mhurhangee/patent-ind-claim-en huggingface dataset:
A method of navigating a rock drilling rig in a mining tunnel (M), which mining tunnel (M) is created by utilizing drilling and blasting method wherein rock material is removed in several successive rounds , the method comprising: positioning the rock drilling rig at faces of the successive rounds ; executing the navigation for each round before initiating drilling by means of the rock drilling rig ; and attaching in the navigation a coordinate system of the rock drilling rig to a mine coordinate system; characterized in that the method further comprises determining a mining tunnel line for the realized mining tunnel (M) by combining navigation data of the several successive realized rounds , whereby the navigation is executed without a pre-determined mining tunnel line . positioning the rock drilling rig at faces of the successive rounds ; executing the navigation for each round before initiating drilling by means of the rock drilling rig ; and attaching in the navigation a coordinate system of the rock drilling rig to a mine coordinate system; characterized in that the method further comprises determining a mining tunnel line for the realized mining tunnel (M) by combining navigation data of the several successive realized rounds , whereby the navigation is executed without a pre-determined mining tunnel line .
A cyber attack information processing apparatus comprising: a storage device storing a cyber threat intelligence DB and connected to a first system and a second system , a processor configured to when the first system obtains first information regarding a cyber attack from a first terminal, store the first information in a state that the first information is accessible to the second terminal that is capable of accessing the first system , convert the first information having a first data structure into second information having a second data structure usable by a second system wherein the second information is to be provided for the second system , when the second system obtains third information regarding another cyber attack, convert the third information having the second data structure into fourth information having the first data structure, and provide the second terminal with the fourth information; wherein the first system is an information posting system delivering information posted by a user terminal to another user terminal and the second system is a cyber threat intelligence management system; wherein the second information and the fourth information are to be transmitted to the storage device in accordance with a specific communication protocol that is used to transmit information regarding a cyber attack. a storage device storing a cyber threat intelligence DB and connected to a first system and a second system , a processor configured to when the first system obtains first information regarding a cyber attack from a first terminal, store the first information in a state that the first information is accessible to the second terminal that is capable of accessing the first system , convert the first information having a first data structure into second information having a second data structure usable by a second system wherein the second information is to be provided for the second system , when the second system obtains third information regarding another cyber attack, convert the third information having the second data structure into fourth information having the first data structure, and provide the second terminal with the fourth information; wherein the first system is an information posting system delivering information posted by a user terminal to another user terminal and the second system is a cyber threat intelligence management system; wherein the second information and the fourth information are to be transmitted to the storage device in accordance with a specific communication protocol that is used to transmit information regarding a cyber attack.
A carbodiimide-based aqueous resin crosslinking agent comprising a polycarbodiimide (A) having substituents derived from hydrophilic organic compounds at both terminals thereof, at least one of the substituents being a substituent derived from a hydrophilic organic compound having a molecular weight of 340 or more, and a polycarbodiimide (B) having substituents derived from organic compounds having a molecular weight of 300 or less at both terminals thereof, wherein the mass ratio [(B)/(A)] of the polycarbodiimide (B) to the polycarbodiimide (A) is from 20/80 to 95/5, [insertion see end of next page]
A system for moving items on a rig floor , the system comprising a plurality of skids and a network of rails for guiding the plurality of skids, each skid of said plurality of skids for supporting an item , and each skid having rail engagement members for engaging at least one rail of said network of rails wherein said network of rails further comprises at least one predetermined parking spot , characterised in that the system further comprises a master computer control system , wherein a parking sensor is provided to obtain parking location information to indicate that the skid is parked at said predetermined parking spot and relaying the parking location information to the master computer control system.
Process for removing nitrogen oxides from offgases from industrial plants by means of chemical reduction, wherein at least two different nitrogen-containing reducing agents are introduced into the stream of the nitrogen oxide-containing offgases, wherein ammonia and urea in the form of their aqueous solutions are used as different reducing agents, wherein the reducing agents are introduced into the offgas stream at different times and/or physically separately, wherein the reducing agents are introduced in atomized form into the offgas stream by means of atomizing introduction lances, wherein at least one temperature profile of the offgases in the form of a plane is determined, wherein the atomizing introduction lances are controlled individually or in groups on the basis of the measured temperature profile of the offgases, and wherein the amount of the reducing agents introduced into the offgas and/or the point in time of introducing the reducing agents into the offgas stream is controlled via determination of the offgas temperature and/or the residual nitrogen oxide content of the pure gas obtained after the treatment.
Product semantics determining device (PSDD) for use in a system for searching a product on the internet said product being similar to a first product, said system comprising a product searching device, adapted to search said product on the internet, CHARACTERISED IN THAT said Product semantics determining device (PSDD) comprises a product semantics determining part (PSDP), adapted to determine semantics of said first product based on a tag associated to said first product; and - a product semantics interpreting part (PSIP), adapted to interpret said product semantics of said first product and generate at least one search criterion corresponding to said product semantics of said first product; and - a product semantics modification part (PSMP), coupled between said product semantics determining part (PSDP) and said product semantics interpreting part (PSIP), that is adapted to modify said semantics of said first product based on preferences of a user. - a product semantics interpreting part (PSIP), adapted to interpret said product semantics of said first product and generate at least one search criterion corresponding to said product semantics of said first product; and - a product semantics modification part (PSMP), coupled between said product semantics determining part (PSDP) and said product semantics interpreting part (PSIP), that is adapted to modify said semantics of said first product based on preferences of a user.
A method for guiding a probe inside a constrained space , wherein the probe is a hyper-redundant manipulator comprising a plurality of independently-orientable connected segments extendable between a proximal end and a distal end inside the constrained space, the method including the steps of: determining: an initial point (p 1 ) where the probe intersects a predetermined curve (C) which defines a circle or part circle within said space; and an initial bend for the probe between an entry point on a surface of the constrained space and the initial point; and, repeatedly: determining a new orientation of said segments which results in an advancement of the distal end to a new position which is on said curve, the new orientation being determined so as to minimise the weighted sum of: a) the deviation between the point (p 1 ) on the probe where the probe starts to follow said curve, and the initial point, and b) the deviation between a point (p 2 ) on the probe closer to the distal end than the point where the probe starts to follow said curve, and said curve; and adjusting the orientation of said segments to said new orientation and advancing the probe so that the distal end is located at the new position. determining: an initial point (p 1 ) where the probe intersects a predetermined curve (C) which defines a circle or part circle within said space; and an initial bend for the probe between an entry point on a surface of the constrained space and the initial point; and, repeatedly: determining a new orientation of said segments which results in an advancement of the distal end to a new position which is on said curve, the new orientation being determined so as to minimise the weighted sum of: a) the deviation between the point (p 1 ) on the probe where the probe starts to follow said curve, and the initial point, and b) the deviation between a point (p 2 ) on the probe closer to the distal end than the point where the probe starts to follow said curve, and said curve; and adjusting the orientation of said segments to said new orientation and advancing the probe so that the distal end is located at the new position. determining a new orientation of said segments which results in an advancement of the distal end to a new position which is on said curve, the new orientation being determined so as to minimise the weighted sum of: a) the deviation between the point (p 1 ) on the probe where the probe starts to follow said curve, and the initial point, and b) the deviation between a point (p 2 ) on the probe closer to the distal end than the point where the probe starts to follow said curve, and said curve; and adjusting the orientation of said segments to said new orientation and advancing the probe so that the distal end is located at the new position.
An initial cell access method, comprising: receiving (S610), by a terminal device, a first cell Barred parameter and a second cell Barred parameter, the first cell Barred parameter is used by a first-type terminal device to determine whether to camp on a first cell, the second cell Barred parameter is used by a second-type terminal device to determine whether to camp on the first cell, and determining (S620), by the terminal device based on a type of the terminal device, to use the first cell Barred parameter or the second cell Barred parameter, wherein the type of the terminal is the first-type terminal or the second-type terminal; wherein a quantity of one or more antennas of the first-type terminal device is different from a quantity of one or more antennas of the second-type terminal device . receiving (S610), by a terminal device, a first cell Barred parameter and a second cell Barred parameter, the first cell Barred parameter is used by a first-type terminal device to determine whether to camp on a first cell, the second cell Barred parameter is used by a second-type terminal device to determine whether to camp on the first cell, and determining (S620), by the terminal device based on a type of the terminal device, to use the first cell Barred parameter or the second cell Barred parameter, wherein the type of the terminal is the first-type terminal or the second-type terminal; wherein a quantity of one or more antennas of the first-type terminal device is different from a quantity of one or more antennas of the second-type terminal device .
A system-in package comprising: a carrier ; a first chip over said carrier , wherein said first chip comprises a first semiconductor substrate having a thickness between 1 and 50 micrometers, a first metal layer (34 or 26) under a bottom surface of said first semiconductor substrate , and a first dielectric layer under said bottom surface of said first semiconductor substrate and over said first metal layer (34 or 26); a second chip over said carrier , wherein said second chip comprises a second semiconductor substrate having a top surface substantially coplanar with a top surface of said first semiconductor substrate , wherein said second chip is separated from said first chip ; a gap filling material in a gap between said first chip and said second chip ; a first metal plug in said first chip , wherein said first metal plug passes vertically through said first semiconductor substrate and said first dielectric layer and contacts said first metal layer (34 or 26); a first insulating material (50 or 500a) enclosing said first metal plug , wherein said first insulating material (50 or 500a) is enclosed by said first semiconductor substrate ; a first dielectric structure (60 or 66) over said top surface of said first semiconductor substrate , over said top surface of said second semiconductor substrate , and over said gap filling material ; a first metal interconnect in said first dielectric structure (60 or 66) and over said first chip , wherein said first metal interconnect is connected to said first metal plug ; a third chip over said first dielectric structure (60 or 66) and over said first metal interconnect ; a second metal plug in said third chip , wherein said second metal plug passes vertically through a third semiconductor substrate of said third chip , the third semiconductor substrate having a thickness between 1 and 50 micrometers, and contacts said first metal interconnect ; a second insulating material (90 or 500a) enclosing said second metal plug , wherein said second insulating material (90 or 500a) is enclosed by said third semiconductor substrate ; a second dielectric structure (88 or 120) over a top surface of said third semiconductor substrate ; and a second metal interconnect in said second dielectric structure (88 or 120) and over said third chip , wherein said second metal interconnect is connected to said second metal plug . a carrier ; a first chip over said carrier , wherein said first chip comprises a first semiconductor substrate having a thickness between 1 and 50 micrometers, a first metal layer (34 or 26) under a bottom surface of said first semiconductor substrate , and a first dielectric layer under said bottom surface of said first semiconductor substrate and over said first metal layer (34 or 26);
A method of displaying ego-vehicle surroundings within an ego-vehicle , comprising: - continuously capturing the ego-vehicle surroundings by at least one onboard camera to be stored in at least one camera data set, - detecting, within the captured ego-vehicle surroundings, an electrical charging base located in the ground or near the ground (G), - obtaining ego-vehicle motion information, - generating, if a part of the ego-vehicle causes a blind spot to the electrical charging base by obscuring a field-of-view of the ego-vehicle camera , a synthetic view to replace the blind spot in a display , the synthetic view being generated based on at least one previous view of the captured ego-vehicle surroundings stored in the camera data set and being motion-compensated based on the ego-vehicle motion information, - determining a proportion of an overlap between the electrical charging base included in the synthetic view and an onboard electrical charging device of the ego-vehicle, the physical electrical charging device of the ego-vehicle not being visible from inside the ego-vehicle, and - estimating a charging duration of an onboard energy storage of the ego-vehicle based on the determined proportion of the overlap, - estimating a charging efficiency based on the determined proportion of the overlap. - continuously capturing the ego-vehicle surroundings by at least one onboard camera to be stored in at least one camera data set, - detecting, within the captured ego-vehicle surroundings, an electrical charging base located in the ground or near the ground (G), - obtaining ego-vehicle motion information, - generating, if a part of the ego-vehicle causes a blind spot to the electrical charging base by obscuring a field-of-view of the ego-vehicle camera , a synthetic view to replace the blind spot in a display , the synthetic view being generated based on at least one previous view of the captured ego-vehicle surroundings stored in the camera data set and being motion-compensated based on the ego-vehicle motion information, - determining a proportion of an overlap between the electrical charging base included in the synthetic view and an onboard electrical charging device of the ego-vehicle, the physical electrical charging device of the ego-vehicle not being visible from inside the ego-vehicle, and - estimating a charging duration of an onboard energy storage of the ego-vehicle based on the determined proportion of the overlap, - estimating a charging efficiency based on the determined proportion of the overlap.
A valve arrangement for a shock absorber, said valve arrangement comprising: - a valve housing comprising a first and a second port - a pilot chamber being in fluid communication with said first and/or second port, wherein a pilot pressure (P P ) is defined by a hydraulic pressure in said pilot chamber; - a main valve member being axially movably arranged in said valve housing and being arranged to interact with a main valve seat of said valve housing in order to restrict a main fluid flow between said first and second ports in response to said pilot pressure acting on said main valve member; - a control valve member being movable in an axial direction relative to said main valve member and being resiliently loaded in a direction towards said pilot chamber , the valve arrangement is configured so that - during an active control mode, a pilot fluid flow (PF C , PF R ) is controlled in response to an actuating force acting on said control valve member , - during a failsafe control mode, said pilot fluid flow (PF C , PF R ) is controlled in response to the pilot pressure acting on said control valve member , and is characterized in that the valve arrangement is configured so that - the pilot fluid flow (PF C , PF R ) is restricted by at least one common restriction (R2) both during active control mode and failsafe control mode. - a valve housing comprising a first and a second port - a pilot chamber being in fluid communication with said first and/or second port, wherein a pilot pressure (P P ) is defined by a hydraulic pressure in said pilot chamber; - a main valve member being axially movably arranged in said valve housing and being arranged to interact with a main valve seat of said valve housing in order to restrict a main fluid flow between said first and second ports in response to said pilot pressure acting on said main valve member; - a control valve member being movable in an axial direction relative to said main valve member and being resiliently loaded in a direction towards said pilot chamber , the valve arrangement is configured so that - during an active control mode, a pilot fluid flow (PF C , PF R ) is controlled in response to an actuating force acting on said control valve member , - during a failsafe control mode, said pilot fluid flow (PF C , PF R ) is controlled in response to the pilot pressure acting on said control valve member , and is characterized in that the valve arrangement is configured so that - the pilot fluid flow (PF C , PF R ) is restricted by at least one common restriction (R2) both during active control mode and failsafe control mode.
A method suitable for testing at an abattoir, for quantifying or simultaneously quantifying, the amounts of a compound selected from skatole and/or androstenone in a sample of animal fat tissue, said method comprising the subsequent steps of: a. providing a sample of the animal fat tissue; b. adding brine and an organic polar solvent, and at least one internal standard, to the sample of step a; c. extracting the compound(s) in question from the sample of step a to obtain a precipitate and an upper fraction, said upper fraction comprising the compound(s) in question; d. drying the separated upper phase layer of the mixture of step c to obtain a dried extract; e. desorbing the compound(s) of the dried extract obtained in step d, by volatilizing by Laser Diode Thermal Desorption (LDTD); and f. quantifying the desorbed and vaporized compound(s) of step e by Mass Spectrometry (MS). a. providing a sample of the animal fat tissue; b. adding brine and an organic polar solvent, and at least one internal standard, to the sample of step a; c. extracting the compound(s) in question from the sample of step a to obtain a precipitate and an upper fraction, said upper fraction comprising the compound(s) in question; d. drying the separated upper phase layer of the mixture of step c to obtain a dried extract; e. desorbing the compound(s) of the dried extract obtained in step d, by volatilizing by Laser Diode Thermal Desorption (LDTD); and f. quantifying the desorbed and vaporized compound(s) of step e by Mass Spectrometry (MS).
An electrolytic cell , comprising: at least one anode module having a plurality of anodes , wherein each of the plurality of anodes is an oxygen-involving electrode; at least one cathode module , opposing the anode module , wherein the at least one cathode module comprises a plurality of cathodes , wherein each of the plurality of anodes and each of the plurality of cathodes have surfaces thereon that are vertically oriented and spaced one from another, wherein the cathodes are wettable, wherein the at least one cathode module is coupled to a bottom of the electrolytic cell , and wherein a portion of each of the anodes overlaps a portion of adjacent cathodes; a cell reservoir configured to retain a bath of molten electrolyte and a molten metal pad disposed therewithin; and a positioning apparatus coupled to the at least one anode module , configured to selectively adjust a position of the at least one anode module in a vertical direction relative to the cathode module , and to adjust a position of the plurality of anodes in a horizontal direction relative to adjacent cathodes; wherein the plurality of anodes are configured to be at least partially immersed in the bath of electrolyte when the plurality of anodes are suspended above the cathode module and extend downwards towards the cathode module , wherein the plurality of cathodes are configured to be completely immersed in the bath of electrolyte, wherein the plurality of cathodes are positioned in the cell reservoir extending upwards towards the anode module , and wherein each of the plurality of anodes and each of the plurality of cathodes are alternatingly positioned within the cell reservoir . at least one anode module having a plurality of anodes , wherein each of the plurality of anodes is an oxygen-involving electrode; at least one cathode module , opposing the anode module , wherein the at least one cathode module comprises a plurality of cathodes , wherein each of the plurality of anodes and each of the plurality of cathodes have surfaces thereon that are vertically oriented and spaced one from another, wherein the cathodes are wettable, wherein the at least one cathode module is coupled to a bottom of the electrolytic cell , and wherein a portion of each of the anodes overlaps a portion of adjacent cathodes; a cell reservoir configured to retain a bath of molten electrolyte and a molten metal pad disposed therewithin; and