mhurhangee/patent-ind-claim-en huggingface dataset:
A C-terminally truncated Guinea pig L-Asparaginase (GpA) variant sharing at least 85% sequence identity with residues 1 to 359 of SEQ ID NO:1, wherein said truncated GpA variant comprises at least one amino acid substitution relative to SEQ ID NO:1, wherein the at least one amino acid substitution relative to SEQ ID NO:1 is H10R, Q23R, K25E, K48E, Q52R, Q54R, P57S, D58E, H59D, A60T, A62V, D91A, D92E, K98Q, E101K, Q108H, S121F, G122A, H134Q, R147H, K193R, C198A, C198S, C198V, D217E, N233S, H236Q, S250A, Q288E, R301Q, E344D, L360P, T362S, A363V, D364E, L365E, H366R, Q367R, or S368P, or a combination thereof; and / or wherein the at least one amino acid substitution relative to SEQ ID NO:1 comprises: (a) a cysteine residue at position 49, 52, 225, 257, 281, or 340, or a combination thereof; or (b) a lysine residue at position 7, 53, 54, 57, 58, 98, 106, 233, 250, 257, 281, 311 or 340, or a combination thereof; and wherein the C-terminal truncation is at a position between 359 and 396 of SEQ ID NO:1. wherein the at least one amino acid substitution relative to SEQ ID NO:1 is H10R, Q23R, K25E, K48E, Q52R, Q54R, P57S, D58E, H59D, A60T, A62V, D91A, D92E, K98Q, E101K, Q108H, S121F, G122A, H134Q, R147H, K193R, C198A, C198S, C198V, D217E, N233S, H236Q, S250A, Q288E, R301Q, E344D, L360P, T362S, A363V, D364E, L365E, H366R, Q367R, or S368P, or a combination thereof; and / or wherein the at least one amino acid substitution relative to SEQ ID NO:1 comprises: (a) a cysteine residue at position 49, 52, 225, 257, 281, or 340, or a combination thereof; or (b) a lysine residue at position 7, 53, 54, 57, 58, 98, 106, 233, 250, 257, 281, 311 or 340, or a combination thereof; and (a) a cysteine residue at position 49, 52, 225, 257, 281, or 340, or a combination thereof; or (b) a lysine residue at position 7, 53, 54, 57, 58, 98, 106, 233, 250, 257, 281, 311 or 340, or a combination thereof; wherein the C-terminal truncation is at a position between 359 and 396 of SEQ ID NO:1.
A method for converting organic material into bio-ethanol, the method comprising a) a pre-treatment process for producing a mash from the organic material, wherein said pre-treatment process further comprises: - a liquefaction step, wherein enzymes are added to the pulp in the liquefaction process, and - a saccharification step, wherein enzymes are added; b) a fermentation process for fermenting the mash produced in the pre-treatment process, thereby providing a fermentation broth, c) a separation process for separating the fermented material into bio-ethanol and a residual product; d) a conversion process for at least partly converting the residual product into thermal energy, wherein the conversion is conducted in a high pressure fluid with a pressure of at least 200 bar (20,000,000 Pa), and at least one homogeneous and/or heterogeneous catalyst is present in said high pressure fluid; e) an energy distribution process for distributing at least some of the thermal energy provided by the conversion process to the pre-treatment process and/or the fermentation process and/or the separation process. a) a pre-treatment process for producing a mash from the organic material, wherein said pre-treatment process further comprises: - a liquefaction step, wherein enzymes are added to the pulp in the liquefaction process, and - a saccharification step, wherein enzymes are added; - a liquefaction step, wherein enzymes are added to the pulp in the liquefaction process, and - a saccharification step, wherein enzymes are added; b) a fermentation process for fermenting the mash produced in the pre-treatment process, thereby providing a fermentation broth, c) a separation process for separating the fermented material into bio-ethanol and a residual product; d) a conversion process for at least partly converting the residual product into thermal energy, wherein the conversion is conducted in a high pressure fluid with a pressure of at least 200 bar (20,000,000 Pa), and at least one homogeneous and/or heterogeneous catalyst is present in said high pressure fluid; e) an energy distribution process for distributing at least some of the thermal energy provided by the conversion process to the pre-treatment process and/or the fermentation process and/or the separation process.
Apparatus for determining a feature descriptor of an image section, wherein the image section is determined based on an interest point that is provided as an input parameter to the apparatus, the apparatus being configured to receive information regarding a position and a scale of the interest point and to determine the image section based on the position of the interest point, comprising: a semantic kernel provider configured to provide 16 semantic kernels, each semantic kernel representing a geometric structure being selected out of a group consisting of: edges, ridges, corners, blobs, and saddles; an interpolator configured to obtain a support region by interpolating the image section based on the scale of the interest point, a kernel evaluator configured to determine 256 filter responses resulting from applying the semantic kernels to 16 evaluation regions located within the support region; and a comparator configured to compare each one of the filter responses with at least one threshold and to provide a plurality of comparison results, wherein the feature descriptor comprises the plurality of comparison results, wherein each of the plurality of comparison results is represented by one bit or by two bits, wherein the apparatus further comprises a feature descriptor generator configured to combine the plurality of comparison results to form at least a portion of the feature descriptor by using the plurality of comparison results to form one or more bytes of the feature descriptor, and wherein the feature descriptor has a dimension of 256 and a size of 32 bytes, or a dimension of 512 and a size of 64 bytes, respectively. a semantic kernel provider configured to provide 16 semantic kernels, each semantic kernel representing a geometric structure being selected out of a group consisting of: edges, ridges, corners, blobs, and saddles; an interpolator configured to obtain a support region by interpolating the image section based on the scale of the interest point, a kernel evaluator configured to determine 256 filter responses resulting from applying the semantic kernels to 16 evaluation regions located within the support region; and a comparator configured to compare each one of the filter responses with at least one threshold and to provide a plurality of comparison results, wherein the feature descriptor comprises the plurality of comparison results, wherein each of the plurality of comparison results is represented by one bit or by two bits, wherein the apparatus further comprises a feature descriptor generator configured to combine the plurality of comparison results to form at least a portion of the feature descriptor by using the plurality of comparison results to form one or more bytes of the feature descriptor, and wherein the feature descriptor has a dimension of 256 and a size of 32 bytes, or a dimension of 512 and a size of 64 bytes, respectively.
Method for wirelessly, in particular inductively, transmitting energy from an energy transmitting device to a load , wherein at least one method step comprises interrupting the energy transmission from the energy transmitting device to the load in connection with the detection of a foreign object, wherein at least one method step comprises an iterative process for a frequency sweep for capturing a local maximum of an actual quality (Q act,A (f res,A ) , Q act,n+1 (f res )) of the wireless that is characteristic of a resonant frequency (f res,A , f res ), characterized in that , starting from a first resonant frequency point (f res,A , f res ), the actual quality (Q act,B (f res,B ), Q act,C (f res,C )) is captured at the resulting resonant frequency points (f res,B , f res,C ) on the basis of a defined step width (f step ) and is used for comparisons with other captured actual qualities in such a manner that the local maximum of the actual quality (Q act,A (f res,A ), Q act,n+1 (f res )) is at least approximately achieved, wherein the iterative process is repeated in at least one method step (50.9) only until the first resonant frequency point (f res,A ) has been set, in at least one method step (50.8a, 50.8b4) of the iterative process, to a value which is below a lower limit value (f res,min ) or above an upper limit value (f res,max ) for the resonant frequency (f res ).
A switch device, comprising: an operation knob that is operable between a first operating position and a second operating position; a fork part that is activated by an operation of the operation knob; a switch section that is switched by the fork part; and a contact rubber that contacts and seals an outer periphery of the fork part at the first operating position and the second operating position of the fork part thereby generating a sliding resistance between the fork part and the contact rubber at the first operating position and at the second operating position, characterized in that the fork part partly does not contact the contact rubber at an operating position between the first operating position and the second operating position such that the resistance feeling caused by the sliding resistance in operating the operation knob at an operating position between the first operating position and the second operating position can be reduced. an operation knob that is operable between a first operating position and a second operating position; a fork part that is activated by an operation of the operation knob; a switch section that is switched by the fork part; and a contact rubber that contacts and seals an outer periphery of the fork part at the first operating position and the second operating position of the fork part thereby generating a sliding resistance between the fork part and the contact rubber at the first operating position and at the second operating position, characterized in that the fork part partly does not contact the contact rubber at an operating position between the first operating position and the second operating position such that the resistance feeling caused by the sliding resistance in operating the operation knob at an operating position between the first operating position and the second operating position can be reduced.
An electrode unit of a redox flow cell , comprising at least one metallic substrate and a coating which is applied to the substrate , characterised in that the coating comprises at least one protective layer on its side facing away from the substrate , which is formed from titanium-niobium nitride (TiNbN) and/or titanium-niobium carbide (TiNbC).
An elevator control system for controlling a plurality of elevators (10A-10F) in an elevator bank , comprising: a processor in communication with a non-transitory memory ; a networking device ; and software instructions that, when executed by the processor , perform steps for: receiving an elevator call placed by at least one of a user and a mobile device of the user ; wirelessly communicating with the mobile device to determine an elevator criteria set by the user ; and wirelessly communicating an alert to the mobile device to notify the user of a status of the assigned elevator (10A-10F); characterized in that the elevator criteria comprising a requirement and a preference ; and in that the software instructions further perform the step for: assigning an elevator (10A-10F) to the user that meets at least the requirement . a processor in communication with a non-transitory memory ; a networking device ; and software instructions that, when executed by the processor , perform steps for: receiving an elevator call placed by at least one of a user and a mobile device of the user ; wirelessly communicating with the mobile device to determine an elevator criteria set by the user ; and wirelessly communicating an alert to the mobile device to notify the user of a status of the assigned elevator (10A-10F); receiving an elevator call placed by at least one of a user and a mobile device of the user ; wirelessly communicating with the mobile device to determine an elevator criteria set by the user ; and wirelessly communicating an alert to the mobile device to notify the user of a status of the assigned elevator (10A-10F); characterized in that the elevator criteria comprising a requirement and a preference ; and in that the software instructions further perform the step for: assigning an elevator (10A-10F) to the user that meets at least the requirement .
A porcine circovirus type 2 (PCV2) vaccine composition, comprising a) a peptide antigen consisting of a B cell epitope represented by: (i) SEQ ID NO: 1 or (ii) an amino acid sequence having at least 90% sequence identity to SEQ ID NO: 1, or (iii) an amino acid sequence of (i) or (ii) wherein the charge of the peptide antigen is altered by adding or deleting 1 to 5 amino acids, wherein the peptide antigen of (i), (ii) or (iii) is covalently linked, either directly or through an optional spacer having a sequence of Lys-Lys-Lys-εNLys (SEQ ID NO: 7), to a foreign T helper epitope; and b) a veterinarily acceptable delivery vehicle or adjuvant. a) a peptide antigen consisting of a B cell epitope represented by: (i) SEQ ID NO: 1 or (ii) an amino acid sequence having at least 90% sequence identity to SEQ ID NO: 1, or (iii) an amino acid sequence of (i) or (ii) wherein the charge of the peptide antigen is altered by adding or deleting 1 to 5 amino acids, wherein the peptide antigen of (i), (ii) or (iii) is covalently linked, either directly or through an optional spacer having a sequence of Lys-Lys-Lys-εNLys (SEQ ID NO: 7), to a foreign T helper epitope; and (i) SEQ ID NO: 1 or (ii) an amino acid sequence having at least 90% sequence identity to SEQ ID NO: 1, or (iii) an amino acid sequence of (i) or (ii) wherein the charge of the peptide antigen is altered by adding or deleting 1 to 5 amino acids, b) a veterinarily acceptable delivery vehicle or adjuvant.
A device configured to: receive minimization of drive test, MDT,configuration information for carrying out a measurement, wherein the MDT configuration is received when the device is in a first public land mobile network, PLMN, wherein the first PLMN is authorized for measurement; carry out the measurement of a network-performance related metric based on the received MDT configuration, wherein the measurement is carried out based on a determination that a current PLMN of the device is the same as the first PLMN that is authorized for measurement; and transmit a result of the measurement or an indication of an availability of the measurembent to a network element based on a determination that the device is in the first PLMN that is authorized for measurement. receive minimization of drive test, MDT,configuration information for carrying out a measurement, wherein the MDT configuration is received when the device is in a first public land mobile network, PLMN, wherein the first PLMN is authorized for measurement; carry out the measurement of a network-performance related metric based on the received MDT configuration, wherein the measurement is carried out based on a determination that a current PLMN of the device is the same as the first PLMN that is authorized for measurement; and transmit a result of the measurement or an indication of an availability of the measurembent to a network element based on a determination that the device is in the first PLMN that is authorized for measurement.
An apparatus for monitoring a fluid flow in a pipe using electromagnetic velocity tomography (EVT), the apparatus comprising a pipe (40 defining a flow conduit , a coil system comprising electrically conductive wires located externally of the flow conduit for generating composite magnetic fields within the flow conduit , and an array of electrodes located externally of the flow conduit for detecting voltages induced in an electrically conducting fluid flowing thorough the magnetic field, wherein the position of the electrically conductive wires around the flow conduit is defined by a coordinate system having mutually orthogonal x and y axes extending in positive and negative directions in a first plane (P) from an origin (O) located at a geometrical centre of a cross-section of the flow conduit , the first plane (P) being orthogonal to a longitudinal direction (L-L) of the flow conduit , the coil system comprising first and second coils located on respective opposite sides of the x axis, characterised in that each of the first and second coils comprises K sub-coils , wherein K>1 and in each of the first and second coils the respective sub-coils are electrically connected together, wherein in each of the first and second coils the respective sub-coils are mutually circumferentially nested together and extend parallel to the longitudinal direction (L-L) of the flow conduit whereby each of the sub-coils , when viewed in cross-section orthogonal to the longitudinal direction (L-L), comprises a respective pair of wire batches on respective opposite sides of the y axis and the first and second coils cumulatively comprise a series of the wire batches which are mutually spaced around at least one first circular line surrounding a circumference of the flow conduit , each wire batch comprising a plurality of the electrically conductive wires crossing the first plane (P) in a direction orthogonal to the first plane (P), wherein there are 2K wire batches in each of the first and second coils and 4K wire batches in total in the first and second coils , wherein the wire batches of the first coil are located within the angular range 0 < θ < 180° and the wire batches of the second coil are located within the angular range 180 < θ < 360°, wherein the angle θ is defined as an angle relative to the x axis in the positive direction whereby the angle θ is 0° along the positive x axis and 180° along the negative x axis, a geometrical centre of the k th wire batch subtends an angle θ k , and each k th wire batch comprises N k wires and N k is proportional to |cos θ k |.
A mixture of a food and an oil/fat, comprising: an oil/fat composition comprising fine plant particles and a plant oil/fat; and a plant-derived dried food embedded in the oil/fat composition, wherein the fine plant particles have an average particle diameter of 0.3 μm or more and 30 μm or less, the plant oil/fat has fluidity at 20°C, the weight percentage of the fine plant particles is 10 mass% or more and 80 mass% or less in the oil/fat composition, and the particle diameter of the plant-derived dried food is 50 μm or more and 20 mm or less. the fine plant particles have an average particle diameter of 0.3 μm or more and 30 μm or less, the plant oil/fat has fluidity at 20°C, the weight percentage of the fine plant particles is 10 mass% or more and 80 mass% or less in the oil/fat composition, and the particle diameter of the plant-derived dried food is 50 μm or more and 20 mm or less.
A fluid distributor for the unpressurized, planar dispensing of a fluid, with - a distributor tub with a tub floor having an array of holes for discharging fluid, which extends over at least a partial surface of the tub floor , - an inlet through which a fluid to be distributed can be introduced into the distributor tub , such that the introduced fluid gathers on the tub floor , and - distribution elements , which each pass through an allocated hole of the array of holes in the tub floor , such that the fluid gathering on the tub floor can be discharged through still exposed hole areas that are not encompassed by the distribution elements extending through the holes , characterized in that the fluid distributor has a retaining device with a retaining plate , which is arranged opposite the tub floor and spaced apart therefrom, wherein the distribution elements protrude from the retaining plate in the direction of the tub floor , and are detachably and/or non-detachably arranged on the retaining plate, and loosely received into the holes in the tub floor . - a distributor tub with a tub floor having an array of holes for discharging fluid, which extends over at least a partial surface of the tub floor , - an inlet through which a fluid to be distributed can be introduced into the distributor tub , such that the introduced fluid gathers on the tub floor , and - distribution elements , which each pass through an allocated hole of the array of holes in the tub floor , such that the fluid gathering on the tub floor can be discharged through still exposed hole areas that are not encompassed by the distribution elements extending through the holes , characterized in that the fluid distributor has a retaining device with a retaining plate , which is arranged opposite the tub floor and spaced apart therefrom, wherein the distribution elements protrude from the retaining plate in the direction of the tub floor , and are detachably and/or non-detachably arranged on the retaining plate, and loosely received into the holes in the tub floor .
Method for the manufacture of a susceptor sheet material comprising an aerosol-forming gel , the method comprising: - providing a susceptor sheet material comprising at least one depression on both sides of the susceptor sheet material; - applying aerosol-forming gel to the at least one depression on both sides of the susceptor sheet material. - providing a susceptor sheet material comprising at least one depression on both sides of the susceptor sheet material; - applying aerosol-forming gel to the at least one depression on both sides of the susceptor sheet material.