mhurhangee/ep-ind-claims huggingface dataset:
A method of avoiding a collision while operating a vehicle in reverse comprising: detecting an object proximate to a vehicle with at least one sensor including detecting objects located along side of a vehicle; determining a predicted vehicle path, including a tracking path for front wheels of the vehicle; determining a probability with a controller located within the vehicle of collision of one of the front corner and a side of the vehicle with the object while the vehicle is travelling in reverse; and determining at least one collision avoidance response with the controller based on the probability of collision characterized by determining the predicted vehicle path includes determining an offset of the front wheel path, from the rear wheel path based upon a steering angle of the vehicle wherein the at least one collision avoidance action is applying the vehicle brakes with the automatic brake system in particular wherein applying the vehicle brakes further includes sending instructions to an electronic brake system to apply the vehicle brake. detecting an object proximate to a vehicle with at least one sensor including detecting objects located along side of a vehicle; determining a predicted vehicle path, including a tracking path for front wheels of the vehicle; determining a probability with a controller located within the vehicle of collision of one of the front corner and a side of the vehicle with the object while the vehicle is travelling in reverse; and determining at least one collision avoidance response with the controller based on the probability of collision characterized by determining the predicted vehicle path includes determining an offset of the front wheel path, from the rear wheel path based upon a steering angle of the vehicle wherein the at least one collision avoidance action is applying the vehicle brakes with the automatic brake system in particular wherein applying the vehicle brakes further includes sending instructions to an electronic brake system to apply the vehicle brake.
A method of forming a bicycle frame comprising: providing at least one seat blank (32, 34) having a first side and a second side opposite the first side; characterized in that the method further comprises the step of forming at least a portion of a bottom bracket area of a frame around the at least one seat blank (32, 34) such that the bottom bracket area of the frame prevents movement of the seat blank (32, 34) relative to the frame; and machining the bottom bracket area of the frame and the seat blank (32, 34) such that the bottom bracket area of the frame can receive a bottom bracket bearing (82, 84); wherein the step of machining the bottom bracket area of the frame occurs after the step of forming the portion of the bottom bracket area of the frame. providing at least one seat blank (32, 34) having a first side and a second side opposite the first side; characterized in that the method further comprises the step of forming at least a portion of a bottom bracket area of a frame around the at least one seat blank (32, 34) such that the bottom bracket area of the frame prevents movement of the seat blank (32, 34) relative to the frame; and machining the bottom bracket area of the frame and the seat blank (32, 34) such that the bottom bracket area of the frame can receive a bottom bracket bearing (82, 84); wherein the step of machining the bottom bracket area of the frame occurs after the step of forming the portion of the bottom bracket area of the frame.
A network correlation engine (CE-1, CE-2, CE-3, CE-4), configured to be coupled to a telecommunication network, comprising first, second, and third event analysis blocks (Bn, B1, B2, B3, B4), each of the first, second, and third event analysis blocks comprising: - a root cause analysis module (RCn, RC1, RC2, RC3, RC4, RC4') configured to receive an event notification (Am, A1, A1', A2, A3, A4) from a network section (Sm, S1, S2, S3, S4) of the telecommunication network, the event notification being in response to the network section detecting an event relating to the network section, and to output a root cause analysis result (RRn, RR1, RR2, RR3, RR4, RR4, RR4'), and - a service analysis module (SAn, SA1, SA1', SA2, SA3, SA4) configured to receive the root cause analysis result from the root cause analysis module and to output a service impact analysis result (SRn, SR1, SR1', SR2, SR3, SR4), wherein the root cause analysis module of the first event analysis block is further configured to: - receive the root cause analysis result from the root cause analysis module of the second event analysis block, and - provide its root cause analysis result to the root cause analysis module of the third event analysis block, and wherein the service analysis module of the first event analysis block is further configured to: - receive the service impact analysis result from the service analysis module of the third event analysis block, and - provide its service impact analysis result to the service analysis module of the second event analysis block, wherein the first event analysis block has a lower logical level than the second event analysis block and a higher logical level than the third event analysis block, wherein the blocks are configured and arranged such that the increasing logical levels correspond to blocks less to more logically defined, and the decreasing logical levels correspond to blocks less to more physically defined. - a root cause analysis module (RCn, RC1, RC2, RC3, RC4, RC4') configured to receive an event notification (Am, A1, A1', A2, A3, A4) from a network section (Sm, S1, S2, S3, S4) of the telecommunication network, the event notification being in response to the network section detecting an event relating to the network section, and to output a root cause analysis result (RRn, RR1, RR2, RR3, RR4, RR4, RR4'), and - a service analysis module (SAn, SA1, SA1', SA2, SA3, SA4) configured to receive the root cause analysis result from the root cause analysis module and to output a service impact analysis result (SRn, SR1, SR1', SR2, SR3, SR4), - receive the root cause analysis result from the root cause analysis module of the second event analysis block, and - provide its root cause analysis result to the root cause analysis module of the third event analysis block, and - receive the service impact analysis result from the service analysis module of the third event analysis block, and - provide its service impact analysis result to the service analysis module of the second event analysis block,
A process for fabricating a substrate for a front-side image sensor, comprising: - providing a donor substrate comprising a semiconductor layer to be transferred; - providing a semiconductor support substrate; - bonding the donor substrate to the support substrate, an electrically insulating layer being at the bonding interface; - transferring the semiconductor layer to the support substrate; - implanting gaseous ions into the support substrate through the transferred semiconductor layer and the electrically insulating layer; - after said implantation, epitaxially growing an additional semiconductor layer on top of the transferred semiconductor layer. - providing a donor substrate comprising a semiconductor layer to be transferred; - providing a semiconductor support substrate; - bonding the donor substrate to the support substrate, an electrically insulating layer being at the bonding interface; - transferring the semiconductor layer to the support substrate; - implanting gaseous ions into the support substrate through the transferred semiconductor layer and the electrically insulating layer; - after said implantation, epitaxially growing an additional semiconductor layer on top of the transferred semiconductor layer.
A laminate comprising a structure comprising, in order, an olefin-type rubber layer; an adhesive resin layer containing a silane-modified ethylene/vinyl acetate copolymer; and a layer containing a rubber containing Group 16 elements and/or Group 17 elements. an olefin-type rubber layer; an adhesive resin layer containing a silane-modified ethylene/vinyl acetate copolymer; and a layer containing a rubber containing Group 16 elements and/or Group 17 elements.
A zinc alloy electroplating method comprising applying a current through an alkaline zinc alloy electroplating bath comprising a cathode and an anode, wherein: a cathode region including the cathode and an anode region including the anode are separated from each other by a separator comprising a three-layered composite membrane in which an anion exchange membrane, a membrane of an electrically conductive electrolyte gel and another anion exchange membrane are stacked in this order, the electrically conductive electrolyte gel is an electrolyte gel of a water-absorbing synthetic polymer swollen by absorption of an aqueous sodium hydroxide solution as an electrolyte, the water-absorbing synthetic polymer comprises one or more selected from the group consisting of polyvinyl alcohol, polyethylene glycol, poly(carboxylic acids), and modified products thereof selected from sodium salts, or products of modification by introducing carboxy groups, sulfone groups, or cationic functional groups, an anolyte contained in the anode region is an aqueous alkaline solution, and a catholyte contained in the cathode region is an alkaline zinc alloy plating liquid comprising an amine-based chelating agent. a cathode region including the cathode and an anode region including the anode are separated from each other by a separator comprising a three-layered composite membrane in which an anion exchange membrane, a membrane of an electrically conductive electrolyte gel and another anion exchange membrane are stacked in this order, the electrically conductive electrolyte gel is an electrolyte gel of a water-absorbing synthetic polymer swollen by absorption of an aqueous sodium hydroxide solution as an electrolyte, the water-absorbing synthetic polymer comprises one or more selected from the group consisting of polyvinyl alcohol, polyethylene glycol, poly(carboxylic acids), and modified products thereof selected from sodium salts, or products of modification by introducing carboxy groups, sulfone groups, or cationic functional groups, an anolyte contained in the anode region is an aqueous alkaline solution, and a catholyte contained in the cathode region is an alkaline zinc alloy plating liquid comprising an amine-based chelating agent.
A method for defending a communication network from adversarial attack using a distributed infrastructure that leverages coordination across disparate abstraction levels, comprising: at each of a plurality of node computing devices comprising a communication network, using a stored event list to detect at least one low-level node event comprising attempts to execute, inject code at a machine code or hardware instruction level directed to the node computing device, which is known to have potential to interfere directly with the operation of the node; and responsive to detecting the at least one node event at one of the plurality of network nodes, automatically selectively determining an optimal network-level defensive action involving a plurality of network nodes comprising the communication network, the network-level defensive action based on the at least one detected node event and upon a set of known communication requirements established for said network. at each of a plurality of node computing devices comprising a communication network, using a stored event list to detect at least one low-level node event comprising attempts to execute, inject code at a machine code or hardware instruction level directed to the node computing device, which is known to have potential to interfere directly with the operation of the node; and responsive to detecting the at least one node event at one of the plurality of network nodes, automatically selectively determining an optimal network-level defensive action involving a plurality of network nodes comprising the communication network, the network-level defensive action based on the at least one detected node event and upon a set of known communication requirements established for said network.
A remote operation assistance server comprising: an evaluation result recognition element that communicates with a work machine comprising an actual machine operation mechanism and a mode switching mechanism that switches an actual machine operation mode in which the work machine is operated in accordance with an operation aspect of the actual machine operation mechanism to a remote operation mode in which the work machine is operated in accordance with an operation aspect of a remote operation mechanism that forms a remote operation apparatus and vice versa, and recognizes as a first evaluation result a result of evaluation of whether or not the mode switching mechanism has switched the operation mode to the remote operation mode, based on the communication, characterized in that the evaluation result recognition element further recognizes as a second evaluation result a result of evaluation of whether or not short-range wireless communication between the work machine and a portable terminal has been established, based on the communication; and in that the remote operation assistance server further comprises: a first assistance processing element that carries out a first assistance process of permitting remote operation of the work machine using the remote operation apparatus based on communication with each of the remote operation apparatus and the work machine when the first evaluation result recognized by the evaluation result recognition element is affirmative and the second evaluation result recognized by the evaluation result recognition element is negative; and a second assistance processing element that carries out a second assistance process of prohibiting remote operation of the work machine using the remote operation apparatus when the first and second evaluation results recognized by the evaluation result recognition element are affirmative. a first assistance processing element that carries out a first assistance process of permitting remote operation of the work machine using the remote operation apparatus based on communication with each of the remote operation apparatus and the work machine when the first evaluation result recognized by the evaluation result recognition element is affirmative and the second evaluation result recognized by the evaluation result recognition element is negative; and a second assistance processing element that carries out a second assistance process of prohibiting remote operation of the work machine using the remote operation apparatus when the first and second evaluation results recognized by the evaluation result recognition element are affirmative.
Shelf-stable dairy mousse in the form of an aerated oil-in-water emulsion, the shelf-stable dairy mousse comprising a dairy base, a fat source, an emulsifier and a hydrocolloid-based stabilizer system, characterized in that said shelf-stable dairy mousse has a fat content from 4 to 14 wt % with respect to the shelf-stable dairy mousse, in that the fat source comprises milk fat and cocoa fat, wherein the weight ratio of milk fat: vegetable fat varies from 25: 75 to 60: 40, and in that the hydrocolloid-based stabilizer system is selected from the group consisting of agar-agar, alginates, carrageenan, caseinates, gellan, gelatin, and combinations thereof, wherein the hydrocolloid-based stabilizer system is present in the range from 0.5 wt % to 2.5 wt %, with respect to the shelf-stable dairy mousse, wherein the mousse has a water activity (Aw) of from 0.70 to 0.99, and wherein said dairy mousse is stable on storage at a temperature of 20°C to 30°C, over at least 3 months up to 6 months.
A method for controlling a plurality of n LLM coils (L1,..., Ln) of a long-stator linear motor stator, characterized in that a first operating potential is applied to n first input terminals (A1,..., An) of n half bridges (HB1,..., HBn), a second operating potential is applied to n second input terminals (B1,..., Bn) of the n half bridges; that for each half bridge (HB1,... HBn), a first switch (S11,..., S1n) is connected between a center point (C1,..., Cn) of the respective half bridge (HB1,..., HBn) and the first input terminal (A1,..., An), and a second switch (S21,..., S2n) is connected between the center point (C1,..., Cn) of the relevant half bridge (HB1,..., HBn) and the second input terminal (B1,..., Bn); that the center point (C1,..., Cn) of the n half bridges is, in each case, connected to n first terminals (L11,..., L1n) of the n LLM coils (L1,..., Ln); and that the second terminals (L11,..., L1n) of the n LLM coils (L1,..., Ln) are connected in a control point that is regulated to a predetermined potential (Ux).
A liquid crystal display device, comprising: a control unit configured to control luminance of a backlight using PWM dimming, wherein the backlight comprises n number of edge-lit arranged backlight blocks configured to be turned on at different timings, n being equal to or greater than 4, and the n number of backlight blocks are turned on in an order different from the order in which the n number of backlight blocks are physically arranged, and characterised in that a duty ratio of the backlight is less than (100/n)% a control unit configured to control luminance of a backlight using PWM dimming, wherein the backlight comprises n number of edge-lit arranged backlight blocks configured to be turned on at different timings, n being equal to or greater than 4, and the n number of backlight blocks are turned on in an order different from the order in which the n number of backlight blocks are physically arranged, and characterised in that a duty ratio of the backlight is less than (100/n)%
A filter assembly comprising a tubular housing and a filter device comprising an open end and a closed end and being located in and extending longitudinally within the tubular housing, the tubular housing comprising a first receptacle for mixing, the first receptacle having an open end and a closed end; and a second receptacle for receiving filtrate, the second receptacle having an open end and a closed end; the filter device being structured and arranged to be enclosed by said first and second receptacles and the open ends of the first and second receptacles each being closeable by the filter device when located to extend longitudinally therein, such that an enclosed filter assembly is formed wherein the filter device comprises a lattice structure of crossing internal and external elongated elements, the lattice structure thereby defining an arrangement of pores, wherein the external elongated elements are presented outwardly of the filter device with respect to the plane of the pores, thereby to provide ribs on the exterior of the lattice structure which are shaped and arranged to provide a first level filter for larger particles, characterized in that the external elongated elements are further shaped and arranged to provide one or more additional filter levels for smaller particles in advance of said pores, through which yet even smaller particles may pass, the external elongated elements being shaped and arranged by having one or more side walls that are shaped in a stepped or castellated manner in order to provide at least three levels of filtration.
A method for detecting a malicious file, comprising: monitoring a file during execution of the file within a computer system; forming a feature vector based on behavioral data during the execution of the file, wherein features of the feature vector characterize the behavioral data, and wherein the feature vector represents a convolution of the behavioral data in the form of a set of numbers; calculating parameters based on the feature vector using a trained model for calculation of parameters, wherein the parameters comprise: i) a degree of maliciousness that is a probability that the file may be malicious, and ii) a limit degree of safety that is a probability that the file will definitely prove to be safe, wherein an aggregate of consecutively calculated degrees is described by a predetermined time law; and deciding that the file is malicious when the degree of maliciousness and the limit degree of safety satisfy a predetermined criterion, wherein that criterion is a rule for the classification of the file according to an established correlation between the degree of maliciousness and the limit degree of safety. monitoring a file during execution of the file within a computer system; forming a feature vector based on behavioral data during the execution of the file, wherein features of the feature vector characterize the behavioral data, and wherein the feature vector represents a convolution of the behavioral data in the form of a set of numbers; calculating parameters based on the feature vector using a trained model for calculation of parameters, wherein the parameters comprise: i) a degree of maliciousness that is a probability that the file may be malicious, and ii) a limit degree of safety that is a probability that the file will definitely prove to be safe, wherein an aggregate of consecutively calculated degrees is described by a predetermined time law; and deciding that the file is malicious when the degree of maliciousness and the limit degree of safety satisfy a predetermined criterion, wherein that criterion is a rule for the classification of the file according to an established correlation between the degree of maliciousness and the limit degree of safety.
An upper for an article of footwear comprising a knitted component extending through a heel area, the upper comprising: a first knitted portion that forms part of an outer surface of the upper, the first knitted portion comprising a double jersey knit structure, a second knitted portion that forms part of an inner surface of the upper, the second knitted portion at least partially coextensive with the first knitted portion; an interstitial space located between the first knitted portion and the second knitted portion; a knitted connection structure connecting the first knitted portion and the second knitted portion, wherein the upper includes a lateral heel area and a medial heel area that meet at a heel seam, and wherein the upper is characterized in that the knitted connection structure is configured such that one of the first knitted portion and the second knitted portion is inverted around the knitted connection structure and with respect to the other one of the first knitted portion and the second knitted portion such that a first interstitial surface of the first knitted portion and a second interstitial surface of the second knitted portion become adjacent to each other and such that the upper is in its folded state. a first knitted portion that forms part of an outer surface of the upper, the first knitted portion comprising a double jersey knit structure, a second knitted portion that forms part of an inner surface of the upper, the second knitted portion at least partially coextensive with the first knitted portion; an interstitial space located between the first knitted portion and the second knitted portion; a knitted connection structure connecting the first knitted portion and the second knitted portion, wherein the upper includes a lateral heel area and a medial heel area that meet at a heel seam, and wherein the upper is characterized in that the knitted connection structure is configured such that one of the first knitted portion and the second knitted portion is inverted around the knitted connection structure and with respect to the other one of the first knitted portion and the second knitted portion such that a first interstitial surface of the first knitted portion and a second interstitial surface of the second knitted portion become adjacent to each other and such that the upper is in its folded state.