obtain at least one HKID corresponding to the randomly-generated encryption key and having the state of unassigned to any TD, the randomly-generated encryption key identified at level of the processing device as the HKID and the HKID utilized by an encryption engine of the processing device to encrypt a TD memory using an encryption key associated with the HKID, wherein the KOT is stored on the processing device; assigning the HKID to the TD by marking the HKID in the KOT as assigned such that the HKID has the state of assigned; and configuring the randomly-generated encryption key on the processing device by associating the randomly-generated encryption key with the HKID, wherein the assigned HKID and the configured randomly-generated encryption key allow the TD memory to be accessible by the TD, wherein configuring the randomly-generated encryption key on the processing device further comprises encrypting the TD memory by the encryption engine using the randomly-generated encryption key associated with the HKID. creating, by a trust domain resource manager, TDRM, executing on a processing device to manage a trust domain, TD, a TD and a randomly-generated encryption key corresponding to the TD, the randomly-generated encryption key identified by a guest key identifier, GKID, in scope of the TD and protected against software access from at least the TDRM; referencing, by the TDRM, a key ownership table, KOT, that includes a state of each host key identifier, HKID, of a list of HKIDs and is protected against software access to obtain at least one HKID corresponding to the randomly-generated encryption key and having the state of unassigned to any TD, the randomly-generated encryption key identified at level of the processing device as the HKID and the HKID utilized by an encryption engine of the processing device to encrypt a TD memory using an encryption key associated with the HKID, wherein the KOT is stored on the processing device; assigning the HKID to the TD by marking the HKID in the KOT as assigned such that the HKID has the state of assigned; and configuring the randomly-generated encryption key on the processing device by associating the randomly-generated encryption key with the HKID, wherein the assigned HKID and the configured randomly-generated encryption key allow the TD memory to be accessible by the TD, wherein configuring the randomly-generated encryption key on the processing device further comprises encrypting the TD memory by the encryption engine using the randomly-generated encryption key associated with the HKID.
Method for determining the amount and/or concentration in a sample of at least one immunoglobulin single variable domain (ISVD), or of a protein or polypeptide that comprises at least one ISVD, which method comprises the steps of; a) contacting the sample with a capturing agent, such that the ISVD, protein or polypeptide is captured by said capturing agent; b) contacting the ISVD, protein or polypeptide captured by the capturing agent with a detection agent, such that said detection agent binds to the ISVD, protein or polypeptide captured by the capturing agent; c) generating a signal corresponding to the amount of detection agent bound to the ISVD, protein or polypeptide captured by the capturing agent, in which said method is performed in the presence of a quencher, said quencher being a protein or polypeptide to which pre-existing antibodies against an exposed C-terminal end of the ISVD can bind but to which the capturing agent and the detection agent bind with an affinity of less/worse than 3 micromolar. a) contacting the sample with a capturing agent, such that the ISVD, protein or polypeptide is captured by said capturing agent; b) contacting the ISVD, protein or polypeptide captured by the capturing agent with a detection agent, such that said detection agent binds to the ISVD, protein or polypeptide captured by the capturing agent; c) generating a signal corresponding to the amount of detection agent bound to the ISVD, protein or polypeptide captured by the capturing agent,