mhurhangee/ep-ind-claims huggingface dataset:
A mixed reality simulation method for rendering on a display a mixed reality scenario of a virtual environment adapted to a physical environment, the method comprising: acquiring, with a sensor, a position of a physical environment object; identifying a geometric mismatch as a geometrical difference between the physical environment and the virtual environment geometries, the geometric mismatch depending on the physical environment object position and a mixed reality scenario parameter; and computing, as a function of the geometric mismatch, a mapping displacement to distort at least one virtual environment surface such that the visual and the tactile perception by the end user remain consistent; and rendering, with the display, the distorted virtual environment surface. acquiring, with a sensor, a position of a physical environment object; identifying a geometric mismatch as a geometrical difference between the physical environment and the virtual environment geometries, the geometric mismatch depending on the physical environment object position and a mixed reality scenario parameter; and computing, as a function of the geometric mismatch, a mapping displacement to distort at least one virtual environment surface such that the visual and the tactile perception by the end user remain consistent; and rendering, with the display, the distorted virtual environment surface.
3D real-time landscape imager, comprising: - at least an illuminating part which is designed to scan at least a portion of the landscape at a given range and having an ultra-short laser pulse source emitting at least one wavelength; - at least a receiving part which carries a set of SPAD - single photon avalanche diode - detector arrays (2208; 2014; 2515, 2520; 2047, 2049), where the diodes are arranged along the vertical direction, and the receiving part comprising also a means for combining data acquired with the set of SPAD detector arrays (2208; 2014; 2515, 2520; 2047, 2049), characterised in that said illuminating part comprises an optical rotating device, with a vertical axis of rotation, and controlled such that packets of pulses are shaped in a pattern of rotating beams sent toward the said at least partial landscape; and in that said receiving part comprises a further optical rotating device with a vertical axis of rotation, the optical rotating device of the receiving part being adapted to rotate in synchronism with the optical rotating device of the illuminating part, said combining data acquired with the set of SPAD detector arrays (2208; 2014; 2515, 2520; 2047, 2049) being effected according to the various rotations of the two optical rotating devices (32, 33) to obtain 3D images of the said at least partial landscape in a central controller. - at least an illuminating part which is designed to scan at least a portion of the landscape at a given range and having an ultra-short laser pulse source emitting at least one wavelength; - at least a receiving part which carries a set of SPAD - single photon avalanche diode - detector arrays (2208; 2014; 2515, 2520; 2047, 2049), where the diodes are arranged along the vertical direction, and the receiving part comprising also a means for combining data acquired with the set of SPAD detector arrays (2208; 2014; 2515, 2520; 2047, 2049), characterised in that said illuminating part comprises an optical rotating device, with a vertical axis of rotation, and controlled such that packets of pulses are shaped in a pattern of rotating beams sent toward the said at least partial landscape;
Barrier system, comprising at least one barrier body having at least one support foot, wherein the barrier body is equipped with at least one energy absorption layer and wherein the barrier body is constructed in several layers and has a first layer and a second layer, wherein the energy absorption layer is arranged between the first layer and the second layer, characterised in that the energy absorption layer is formed from one or several flat strips laid in loops or meanders, wherein the strip(s) is/are formed at least partially from styrene-butadiene rubber having a fabric inlay.
An α-helical polypeptide suitable for activating or inhibiting cell death of formula: wherein: each R 1 and R 2 are independently H, C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 2 -C 20 alkynyl, arylalkyl, cycloalkylalkyl, heteroarylalkyl, or heterocyclylalkyl; R 3 is a crosslinker which is C 1 -C 20 alkyl, C 2 -C 20 alkenyl, or C 2 -C 20 alkynyl; wherein R 3 is substituted with 0-6 R 5; R 5 is halo, alkyl, OR 6, N(R 6) 2, SR 6, SOR 6, SO 2 R 6, CO 2 R 6, R 6, an epoxide, a fluorescent moiety, or a radioisotope; R 6 is H, alkyl, or a therapeutic agent; x is an integer selected from 2, 3 or 6; each y is independently an integer from 0-100; z is an integer from 1-10; and each Xaa is independently an alpha amino acid; and wherein the polypeptide is transported or actively transported through a cell membrane, as determined in an assay comprising preparing fluorescently labeled polypeptide, applying the fluorescently labeled polypeptide to an intact cell, and assaying the cell for cellular fluorescence by microscopy or high-throughput cellular fluorescence detection. each R 1 and R 2 are independently H, C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 2 -C 20 alkynyl, arylalkyl, cycloalkylalkyl, heteroarylalkyl, or heterocyclylalkyl; R 3 is a crosslinker which is C 1 -C 20 alkyl, C 2 -C 20 alkenyl, or C 2 -C 20 alkynyl; wherein R 3 is substituted with 0-6 R 5; R 5 is halo, alkyl, OR 6, N(R 6) 2, SR 6, SOR 6, SO 2 R 6, CO 2 R 6, R 6, an epoxide, a fluorescent moiety, or a radioisotope; R 6 is H, alkyl, or a therapeutic agent; x is an integer selected from 2, 3 or 6; each y is independently an integer from 0-100; z is an integer from 1-10; and each Xaa is independently an alpha amino acid; and wherein the polypeptide is transported or actively transported through a cell membrane, as determined in an assay comprising preparing fluorescently labeled polypeptide, applying the fluorescently labeled polypeptide to an intact cell, and assaying the cell for cellular fluorescence by microscopy or high-throughput cellular fluorescence detection.
A negative electrode for a lithium secondary battery, comprising: a negative electrode current collector; a first negative electrode active material layer formed on the negative electrode current collector; and a second negative electrode active material layer formed on the first negative electrode active material layer, wherein the first negative electrode active material layer comprises a carbon-based negative electrode active material and a mixture of one or more selected from the group consisting of Si, particles of silicon oxide (SiO x) (0<x≤2), and a Si-metal alloy as the negative electrode active material, and the second negative electrode active material layer comprises a negative electrode active material having an average particle diameter (D 50) of 0.1 um to 10 um and exhibiting a uni-modal particle diameter distribution wherein the second negative electrode active material layer comprises a negative electrode active material exhibiting a particle diameter distribution satisfying D min /D max ≥0.5, wherein a thickness of the second negative electrode active material layer is in a range of 5% to 50% with respect to a thickness of the first negative electrode active material layer, and wherein the second negative electrode active material layer comprises a carbon-based negative electrode active material as the negative electrode active material. a negative electrode current collector; a first negative electrode active material layer formed on the negative electrode current collector; and a second negative electrode active material layer formed on the first negative electrode active material layer, wherein the first negative electrode active material layer comprises a carbon-based negative electrode active material and a mixture of one or more selected from the group consisting of Si, particles of silicon oxide (SiO x) (0<x≤2), and a Si-metal alloy as the negative electrode active material, and the second negative electrode active material layer comprises a negative electrode active material having an average particle diameter (D 50) of 0.1 um to 10 um and exhibiting a uni-modal particle diameter distribution wherein the second negative electrode active material layer comprises a negative electrode active material exhibiting a particle diameter distribution satisfying D min /D max ≥0.5, wherein a thickness of the second negative electrode active material layer is in a range of 5% to 50% with respect to a thickness of the first negative electrode active material layer, and wherein the second negative electrode active material layer comprises a carbon-based negative electrode active material as the negative electrode active material.
A composition comprising a T1 contrast material coated on a surface of a nanoparticle support for use in magnetic resonance imaging, wherein the ratio of the thickness of the T1 contrast material coating layer to the diameter of the nanoparticle support is 1:100 to 1:2.5, wherein the diameter of the nanoparticle support is 2 to 40 nm, wherein the T1 contrast material is a metal oxide of the formula M x O y (M = Mn, 0<x≤4, 0<y≤4), wherein the nanoparticle support is silica. wherein the ratio of the thickness of the T1 contrast material coating layer to the diameter of the nanoparticle support is 1:100 to 1:2.5, wherein the diameter of the nanoparticle support is 2 to 40 nm, wherein the T1 contrast material is a metal oxide of the formula M x O y (M = Mn, 0<x≤4, 0<y≤4), wherein the nanoparticle support is silica.
Side panel (1, 30) for a heating unit, in particular a flat radiator, having at least one first opening (2, 3, 31, 32) in which a first screwed supply connection of the heating unit can be arranged, wherein the at least one first opening (2, 31) consists of a breakthrough with an embossing (7, 8, 36) of the material of the side panel (1, 30), the embossing (7, 8, 36) of the first opening (2, 31) being provided for clamping the first screwed supply connection, characterized in that the breakthrough is round, that the embossing (7, 8, 36) of the first opening (2, 31) consists of a hollow-cylindrical circular ring segment with two opposed clamping webs or clamping surfaces (10, 11, 37, 38) with a chamfer which form a contraction, and that the surrounding embossing includes nearly three quarters of the circular opening.
A manufacturing method for an SiC semiconductor element, comprising at least: an insulating film forming step of forming an insulating film on a semiconductor substrate made of SiC; and a phosphorus adding step of adding phosphorus to the insulating film by a heat treatment, and an inert gas annealing step of performing annealing using an inert gas after the phosphorus adding step; and an interface nitriding step of nitriding an interface and removing remaining carbon using NO or N 2 O gas for the formed insulating film; and a terminating step of terminating dangling bonds using hydrogen annealing; and the_phosphorus adding step is performed by performing the heat treatment at a temperature of 800 to 1100°C in a mixed gas atmosphere of oxygen and an inert gas by bubbling a phosphoryl chloride (POCl 3) solution; and the inert gas annealing step is performed by performing the inert gas annealing at a temperature of 950 to 1100 °C. an insulating film forming step of forming an insulating film on a semiconductor substrate made of SiC; and a phosphorus adding step of adding phosphorus to the insulating film by a heat treatment, and an inert gas annealing step of performing annealing using an inert gas after the phosphorus adding step; and an interface nitriding step of nitriding an interface and removing remaining carbon using NO or N 2 O gas for the formed insulating film; and a terminating step of terminating dangling bonds using hydrogen annealing; and the_phosphorus adding step is performed by performing the heat treatment at a temperature of 800 to 1100°C in a mixed gas atmosphere of oxygen and an inert gas by bubbling a phosphoryl chloride (POCl 3) solution; and the inert gas annealing step is performed by performing the inert gas annealing at a temperature of 950 to 1100 °C.
Apparatus, comprising checking means adapted to check if a notification identifier comprised by a received primary notification and a correlation identifier comprised by a received secondary notification match each other, wherein the primary notification is different from the secondary notification; correlation generating means adapted to generate, if the notification identifier and the correlation identifier match each other, a correlation indication; characterized by providing means adapted to provide, to a management device, if the notification identifier and the correlation identifier match each other, a primary forward status change indication generated based on a primary status change indication comprised in the primary notification, a secondary forward status change indication generated based on a secondary status change indication comprised in the secondary notification, and the correlation indication. checking means adapted to check if a notification identifier comprised by a received primary notification and a correlation identifier comprised by a received secondary notification match each other, wherein the primary notification is different from the secondary notification; correlation generating means adapted to generate, if the notification identifier and the correlation identifier match each other, a correlation indication; characterized by providing means adapted to provide, to a management device, if the notification identifier and the correlation identifier match each other, a primary forward status change indication generated based on a primary status change indication comprised in the primary notification, a secondary forward status change indication generated based on a secondary status change indication comprised in the secondary notification, and the correlation indication.
A probe card assembly for testing circuit boards comprising: a multi-layered dielectric plate aligned with an integrated circuit, said integrated circuit having arrayed upon its surface a first plurality of electrical contacts arranged in a pattern, said dielectric plate having arrayed upon its surface a second plurality of electrical contacts arranged in a pattern matching said first plurality of electrical contacts; a carbon nanotube interposer interposed between said dielectric plate and said integrated circuit, said nanotube interposer having compliant carbon nanotubes that are arranged to match the pattern of electrical contacts on said integrated circuit and said dielectric plate; and a plurality of non-compliant vertical probes (108; 108') arrayed in a pattern upon said nanotube interposer and joined with said nanotubes, said vertical probes (108; 108') making electrical contact with said first plurality of electrical contacts and said second plurality of electrical contacts via said carbon nanotubes; characterized in that the non-compliant vertical probes (108; 108') are straight wire probes. a multi-layered dielectric plate aligned with an integrated circuit, said integrated circuit having arrayed upon its surface a first plurality of electrical contacts arranged in a pattern, said dielectric plate having arrayed upon its surface a second plurality of electrical contacts arranged in a pattern matching said first plurality of electrical contacts; a carbon nanotube interposer interposed between said dielectric plate and said integrated circuit, said nanotube interposer having compliant carbon nanotubes that are arranged to match the pattern of electrical contacts on said integrated circuit and said dielectric plate; and a plurality of non-compliant vertical probes (108; 108') arrayed in a pattern upon said nanotube interposer and joined with said nanotubes, said vertical probes (108; 108') making electrical contact with said first plurality of electrical contacts and said second plurality of electrical contacts via said carbon nanotubes; characterized in that the non-compliant vertical probes (108; 108') are straight wire probes.
A phase control dimmer circuit for controlling a magnetically saturable inductive load, the phase control dimmer circuit comprising a first switch, a second switch and a protection circuit, the first switch in use determining a conduction angle of the second switch, and the second switch, in series with the inductive load, effecting conduction of the inductive load in response to the first switch, the protection circuit characterised in comprising: an imbalance detector (Q200, Q201, Q202, Q203, C200, C201, C202, C203, C204, R200, R201, R202, R203, R204, R205, R206, R207, R208, D202, D203) for detecting an asymmetrical operation in the inductive load by detecting a difference between a conduction period of consecutive positive and negative half cycles and registering a load imbalance if the difference between the consecutive positive and negative half cycles exceeds a preset threshold; and a circuit control means (Q204, R209, R210, Q205, R211, R212) for protecting the phase control dimmer circuit by causing the phase control dimmer circuit to shut down upon detection of the asymmetrical operation. an imbalance detector (Q200, Q201, Q202, Q203, C200, C201, C202, C203, C204, R200, R201, R202, R203, R204, R205, R206, R207, R208, D202, D203) for detecting an asymmetrical operation in the inductive load by detecting a difference between a conduction period of consecutive positive and negative half cycles and registering a load imbalance if the difference between the consecutive positive and negative half cycles exceeds a preset threshold; and a circuit control means (Q204, R209, R210, Q205, R211, R212) for protecting the phase control dimmer circuit by causing the phase control dimmer circuit to shut down upon detection of the asymmetrical operation.
A welding apparatus for a fibre reinforced thermoplastic resin based material, the welding apparatus comprising an elongate flexible heat conductive strip and an elongate heat sink extending around at least a portion of the perimeter of the conductive strip, wherein the elongate heat sink is divided into a plurality of segments wherein adjacent segments can move relative to one another. an elongate flexible heat conductive strip and an elongate heat sink extending around at least a portion of the perimeter of the conductive strip, wherein the elongate heat sink is divided into a plurality of segments wherein adjacent segments can move relative to one another.
A method for analysis of sample ionic species of one charge, positive or negative, in a liquid sample, comprising the steps of (a) parking the liquid sample including said ionic species and at least one matrix compound including matrix ions of opposite charge to said ionic species, said parking being performed by flowing said liquid sample into a sample compartment and stopping said flow for a predetermined duration, said sample compartment having a first wall comprising at least one ion exchange membrane (12, 14) capable of transporting ions of one charge, positive or negative, and having exchangeable ions of the same charge as said matrix ions, said parked liquid sample being on one side of said one membrane, (b) flowing a regenerant liquid stream through a regenerant flow compartment on the other side of said one membrane from said parked liquid sample, (c) transporting at least some of said matrix ions in said parked liquid sample across said one membrane into said regenerant flow compartment to be carried away in said regenerant solution, (d) after step (c), removing said liquid sample from said sample compartment, and (e) separating said ionic species in said removed liquid sample. (a) parking the liquid sample including said ionic species and at least one matrix compound including matrix ions of opposite charge to said ionic species, said parking being performed by flowing said liquid sample into a sample compartment and stopping said flow for a predetermined duration, said sample compartment having a first wall comprising at least one ion exchange membrane (12, 14) capable of transporting ions of one charge, positive or negative, and having exchangeable ions of the same charge as said matrix ions, said parked liquid sample being on one side of said one membrane, (b) flowing a regenerant liquid stream through a regenerant flow compartment on the other side of said one membrane from said parked liquid sample, (c) transporting at least some of said matrix ions in said parked liquid sample across said one membrane into said regenerant flow compartment to be carried away in said regenerant solution, (d) after step (c), removing said liquid sample from said sample compartment, and (e) separating said ionic species in said removed liquid sample.
Abrasive particles, wherein each of the abrasive particles comprises an alpha-alumina crystalline phase and from 0.25 to 20 percent by weight of a beta-alumina crystalline phase, based on the total weight of the alpha-alumina crystalline phase and the beta-alumina crystalline phase combined, wherein the beta-alumina crystalline phase is represented by the empirical formula XQAl 10 O 17, wherein: X is selected from the group consisting of Sr, and Ba; and Q is selected from the group consisting of Mg, Co, Ni, and Zn. X is selected from the group consisting of Sr, and Ba; and Q is selected from the group consisting of Mg, Co, Ni, and Zn.
Food processor with two coupling points for the positioning of processing devices (2, 3, 4, 5) arranged at a distance from one another on its housing, with a shaft driven by a motor of the food processor at each coupling point, a contact switch, which can interrupt a power supply to the motor and a detection facility (6, 7) at each coupling point, which can be actuated respectively by the positioning of a processing device (2, 3, 4, 5) or cover part on the coupling point assigned to it, wherein the contact switch interacts with the detection facilities (6, 7) in such a manner that it can only be in a position in which the motor can be supplied with power, if a processing device (2, 3, 4, 5) or cover part is positioned on each coupling point, wherein the interaction of detection facilities (6, 7) and contact switch is brought about by a switching element for actuating the contact switch, which can be moved by the detection facilities (6, 7) in such a manner that it can only actuate the contact switch, if a processing device (2, 3, 4, 5) or cover part is positioned on each coupling point, characterised in that the switching element can be displaced by actuating the detection facility of a first of the two coupling points and be rotated about an axis by actuating the detection facility of a second of the two coupling points.
A liposome array comprising a carrier layer, layer of substrate on the surface of the carrier layer, and at least two separate areas of liposomes on its surface, wherein the substrate comprises agarose, wherein the agarose has a concentration of 0.01 to 0.8% in solution.