mhurhangee/ep-ind-claims huggingface dataset:
A method for the synthesis of an isotopically-labelled glycan for use as a mass spectrometry internal standard, the method comprising: acylating an oligosaccharide core structure with an isotopically-labelled acylating agent, wherein the oligosaccharide core structure is optionally protected with one or more protecting groups, to obtain an isotopically-labelled oligosaccharide core structure; and enzymatically derivatising the resultant isotopically-labelled oligosaccharide to obtain the isotopically-labelled glycan. acylating an oligosaccharide core structure with an isotopically-labelled acylating agent, wherein the oligosaccharide core structure is optionally protected with one or more protecting groups, to obtain an isotopically-labelled oligosaccharide core structure; and enzymatically derivatising the resultant isotopically-labelled oligosaccharide to obtain the isotopically-labelled glycan.
A beverage preparation capsule defining a closed chamber for enclosing a mass of soluble and/or extractable food material, for use in a beverage preparation machine, comprising: (i) a capsule body with side walls, a bottom wall open with a dispensing opening, said capsule body walls comprising an injection-moulded oil-based or biomass-based thermoplastic material, selected within the list of: polypropylene, polyethylene, polystyrene, polycarbonate, polyethylene terephtalate, or polylactic acid, the capsule body walls further comprising a circumferential step directed inwardly, which is located between the side and bottom walls, (ii) a gas and moisture impermeable top membrane, pierceable by injection means of the machine which are adapted to inject an extraction liquid under pressure inside said chamber, and (iii) a gas and moisture impermeable bottom membrane sealed inside the capsule body near the bottom wall, (iv) means adapted to open said chamber by relative engagement with the bottom membrane under the effect of the liquid pressure increase in the chamber during injection of said liquid, characterized in that the inside or outside surface of the capsule body is at least partially covered by a gas-, and optionally moisture-, impermeable label permanently attached by in-mould labelling to said capsule body wall, said label having a tri-dimensional shape such that the labelled capsule is gas and moisture tight, and in that said label also covers the surface of the step. (i) a capsule body with side walls, a bottom wall open with a dispensing opening, said capsule body walls comprising an injection-moulded oil-based or biomass-based thermoplastic material, selected within the list of: polypropylene, polyethylene, polystyrene, polycarbonate, polyethylene terephtalate, or polylactic acid, the capsule body walls further comprising a circumferential step directed inwardly, which is located between the side and bottom walls, (ii) a gas and moisture impermeable top membrane, pierceable by injection means of the machine which are adapted to inject an extraction liquid under pressure inside said chamber, and (iii) a gas and moisture impermeable bottom membrane sealed inside the capsule body near the bottom wall, (iv) means adapted to open said chamber by relative engagement with the bottom membrane under the effect of the liquid pressure increase in the chamber during injection of said liquid,
A method for operating a first device capable of providing power to a second device or receiving power from the second device, the method comprising: detecting an electrical connection between the first device having a first battery and the second device having a second battery; receiving an indication of a residual power of the second battery; displaying, by the first device, a power sharing interface based on an indication of a residual power of the first battery and the indication of the residual power of the second battery; detecting an input to the interface specifying a threshold amount of power; transmitting power from the first battery to the second device until the threshold amount of power is transmitted; wherein the power sharing interface includes an indication of charging direction (318, 418) that indicates whether the first device is a recipient of power or a provider of power. detecting an electrical connection between the first device having a first battery and the second device having a second battery; receiving an indication of a residual power of the second battery; displaying, by the first device, a power sharing interface based on an indication of a residual power of the first battery and the indication of the residual power of the second battery; detecting an input to the interface specifying a threshold amount of power; transmitting power from the first battery to the second device until the threshold amount of power is transmitted; wherein the power sharing interface includes an indication of charging direction (318, 418) that indicates whether the first device is a recipient of power or a provider of power.
A vehicle headlamp for producing a main light distribution and an auxiliary light distribution, wherein the vehicle headlamp comprises two or more LED light modules, wherein each of the LED light modules comprises *) one or more primary LED light sources, wherein a primary LED light source comprises at least one light-emitting diode, *) two or more secondary LED light sources (12, 12a), wherein a secondary LED light source (12, 12a) comprises at least one light-emitting diode and *) a lens, wherein the light emitted by the at least one primary LED light source radiates directly onto the lens and is projected thereby into the exterior space, wherein the light emitted by the primary LED light sources of all LED modules forms the main light distribution, and wherein the light emitted by the secondary LED light sources (12, 12a) of an LED module is radiated onto the lens of the LED module via an optical waveguide, which lens projects the light into the exterior space, and wherein the light emitted by the secondary LED light sources (12, 12a) of all LED modules forms the auxiliary light distribution, wherein light is coupled by at least one of the secondary LED light sources into the optical waveguide via at least one light incoupling point and exits, preferably oriented substantially parallel, via at least one light outcoupling point, preferably for producing a maximum contribution to the auxiliary light distribution, characterised in that the optical waveguide comprises at least one opening or cut-out for the passage of light from the at least one primary LED light source, wherein preferably at least one primary LED light source is arranged in the opening and/or cut-out. *) one or more primary LED light sources, wherein a primary LED light source comprises at least one light-emitting diode, *) two or more secondary LED light sources (12, 12a), wherein a secondary LED light source (12, 12a) comprises at least one light-emitting diode and *) a lens,
A method for wireless communication performed by a user equipment, UE, comprising: receiving, in a downlink control channel, a control message comprising an indication of the availability of preemption information for previously scheduled data transmissions on a plurality of carriers; determining whether the plurality of carriers comprises at least one carrier on which the UE has a previously scheduled data transmission; identifying preemption information for the at least one carrier in a variable-size preemption information based on a subset of the plurality of carriers for which preemption information is indicated as available; and communicating with a base station on the at least one carrier based on resources for the previously scheduled data transmission and on the preemption information. receiving, in a downlink control channel, a control message comprising an indication of the availability of preemption information for previously scheduled data transmissions on a plurality of carriers; determining whether the plurality of carriers comprises at least one carrier on which the UE has a previously scheduled data transmission; identifying preemption information for the at least one carrier in a variable-size preemption information based on a subset of the plurality of carriers for which preemption information is indicated as available; and communicating with a base station on the at least one carrier based on resources for the previously scheduled data transmission and on the preemption information.
A method in which at least two reference stations (1, 2) transmit signals (s1, s2; s3, s4), - wherein the signals - are transmitted approximately at the same time (S1, S2), - are transmitted in the same frequency range, - are separable using a multiplexing method, - wherein at least one of the reference stations (1, 2), besides transmitting its own signal (s1, s2), also receives at least one signal (s2, s1) sent by another reference station (2, 1) at the same time and determines a time stagger (τ1) and/or a phase angle between its own transmission and the reception with high precision, and - wherein at least one station which at least receives signals receives the signals (s3, s4) from at least two of the reference stations (1, 2), - wherein future transmissions of the reference stations (1, 2) are controlled depending on the determined time offsets (τ1) and/or phase angles. - wherein the signals - are transmitted approximately at the same time (S1, S2), - are transmitted in the same frequency range, - are separable using a multiplexing method, - are transmitted approximately at the same time (S1, S2), - are transmitted in the same frequency range, - are separable using a multiplexing method, - wherein at least one of the reference stations (1, 2), besides transmitting its own signal (s1, s2), also receives at least one signal (s2, s1) sent by another reference station (2, 1) at the same time and determines a time stagger (τ1) and/or a phase angle between its own transmission and the reception with high precision, and - wherein at least one station which at least receives signals receives the signals (s3, s4) from at least two of the reference stations (1, 2), - wherein future transmissions of the reference stations (1, 2) are controlled depending on the determined time offsets (τ1) and/or phase angles.
A computer based method for identifying a selected sensor node located within a system, said system comprising at least three sensor nodes connected to a computational node, each sensor node further comprising an audio directional sensor for measuring a direction of an audio signal emitted by an audio source, said method comprising the steps of - measuring a reference direction in each sensor node, - retrieving a direction of the audio signal from the audio directional sensor of each of the sensor nodes with respect to the reference direction, - measuring a node angle for each sensor node, the node angle being the angle between the reference direction and the direction of the audio signal propagating from the audio source, - calculating the angular mean of all node angles, - identifying the selected sensor node having the node angle which is closest to the angular mean of all node angles. - measuring a reference direction in each sensor node, - retrieving a direction of the audio signal from the audio directional sensor of each of the sensor nodes with respect to the reference direction, - measuring a node angle for each sensor node, the node angle being the angle between the reference direction and the direction of the audio signal propagating from the audio source, - calculating the angular mean of all node angles, - identifying the selected sensor node having the node angle which is closest to the angular mean of all node angles.
A bipolar secondary battery, comprising: a battery element, the battery element comprising: first and second bipolar electrodes, each of the first and second bipolar electrodes having a collector disposed with a conductive resin layer, a positive electrode active material layer formed on one side of the collector and a negative electrode active material layer formed on the other side of the collector, the conductive resin layer containing a first resin as a base material; and a separator arranged between the first and second bipolar electrodes and retaining therein an electrolyte material to form an electrolyte layer, the separator containing a second resin as a base material; the positive electrode active material layer of the first bipolar electrode, the electrolyte layer and the negative electrode active material layer of the second bipolar electrode constituting a unit cell, wherein a melting point of the first resin is lower than or equal to a melting point of the second resin; and wherein outer peripheries of the collectors of the first and second bipolar electrodes and an outer periphery of the separator are fused together, so that the first resin of the outer peripheries of the collector of the first and second bipolar electrodes is cured in pores of the separator to thereby seal an outer peripheral portion of the unit cell. first and second bipolar electrodes, each of the first and second bipolar electrodes having a collector disposed with a conductive resin layer, a positive electrode active material layer formed on one side of the collector and a negative electrode active material layer formed on the other side of the collector, the conductive resin layer containing a first resin as a base material; and a separator arranged between the first and second bipolar electrodes and retaining therein an electrolyte material to form an electrolyte layer, the separator containing a second resin as a base material; the positive electrode active material layer of the first bipolar electrode, the electrolyte layer and the negative electrode active material layer of the second bipolar electrode constituting a unit cell, wherein a melting point of the first resin is lower than or equal to a melting point of the second resin; and wherein outer peripheries of the collectors of the first and second bipolar electrodes and an outer periphery of the separator are fused together, so that the first resin of the outer peripheries of the collector of the first and second bipolar electrodes is cured in pores of the separator to thereby seal an outer peripheral portion of the unit cell.
A device, comprising: a substrate (402; 502; 602; 702; 802) having a first surface and an opposite, parallel second surface; a waveguide (404; 504; 604; 704; 804) patterned on the first surface and configured to guide a beam of radiation (412; 512; 612; 716; 816) along a length of the waveguide (404; 504; 604; 704; 804); a reflector (410; 510; 610; 712; 806) disposed on the first surface and configured to reflect at least a portion of the beam of radiation (412; 512; 612; 716; 816) at an angle that is substantially perpendicular to the first surface; and an optical element (414; 514; 614; 718; 812) configured to receive the reflected portion of the beam of radiation (412; 512; 612; 716; 816); characterized in that the optical element (414; 514; 614; 718; 812) is disposed on the second surface. a substrate (402; 502; 602; 702; 802) having a first surface and an opposite, parallel second surface; a waveguide (404; 504; 604; 704; 804) patterned on the first surface and configured to guide a beam of radiation (412; 512; 612; 716; 816) along a length of the waveguide (404; 504; 604; 704; 804); a reflector (410; 510; 610; 712; 806) disposed on the first surface and configured to reflect at least a portion of the beam of radiation (412; 512; 612; 716; 816) at an angle that is substantially perpendicular to the first surface; and an optical element (414; 514; 614; 718; 812) configured to receive the reflected portion of the beam of radiation (412; 512; 612; 716; 816);
Coupling apparatus for a motor vehicle with a coupling ball carrier which is or may be mounted, in particular capable of swivelling or insertable, on a carrier seating, and may be fixed by a first locking element in a coupling position, wherein a second locking element is provided, through which the coupling ball carrier may be fixed in the coupling position in a redundant arrangement to the first locking element, characterised in that, on release of the first locking element, the second locking element is driven via a driving element.
A method for identifying a damaged part of a vehicle by a server comprising a processor and a memory for storing instructions which are executable by the processor, wherein upon execution of the instructions, the processor is configured to perform the steps of: receiving a marked image uploaded by a client, said marked image including a damaged area determined based on an act of marking a damage location in a captured image; characterized in identifying feature parts in said marked image, and determining a relative positional relationship between said feature parts and said damaged area based on the positions of said feature parts and said damaged area in the marked image, said relative positional relationship between said feature parts and said damaged area including one of the direction of said feature parts with respect to said damaged area, the distance from said feature parts to said damaged area, and the distance percentage of the distance from said feature parts to said damaged area, or a combination thereof; matching the relative positional relationship in a feature correspondence library to obtain a corresponding related part; and determining the damaged part in said captured image based on said related part. receiving a marked image uploaded by a client, said marked image including a damaged area determined based on an act of marking a damage location in a captured image; characterized in identifying feature parts in said marked image, and determining a relative positional relationship between said feature parts and said damaged area based on the positions of said feature parts and said damaged area in the marked image, said relative positional relationship between said feature parts and said damaged area including one of the direction of said feature parts with respect to said damaged area, the distance from said feature parts to said damaged area, and the distance percentage of the distance from said feature parts to said damaged area, or a combination thereof; matching the relative positional relationship in a feature correspondence library to obtain a corresponding related part; and determining the damaged part in said captured image based on said related part.
Method for preventing a collision between an autonomous vehicle and a user in a movement range of the autonomous vehicle, comprising the steps: - receiving a time-dependent, planned path of the autonomous vehicle and a time-dependent, planned path of the user, - determining a time-dependent path network by means of a path network unit, wherein the time-dependent path network describes the planned paths (P1, P2), - determining collision information which describes an overlap of the planned paths (P1, P2) in the time-dependent path network, - determining a safe zone for the user on the basis of the collision information, wherein the safe zone describes an area in the movement range which is safe for the user with respect to a collision with the autonomous vehicle, and - providing a display for the user by means of a display device, wherein the display describes the safe zone, characterized in that - in addition an unsafe zone, in which there is a risk of a collision between the autonomous vehicle and the user, and a zone of increased attention between the safe zone and the unsafe zone are determined on the basis of the collision information, and the unsafe zone and the zone of increased attention are displayed to the user. - receiving a time-dependent, planned path of the autonomous vehicle and a time-dependent, planned path of the user, - determining a time-dependent path network by means of a path network unit, wherein the time-dependent path network describes the planned paths (P1, P2), - determining collision information which describes an overlap of the planned paths (P1, P2) in the time-dependent path network, - determining a safe zone for the user on the basis of the collision information, wherein the safe zone describes an area in the movement range which is safe for the user with respect to a collision with the autonomous vehicle, and - providing a display for the user by means of a display device, wherein the display describes the safe zone, characterized in that - in addition an unsafe zone, in which there is a risk of a collision between the autonomous vehicle and the user, and a zone of increased attention between the safe zone and the unsafe zone are determined on the basis of the collision information, and the unsafe zone and the zone of increased attention are displayed to the user.
An apparatus for sorting scrap metals comprising: a conveyor belt for carrying at least two categories of scrap metals positioned at random, the conveyor belt traveling in a first direction; an electron beam source for creating a scanning electron beam; a target foil positioned to interact with the scanning electron beam to create a scanning x-ray beam along a plane generally transverse to the first direction of the conveyer belt and directed towards the scrap metals on the conveyor belt; at least one backscatter detector for measuring backscattered x-rays from the scrap metals on the conveyor belt; at least one forward scatter detector for measuring forward scattered x-rays from the scrap metals on the conveyor belt; a transmission detector for measuring transmitted x-rays through the scrap metals on the conveyor belt; a database containing a cutoff plane between a first category of the scrap metal and a second category of the scrap metal, the cutoff plane a function of transmission x-rays, backscatter x-rays, and forward scatter x-rays; and a controller configured to (i) receive transmitted x-rays, forward scattered x-rays, and backscattered x-rays detected from the scrap metal as a dataset, (ii) normalize the dataset using detected x-rays from the conveyor belt, and (iii) compare the normalized dataset to the cutoff plane in the database to categorizing the scrap metals into one of the first and the second category. a conveyor belt for carrying at least two categories of scrap metals positioned at random, the conveyor belt traveling in a first direction; an electron beam source for creating a scanning electron beam; a target foil positioned to interact with the scanning electron beam to create a scanning x-ray beam along a plane generally transverse to the first direction of the conveyer belt and directed towards the scrap metals on the conveyor belt; at least one backscatter detector for measuring backscattered x-rays from the scrap metals on the conveyor belt; at least one forward scatter detector for measuring forward scattered x-rays from the scrap metals on the conveyor belt; a transmission detector for measuring transmitted x-rays through the scrap metals on the conveyor belt; a database containing a cutoff plane between a first category of the scrap metal and a second category of the scrap metal, the cutoff plane a function of transmission x-rays, backscatter x-rays, and forward scatter x-rays; and a controller configured to (i) receive transmitted x-rays, forward scattered x-rays, and backscattered x-rays detected from the scrap metal as a dataset, (ii) normalize the dataset using detected x-rays from the conveyor belt, and (iii) compare the normalized dataset to the cutoff plane in the database to categorizing the scrap metals into one of the first and the second category.