mhurhangee/ep-ind-claims huggingface dataset:
A method of automated modification of computer program code for a manufacturing machine for an article of clothing, comprising: responsive to receiving a message parsing the received message into a first part comprising an identification of an item of clothing, and, a second part comprising at least one modification identifier representing a modification to be made to the item, wherein the modification identifier comprises a part identifier and a definition identifier, wherein the part identifier defines the part of the item to which the modification is to be made and the definition identifier defines the modification to be made to the part of the item; providing a template database to store templates of computer program code with a mapping between item identifiers and the stored templates, wherein each of the item identifiers is mapped to at least one of the stored templates, thereby associating each stored template with an item; and retrieving from the template database a template comprising the item in dependence on the first part; and parsing the second part to separate the part identifier and the definition identifier and providing an output of a value associated with the modification in dependence on the second part; adjusting the retrieved template associated with the item by modifying the output template with the value associated with the modification, wherein the modifying step comprises modifying a part of a computer program code for controlling a machine to manufacture the item. responsive to receiving a message parsing the received message into a first part comprising an identification of an item of clothing, and, a second part comprising at least one modification identifier representing a modification to be made to the item, wherein the modification identifier comprises a part identifier and a definition identifier, wherein the part identifier defines the part of the item to which the modification is to be made and the definition identifier defines the modification to be made to the part of the item; providing a template database to store templates of computer program code with a mapping between item identifiers and the stored templates, wherein each of the item identifiers is mapped to at least one of the stored templates, thereby associating each stored template with an item; and retrieving from the template database a template comprising the item in dependence on the first part; and parsing the second part to separate the part identifier and the definition identifier and providing an output of a value associated with the modification in dependence on the second part; adjusting the retrieved template associated with the item by modifying the output template with the value associated with the modification, wherein the modifying step comprises modifying a part of a computer program code for controlling a machine to manufacture the item.
A method of selecting an endpoint for a maximally redundant tree-fast reroute (MRT-FRR) detour path to optimize detour path cost or length across a network based on a destination node and next hop failure, the method comprising the steps performed by a node in the network of: selecting a candidate node (c) for the endpoint of a detour path from a set of clean nodes based on any one of a plurality of configured options, wherein the clean set of nodes are nodes in the network that are not impacted in reaching the destination node by the failure, wherein the distance between the candidate node (c) and the destination node is less than the combination of the distance between the candidate node (c) and the next hop and the distance between the next hop and the destination node; and configuring forwarding to the selected candidate as the endpoint of the detour path to the destination node. selecting a candidate node (c) for the endpoint of a detour path from a set of clean nodes based on any one of a plurality of configured options, wherein the clean set of nodes are nodes in the network that are not impacted in reaching the destination node by the failure, wherein the distance between the candidate node (c) and the destination node is less than the combination of the distance between the candidate node (c) and the next hop and the distance between the next hop and the destination node; and configuring forwarding to the selected candidate as the endpoint of the detour path to the destination node.
An aircraft comprising: multiple engines (224A, 224B); and a flight control system coupled to the multiple engines (224A, 224B) with a multi-engine interface, wherein the flight control system is configured to shutdown at least one engine of the multiple engines (224A, 224B) during reduced-engine operation when a current altitude of the aircraft exceeds a minimum required altitude for allowing the reduced-engine operation to be activated, characterised in that the flight control system is further configured to continuously calculate the minimum altitude for the reduced-engine operation based on one or more of an aircraft descent rate of the aircraft and an engine restart time of the at least one engine (224A, 224B). multiple engines (224A, 224B); and a flight control system coupled to the multiple engines (224A, 224B) with a multi-engine interface, wherein the flight control system is configured to shutdown at least one engine of the multiple engines (224A, 224B) during reduced-engine operation when a current altitude of the aircraft exceeds a minimum required altitude for allowing the reduced-engine operation to be activated, characterised in that the flight control system is further configured to continuously calculate the minimum altitude for the reduced-engine operation based on one or more of an aircraft descent rate of the aircraft and an engine restart time of the at least one engine (224A, 224B).
Electrical device, wherein the device has a housing and a housing cover which is connected, in particular in a detachable manner, to the housing and is designed to close a housing opening of the housing, wherein at least one electrical component (6, 8, 3) of the electrical device is accommodated in the housing, the housing cover has an outwardly pointing electrical connection for power supply to and/or power output from the device, which electrical connection is connected to the housing cover and is designed to be connected to a mating connection which is connected to the housing, wherein the housing cover is a plastic cover, and the electrical connection is embedded in the housing cover by way of at least one part, wherein a part of the connection, which part is designed for connection to the mating connection, forms a contact which projects out of the housing cover, wherein the electrical connection has, as contact, an outwardly pointing connection pin, characterized in that that part of the electrical connection which is embedded in the housing cover has at least one retaining lug (21, 30, 31) which extends such that it points radially away in a flat extent of the housing cover.
A tether clip to be coupled to a pillar garnish having a tether housing portion provided with a bottom wall having a tether inserting aperture, the tether clip including a tether and an anchor, the tether including a tip, a seat-side end and a tether intermediate portion, the tether extending along one plane, the anchor being connected to the tip of the tether and extending in a direction perpendicular to the one plane, characterized in that the tether intermediate portion includes a pair of guide plates extending parallel to the one plane, respective guide plates of the pair of guide plates extending in directions away from the tether intermediate portion and opposite to each other, the pair of guide plates has two sides located on opposite sides of a guide plate-provided portion of the tether intermediate portion and opposing each other, and a distance between points located on the two sides increases, as the points located on the two sides approach the tip of the tether, a protrusion protruding in a direction toward the anchor is formed at a portion of each guide plate of the pair of guide plates opposing the anchor, and a space is provided between an anchor-side end of the protrusion and the anchor, the space being larger than a thickness of the bottom wall of the tether housing portion.
A method for producing a heavy chain, VH domain or an antibody specific to a target antigen, wherein the heavy chain, VH domain or antibody comprises an HCDR3 at least 20 amino acids in length, the method comprising providing a non human vertebrate, optionally a mouse or a rat, that has a genome comprising an immunoglobulin heavy chain locus comprising unrearranged human gene segment JH6*02, one or more VH gene segments and one or more D gene segments upstream of a constant region; wherein the gene segments in the heavy chain locus are operably linked to the constant region thereof so that the vertebrate is capable of producing an antibody heavy chain produced by recombination of the human JH6*02 with a human D segment and a human VH segment, wherein the JH6*02 gene segment comprises the following nucleotide sequence: ATTACTA CTACTACTAC GGTATGGACG TCTGGGGCCA AGGGACCACG GTCACCGTCT CCTCAG, and wherein the vertebrate has been immunised with the target antigen and produces an antibody heavy chain specific for the target antigen wherein the variable domain of the heavy chain is the product of recombination between a human VH, D and JH6*02 and wherein the HCDR3 length is at least 20 amino acids, and isolating from the non-human vertebrate the heavy chain, VH domain or an antibody specific to the target antigen or a cell producing the heavy chain, VH domain or antibody, wherein the heavy chain, VH domain or antibody comprises a HCDR3 that is derived from the recombination of human JH6*02 with a human VH gene segment and a human D gene segment, optionally wherein the constant region of the locus is a non-human vertebrate (e.g., mouse or rat) constant region, and the non-human constant region of the isolated heavy chain or antibody is replaced with a human constant region.
Method for diagnosis on a load path in a vehicle, wherein the load path comprises a DC voltage source, a switchable load that is permanently connected to a negative pole (-) and a load switch that is permanently connected to a positive pole (+) and that can be controlled by means of a load control signal (S L), wherein when the load switch is in the closed state it is possible for a load current (I L) to be carried by the switchable load, wherein during the diagnosis a switchable test current (I T) having a defined level is produced and is output to the switchable load via a test switch at an output connection on the basis of a test control signal (S T), wherein a resultant voltage (U OUT, U OUT ', U OUT ") at the output connection is sensed, conditioned and evaluated, wherein the load switch is open during the diagnosis, wherein the test control signal (S T) and the resultant switching state of the test switch are used to produce at least two different diagnosis cases, wherein the at least two different diagnosis cases comprise static and dynamic diagnosis cases, wherein, in order to recognize and distinguish between different load path states, the static and dynamic diagnosis cases are combined, wherein in a first static diagnosis case the resultant voltage (U OUT, U OUT ', U OUT ") at the output connection is sensed when the test switch is open, and the corresponding conditioned test voltage (U IO, U IO ', U IO ", U IO1, U IO2, U IOn,) is evaluated, wherein in a second static diagnosis case the resultant voltage (U OUT, U OUT ', U OUT ") at he output connection is sensed when the test switch is closed, and the corresponding conditioned test voltage (U IO, U IO ', U IO ", U IO1, U IO2, U IOn) is evaluated, wherein the conditioned test voltage (U IO, U IO ', U IO ", U IO1, U IO2, U IOn) is only ever evaluated after a prescribed period of time in the steady state has elapsed, characterized in that a nominal inductive switchable load can be recognized when the corresponding conditioned test voltage (U IO, U IO ', U IO ", U IO1, U IO2, U IOn) has a low level in the first static diagnosis case and in the second static diagnosis case.
Method for sorting potato products which are being moved in a product flow through a detection zone, whereby unwanted products in this product flow are detected and separated from the product flow, whereby in said detection zone, a beam of light having a wave length between 350 and 450 nm is directed to said products, and whereby the intensity of the light which is emitted by the products is detected in a detection band of 460 to 600 nm, whereby a product will be qualified as an undesirable product and will be separated from the product flow if said intensity is lower than a preset value, whereby in said detection band, the presence of a fluorescence peak is detected, whereby a product will be qualified as an undesirable product and will be separated from the product flow if said fluorescence peak is not present.
A liquid hand dishwashing detergent composition comprising from 5.0% to 50% by weight of the liquid hand dishwashing detergent composition of a surfactant system, wherein the surfactant system comprises: a. anionic surfactant, wherein the anionic surfactant comprises: i. alkyl sulfate anionic surfactant, and ii. glyceryl acetal sulfate surfactant, wherein the glyceryl acetal sulfate surfactant is selected from glyceryl acetal sulfate having the formula I or formula II or salts thereof, and mixtures thereof: wherein R1 is an alkyl chain comprising from 7 to 18 carbon atoms; wherein R2 is an alkyl chain comprising from 7 to 18 carbon atoms. a. anionic surfactant, wherein the anionic surfactant comprises: i. alkyl sulfate anionic surfactant, and ii. glyceryl acetal sulfate surfactant, wherein the glyceryl acetal sulfate surfactant is selected from glyceryl acetal sulfate having the formula I or formula II or salts thereof, and mixtures thereof: wherein R1 is an alkyl chain comprising from 7 to 18 carbon atoms; wherein R2 is an alkyl chain comprising from 7 to 18 carbon atoms. i. alkyl sulfate anionic surfactant, and ii. glyceryl acetal sulfate surfactant, wherein the glyceryl acetal sulfate surfactant is selected from glyceryl acetal sulfate having the formula I or formula II or salts thereof, and mixtures thereof: wherein R1 is an alkyl chain comprising from 7 to 18 carbon atoms; wherein R2 is an alkyl chain comprising from 7 to 18 carbon atoms.
Container for processing and/or transporting a biopharmaceutical fluid, the container comprising a wall, the wall comprising a shape memory material being adapted to change shape when induced by an external stimulus, so that the container can be alternately in a collapsed state and in an unfolded state, the wall of the container in the unfolded state delimiting an internal cavity adapted to contain the biopharmaceutical fluid, in which an internal pouch made of plastic material, flexible and leak-tight, is arranged in the internal cavity, the internal pouch being suited and intended to receive the biopharmaceutical fluid.
A method of determining the presence or absence of an antibody that specifically binds to a bovine viral diarrhea virus (BVDV) E rns protein in a competitive ELISA, assay, said method comprising the steps of: a) incubating a cattle serum sample in the presence of pronghorn pestivirus E rns protein to which antibodies that cross-react with wild-type BVDV E rns protein are able to bind, wherein said sample is incubated either prior to or simultaneously with step b); b) adding said incubated sample to an assay plate coated with the BVDV E rns protein to which said antibody to be detected binds specifically; and c) subsequently detecting in said sample the presence or absence of said antibody. a) incubating a cattle serum sample in the presence of pronghorn pestivirus E rns protein to which antibodies that cross-react with wild-type BVDV E rns protein are able to bind, wherein said sample is incubated either prior to or simultaneously with step b); b) adding said incubated sample to an assay plate coated with the BVDV E rns protein to which said antibody to be detected binds specifically; and c) subsequently detecting in said sample the presence or absence of said antibody.
A computer implemented method, including: storing multiple data elements in a first buffer, wherein the data elements stored in the first buffer are sorted according to a predetermined order; removing a portion of the data elements (118, 120) from the first buffer and storing the removed portion of the data elements (118, 120) in a second buffer in response to detecting an overflow condition of the first buffer, wherein the removed portion of the data elements (118, 120) is stored in the second buffer according to the predetermined order, and wherein the overflow condition occurs when the first buffer reaches its capacity based upon its maximum physical memory size; inserting a proxy data element in the first buffer to represent the portion of data elements stored to the second buffer; applying a boundary condition to the data elements stored in the first buffer, wherein the boundary condition is representative of a maximum allowable difference between any two data elements stored in the first buffer; upon determining that the boundary condition is violated, ejecting from the first buffer one or more data elements according to an ejection priority order; and in response to the proxy element becoming a highest ejection priority element in the first buffer, merging one or more data elements of the portion of data elements that are stored in the second buffer back into the first buffer, wherein the one or more data elements that are merged back into the first buffer are stored in the first buffer according to the predetermined order. storing multiple data elements in a first buffer, wherein the data elements stored in the first buffer are sorted according to a predetermined order; removing a portion of the data elements (118, 120) from the first buffer and storing the removed portion of the data elements (118, 120) in a second buffer in response to detecting an overflow condition of the first buffer, wherein the removed portion of the data elements (118, 120) is stored in the second buffer according to the predetermined order, and wherein the overflow condition occurs when the first buffer reaches its capacity based upon its maximum physical memory size; inserting a proxy data element in the first buffer to represent the portion of data elements stored to the second buffer; applying a boundary condition to the data elements stored in the first buffer, wherein the boundary condition is representative of a maximum allowable difference between any two data elements stored in the first buffer; upon determining that the boundary condition is violated, ejecting from the first buffer one or more data elements according to an ejection priority order; and in response to the proxy element becoming a highest ejection priority element in the first buffer, merging one or more data elements of the portion of data elements that are stored in the second buffer back into the first buffer, wherein the one or more data elements that are merged back into the first buffer are stored in the first buffer according to the predetermined order.
A kit of parts comprising at least one balloon (31 to 35) of elastomeric material, a pack of sheet material (11 to 14) and at least one patch (21 to 25) carried as a peelable patch on one surface of the pack, the or each patch having its peelable surface provided with adhesive means and having an opening in a generally central region so that it may be removed from the pack and affixed to the balloon after inflation so as to prevent propagation of a tear caused by the balloon being punctured at a location within the opening defined by the patch by a pin or other sharp object.
A stereoscopic projection system, comprising: a relay lens subsystem operable to receive a stereoscopic image frame from an input light path and convey the stereoscopic image frame to an intermediate image plane, the stereoscopic image frame having first image area light and second image area light which comprise a left eye image and a right eye image, respectively; a light splitting subsystem operable to receive the stereoscopic image frame at the intermediate image plane and split the first and second image area light, to direct the first image area light on a first image light path, and to direct the second image area light on a second image light path; and a projection lens subsystem operable to direct the first and second image area light toward a screen. a relay lens subsystem operable to receive a stereoscopic image frame from an input light path and convey the stereoscopic image frame to an intermediate image plane, the stereoscopic image frame having first image area light and second image area light which comprise a left eye image and a right eye image, respectively; a light splitting subsystem operable to receive the stereoscopic image frame at the intermediate image plane and split the first and second image area light, to direct the first image area light on a first image light path, and to direct the second image area light on a second image light path; and a projection lens subsystem operable to direct the first and second image area light toward a screen.
Composition for reducing and/or preventing damage to a plant caused by Verticillium sp., the composition having as an active component an effective quantity of Verticillium sp., and Verticillium sp. being an apathogenic strain and a temperature-dependently pathogenic strain and at least two Verticillium strains being combined.
An electrochemical H 2 S sensor comprising: a housing; an electrolyte disposed within the housing; and a plurality of electrodes (24, 16) in contact with the electrolyte within the housing, wherein the plurality of electrodes (24, 16) comprise a working electrode and a counter electrode, wherein a surface area of the working electrode in contact with the electrolyte is less than a surface area of the counter electrode in contact with the electrolyte, wherein the working electrode comprises a perfluorosulfonic acid ion-exchange resin and Pt-Ru disposed on a perfluorosulfonic acid ion-exchange resin membrane, and wherein the working electrode comprises an additional catalytic material; characterized in that the additional catalytic material comprises Ir, and the counter electrode comprises a perfluorosulfonic acid ion-exchange resin and Pt-Ru disposed on a perfluorosulfonic acid ion-exchange resin membrane. a housing; an electrolyte disposed within the housing; and a plurality of electrodes (24, 16) in contact with the electrolyte within the housing, wherein the plurality of electrodes (24, 16) comprise a working electrode and a counter electrode, wherein a surface area of the working electrode in contact with the electrolyte is less than a surface area of the counter electrode in contact with the electrolyte, wherein the working electrode comprises a perfluorosulfonic acid ion-exchange resin and Pt-Ru disposed on a perfluorosulfonic acid ion-exchange resin membrane, and wherein the working electrode comprises an additional catalytic material; characterized in that the additional catalytic material comprises Ir, and the counter electrode comprises a perfluorosulfonic acid ion-exchange resin and Pt-Ru disposed on a perfluorosulfonic acid ion-exchange resin membrane.