mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a reduced polysaccharide, wherein said reduced polysaccharide (a) comprises less than 2% of residual aldehydes; or (b) comprises less than 3% of residual aldehydes; wherein said reduced polysaccharide is produced by reacting a polysaccharide with a diol specific oxidizing agent, thereby producing an aldehyde containing oxidized polysaccharide comprising 0.1% or more oxidation on a molar basis; followed by reacting said oxidized polysaccharide with a water soluble aldehyde specific reducing agent to reduce the aldehyde moieties present in the oxidized polysaccharide to alcohol moieties and to produce said reduced polysaccharide; wherein said water soluble aldehyde specific reducing agent is not sodium borohydride; and wherein said polysaccharide is selected from the group consisting of alginate, agarose, pullulan, scleroglucan, chitosan, elsinan, xanthan gum, mannose, gellan, levan, cellulose, hyaluronic acid, chondroitin sulfate A, chondroitin sulfate C, chondroitin sulfate E and β-d-glucans; optionally wherein said polysaccharide is alginate. (a) comprises less than 2% of residual aldehydes; or (b) comprises less than 3% of residual aldehydes; wherein said reduced polysaccharide is produced by reacting a polysaccharide with a diol specific oxidizing agent, thereby producing an aldehyde containing oxidized polysaccharide comprising 0.1% or more oxidation on a molar basis;
A system comprising a primary device and a secondary device, the primary device having electrical contact pins configured to engage electrical contacts on the secondary device to allow for the exchange of power and data between the primary and secondary devices, wherein the primary device has n electrical contact pins, where n is a positive integer greater than two, and wherein the primary and secondary devices are constructed so that the electrical contact pins of the primary device can engage the electric contacts of the secondary device in a plurality of different allowed relative orientations, the plurality of allowed relative orientations comprising m distinct electrical orientations, wherein m is a positive integer greater than one but less than n, and wherein the primary device comprises a controller and a plurality of switches allowing different contact pins to be connected to the controller, wherein the controller is configured to apply a current to different pairs of electrical contact pins (402, 406) and comprises a non-volatile memory that stores a voltage record and wherein the controller is configured to compare measured voltages between the different pairs of electrical contact pins (402, 406) with the voltage record to determine which of the m electrical orientations the secondary device is in relative to the primary device, and wherein the controller is configured to close a plurality of the switches in response to a determined orientation of the secondary device.
A method performed by an access point, AP, (no, 300), the method comprising: selecting a number of basic service sets, BSSs, (BSS1 - BSSn) from a plurality of BSSs (BSS1 - BSSn), wherein the selected number of BSSs (BSS1 - BSSn) is a subset of the plurality of BSSs (BSS1 - BSSn); allocating one or more random resource units, RUs, to each of the selected BSSs (BSS1 - BSSn); and transmitting a frame indicating the allocation of the one or more random RUs to each of the selected BSSs (BSS1 - BSSn). selecting a number of basic service sets, BSSs, (BSS1 - BSSn) from a plurality of BSSs (BSS1 - BSSn), wherein the selected number of BSSs (BSS1 - BSSn) is a subset of the plurality of BSSs (BSS1 - BSSn); allocating one or more random resource units, RUs, to each of the selected BSSs (BSS1 - BSSn); and transmitting a frame indicating the allocation of the one or more random RUs to each of the selected BSSs (BSS1 - BSSn).
A nickel-cobalt-manganese composite hydroxide represented by a general formula: Ni 1-x-y-z Co x Mn y M z 2 (0 < x ≤ 1/3, 0 < y ≤ 1/3, 0 ≤ z ≤ 0.1, M represents one or more elements selected from Mg, Al, Ca, Ti, V, Cr, Zr, Nb, Mo, and W), to serve as a precursor for a positive electrode active material of a non-aqueous electrolyte secondary battery, wherein the nickel-cobalt-manganese composite hydroxide has a specific surface area of 3.0 to 11.0 m 2 /g as measured by a BET method through nitrogen adsorption, and an average valence of 2.4 or more for Co and Mn as obtained by redox titration.
Adjusting device for a rotor blade of a rotor of a wind turbine, - wherein the rotor comprises a hub and at least one rotor blade, - wherein the rotor blade can be installed on a bearing that can be installed between the rotor blade and the hub, - and wherein the rotor blade can be arranged on the hub in different pitch positions for rotation about a blade axis which extends in an axial direction of the rotor blade, - wherein the adjusting device comprises an adjusting motor for driving and/or locking the rotor blade, a first device for determining a blade position, and a converter for controlling the adjusting motor - wherein the converter comprises at least one control unit, characterized in that - the first device comprises at least two means (15a, 15b) for generating a respective electrical signal (S 1a, S 1b) that depends on the pitch position, - the control unit and/or the evaluation unit have at least one signal input associated with a signal output of the means (15a, 15b), - the control unit can be connected to at least one evaluation unit for checking a redundancy of the electrical signals (S 1a, S 1b) of the at least two means (15a, 15b) and for comparing the signals (S 1a, S 1b) of the at least two means (15a, 15b) or a derivative of the signals (S 1a, S 1b) with at least one stored threshold value (λ), - and the control unit and/or the evaluation unit are configured so as to terminate a blade adjustment process when a first threshold value (λ 1) is exceeded. - wherein the rotor comprises a hub and at least one rotor blade, - wherein the rotor blade can be installed on a bearing that can be installed between the rotor blade and the hub, - and wherein the rotor blade can be arranged on the hub in different pitch positions for rotation about a blade axis which extends in an axial direction of the rotor blade, - wherein the adjusting device comprises an adjusting motor for driving and/or locking the rotor blade, a first device for determining a blade position, and a converter for controlling the adjusting motor - wherein the converter comprises at least one control unit, - the first device comprises at least two means (15a, 15b) for generating a respective electrical signal (S 1a, S 1b) that depends on the pitch position, - the control unit and/or the evaluation unit have at least one signal input associated with a signal output of the means (15a, 15b), - the control unit can be connected to at least one evaluation unit for checking a redundancy of the electrical signals (S 1a, S 1b) of the at least two means (15a, 15b) and for comparing the signals (S 1a, S 1b) of the at least two means (15a, 15b) or a derivative of the signals (S 1a, S 1b) with at least one stored threshold value (λ), - and the control unit and/or the evaluation unit are configured so as to terminate a blade adjustment process when a first threshold value (λ 1) is exceeded.
A lithium secondary battery, comprising: a negative electrode; a positive electrode; a separator; and an electrolyte, wherein the negative electrode comprises: a current collector; a negative electrode active material layer comprising a negative electrode active material, disposed on the current collector; a first layer disposed on the negative electrode active material layer, which first layer comprises lithium; and a second layer disposed on the first layer, which second layer comprises an inorganic material, wherein a total irreversible capacity of the positive electrode is greater than a total irreversible capacity of the negative electrode while the lithium secondary battery satisfies Equation 1, and a relative potential of the negative electrode with respect to lithium metal in an operating voltage range of the lithium secondary battery is in a range of -0.1 V to 0.7 V: 150 < negative electrode discharge capacity/lithium secondary battery discharge capacity × 100 < 300 wherein, the negative electrode discharge capacity is a value measured by preparing a coin half-cell which includes the negative electrode, as a positive electrode, and the lithium metal as a negative electrode. a negative electrode; a positive electrode; a separator; and an electrolyte, wherein the negative electrode comprises: a current collector; a negative electrode active material layer comprising a negative electrode active material, disposed on the current collector; a first layer disposed on the negative electrode active material layer, which first layer comprises lithium; and a second layer disposed on the first layer, which second layer comprises an inorganic material, a current collector; a negative electrode active material layer comprising a negative electrode active material, disposed on the current collector; a first layer disposed on the negative electrode active material layer, which first layer comprises lithium; and a second layer disposed on the first layer, which second layer comprises an inorganic material, wherein a total irreversible capacity of the positive electrode is greater than a total irreversible capacity of the negative electrode while the lithium secondary battery satisfies Equation 1, and a relative potential of the negative electrode with respect to lithium metal in an operating voltage range of the lithium secondary battery is in a range of -0.1 V to 0.7 V: 150 < negative electrode discharge capacity/lithium secondary battery discharge capacity × 100 < 300 wherein, the negative electrode discharge capacity is a value measured by preparing a coin half-cell which includes the negative electrode, as a positive electrode, and the lithium metal as a negative electrode.
Device for forming blanks from a mouldable mass having - a matrix grid in which a plurality of receiving areas are configured and - at least one tool (17, 18) which is mounted in a tool carrier and by means of which the mouldable mass is compressed in the receiving area, - wherein the tool (17, 18) is movable along a guide track (3, 3A, 3B) which has a shaping section in which a constant pressure can be exerted over a stretch by the tools (17, 18) on the portion of the mouldable mass located in the receiving area and - wherein the tool carrier comprises a plurality of guide bolts which hold and guide the tool carrier along the guide track (3, 3A, 3B), characterised in that the guide bolts comprise a mushroom head which is held and guided in all sections of the guide track except for the shaping section in a sliding guide, wherein in this shaping section the guide bolt leaves the sliding guide and is held and guided by a guide roll system comprising guide rolls arranged close to each other, which can be rotated in the direction of the guide track (3, 3A, 3B) wherein the front face of the mushroom head always rests on respectively two guide rolls in the shaping section and - wherein two lateral guide plates are arranged at both sides of the mushroom head of the guide bolt. - a matrix grid in which a plurality of receiving areas are configured and - at least one tool (17, 18) which is mounted in a tool carrier and by means of which the mouldable mass is compressed in the receiving area, - wherein the tool (17, 18) is movable along a guide track (3, 3A, 3B) which has a shaping section in which a constant pressure can be exerted over a stretch by the tools (17, 18) on the portion of the mouldable mass located in the receiving area and - wherein the tool carrier comprises a plurality of guide bolts which hold and guide the tool carrier along the guide track (3, 3A, 3B), - wherein two lateral guide plates are arranged at both sides of the mushroom head of the guide bolt.
A system for negotiating domain name system, DNS, services in a DNS comprising: an in-band communication channel (302, 304) connecting a first party (303, 305) comprising a first computing device to a second party (301, 303) comprising a second computing device, wherein the in-band communication channel uses DNS communication protocols; and one or more out-of-band communication channels (306. 307) connecting the first party to the second party, wherein the one or more out-of-band communication channels use communication protocols that are different to the DNS communication protocols used by the in-band communication channel, wherein: the first and second parties are configured to negotiate terms of the DNS service offered by the first party using the one or more out-of-band communication channels, wherein the terms of the DNS service comprise capabilities of the DNS service; and the first party is configured to perform request and response messaging required for resolution of DNS queries, with the second party using the in-band communication channel based on the DNS service offered using the one or more out-of-band communication channels. an in-band communication channel (302, 304) connecting a first party (303, 305) comprising a first computing device to a second party (301, 303) comprising a second computing device, wherein the in-band communication channel uses DNS communication protocols; and one or more out-of-band communication channels (306. 307) connecting the first party to the second party, wherein the one or more out-of-band communication channels use communication protocols that are different to the DNS communication protocols used by the in-band communication channel, wherein: the first and second parties are configured to negotiate terms of the DNS service offered by the first party using the one or more out-of-band communication channels, wherein the terms of the DNS service comprise capabilities of the DNS service; and the first party is configured to perform request and response messaging required for resolution of DNS queries, with the second party using the in-band communication channel based on the DNS service offered using the one or more out-of-band communication channels. the first and second parties are configured to negotiate terms of the DNS service offered by the first party using the one or more out-of-band communication channels, wherein the terms of the DNS service comprise capabilities of the DNS service; and the first party is configured to perform request and response messaging required for resolution of DNS queries, with the second party using the in-band communication channel based on the DNS service offered using the one or more out-of-band communication channels.
A catalyst layer for anodes of Alkaline Exchange Membrane Fuel Cells (AEMFC), comprising: catalyst nanoparticles, wherein each catalyst nanoparticle comprises: one or more nanoparticles of catalytically active metal supported on at least one Ru nanoparticle; at least one nanoparticle of crystalline RuO 2; and an ionomer, wherein the catalytically active metal is selected from a group consisting of: Pt, Ir, and their alloys. one or more nanoparticles of catalytically active metal supported on at least one Ru nanoparticle; at least one nanoparticle of crystalline RuO 2; and an ionomer, wherein the catalytically active metal is selected from a group consisting of: Pt, Ir, and their alloys.
A cartridge (100, 200, 300, 400, 500,600) for the optical examination of a sample, wherein the cartridge: (100, 200, 300, 400, 500, 600) is adapted to be used together with a sensor apparatus comprising a light detector arranged at an observation region and at least one light source adapted to emit an input light beam that arrives at a detection surface of the cartridge (100, 200, 300, 400, 500, 600) at an angle larger than the critical angle of total internal reflection, wherein the cartridge (100, 200, 300, 400, 500, 600) comprises: a) a first sample chamber with the detection surface; b) a second sample chamber (120,220,320,420,520,620); wherein the cartridge (100, 200, 300, 400, 500, 600) is adapted such that a first output light beam that originates from a total internal reflection at the detection surface and a second output light beam (L2') that comes from the interior of the second sample chamber (120,220,320,420,520,620) can be received in an observation region adjacent to the cartridge (100, 200, 300, 400, 500, 600); and c) at least one optical element (106, 122, 223, 306, 407, 507, 621) for redirecting the second output light beam (L2') from the second sample chamber (120, 220, 320, 420, 520, 620) to the observation region, and wherein the cartridge (100, 200, 300, 400, 500, 600) is adapted such that the first output light beam and the second output light beam (L2') are detectable with said light detector arranged at the observation region. a) a first sample chamber with the detection surface; b) a second sample chamber (120,220,320,420,520,620); wherein the cartridge (100, 200, 300, 400, 500, 600) is adapted such that a first output light beam that originates from a total internal reflection at the detection surface and a second output light beam (L2') that comes from the interior of the second sample chamber (120,220,320,420,520,620) can be received in an observation region adjacent to the cartridge (100, 200, 300, 400, 500, 600); and c) at least one optical element (106, 122, 223, 306, 407, 507, 621) for redirecting the second output light beam (L2') from the second sample chamber (120, 220, 320, 420, 520, 620) to the observation region, and wherein the cartridge (100, 200, 300, 400, 500, 600) is adapted such that the first output light beam and the second output light beam (L2') are detectable with said light detector arranged at the observation region.
Method for producing a dough piece, comprising the steps of: A) providing an elongated dough piece, B) curling up the dough piece into a cylindrical shape, C) arranging the curled up dough piece to an upright position wherein its cylinder axis is oriented substantially perpendicular to a support plane, and D) moulding the dough piece by compressing the dough piece in an axial direction, wherein step D) comprises limiting the expansion of the dough piece in a radial direction by the mould. A) providing an elongated dough piece, B) curling up the dough piece into a cylindrical shape, C) arranging the curled up dough piece to an upright position wherein its cylinder axis is oriented substantially perpendicular to a support plane, and D) moulding the dough piece by compressing the dough piece in an axial direction,
A method in a search component of retrieving a video recording, which contains video data associated with video metadata, wherein the video metadata relate to technical properties of the video recording relied upon during playback of the video recording and include one or more of a resolution, number of frames per second, and coding format, and wherein the method is implemented in a search component with access to an object store according to an object storage architecture and with local access to a cache, the method comprising: receiving a search query; identifying, based on one or more index objects in the object store, a matching video recording which matches the search query, wherein at least one of the one or more index objects refers to a plurality of video recordings and stores, for each video recording, a recording identifier, ID, a hash of video metadata of the video recording as well as a recording interval and a recording source of the video recording; determining whether a hash of video metadata of the matching video recording agrees with a hash of any video metadata comprised in an attribute object in the cache, wherein the hash of the video metadata of the matching video recording and a hash of each video metadata in the cache are computed by a predefined hash function; in case of agreement, obtaining (320.1) the video metadata from said attribute object in the cache; in case of non-agreement, retrieving an attribute object of the matching video recording from the object store, obtaining (320.2) the video metadata from the retrieved attribute object, wherein the attribute object stores the video metadata and carries the recording ID, and storing the retrieved attribute object in the cache; and retrieving one or more data objects of the matching video recording from the object store. receiving a search query; identifying, based on one or more index objects in the object store, a matching video recording which matches the search query, wherein at least one of the one or more index objects refers to a plurality of video recordings and stores, for each video recording, a recording identifier, ID, a hash of video metadata of the video recording as well as a recording interval and a recording source of the video recording; determining whether a hash of video metadata of the matching video recording agrees with a hash of any video metadata comprised in an attribute object in the cache, wherein the hash of the video metadata of the matching video recording and a hash of each video metadata in the cache are computed by a predefined hash function; in case of agreement, obtaining (320.1) the video metadata from said attribute object in the cache; in case of non-agreement, retrieving an attribute object of the matching video recording from the object store, obtaining (320.2) the video metadata from the retrieved attribute object, wherein the attribute object stores the video metadata and carries the recording ID, and storing the retrieved attribute object in the cache; and retrieving one or more data objects of the matching video recording from the object store.
A compound engine assembly (10, 110, 210) for use as an auxiliary power unit for an aircraft, the compound engine assembly comprising: an engine core; a compressor having an outlet in fluid communication with an inlet of the engine core; a bleed conduit having an end configured for connection with a pneumatic system of the aircraft, the bleed conduit in fluid communication with the outlet of the compressor through a bleed air valve selectively opening and closing the fluid communication between the outlet of the compressor and the end of the bleed conduit configured for connection to the pneumatic system; and a turbine section having an inlet in fluid communication with an outlet of the engine core; characterized in that the engine core has a shaft for driving a load, the engine core including at least one internal combustion engine in driving engagement with the shaft; and in that the turbine section is configured to compound power with the engine core. an engine core; a compressor having an outlet in fluid communication with an inlet of the engine core; a bleed conduit having an end configured for connection with a pneumatic system of the aircraft, the bleed conduit in fluid communication with the outlet of the compressor through a bleed air valve selectively opening and closing the fluid communication between the outlet of the compressor and the end of the bleed conduit configured for connection to the pneumatic system; and a turbine section having an inlet in fluid communication with an outlet of the engine core; characterized in that the engine core has a shaft for driving a load, the engine core including at least one internal combustion engine in driving engagement with the shaft; and in that the turbine section is configured to compound power with the engine core.