mhurhangee/ep-ind-claims huggingface dataset:
A method for automatically coordinating protection settings for relays within an electrical power distribution network, comprising: using a graph traversal mechanism to analyze geographical-based equipment data that contains information about overcurrent relays within the electrical power distribution network, wherein the graph traversal mechanism creates a directed equipment connectivity matrix based on the equipment data and identifies a sequence of network equipment from a source and the node of each piece of equipment closest to the source; applying a customizable rule base (505; 610) to protection guidelines; determining protection settings for the overcurrent relays based upon the applied customizable rule base (505; 610) and a direction of fault current flow from each source determined based on the directed equipment connectivity matrix; and using the determined protection settings for the overcurrent relays to control switches in the electrical power distribution network in response to a detected fault. using a graph traversal mechanism to analyze geographical-based equipment data that contains information about overcurrent relays within the electrical power distribution network, wherein the graph traversal mechanism creates a directed equipment connectivity matrix based on the equipment data and identifies a sequence of network equipment from a source and the node of each piece of equipment closest to the source; applying a customizable rule base (505; 610) to protection guidelines; determining protection settings for the overcurrent relays based upon the applied customizable rule base (505; 610) and a direction of fault current flow from each source determined based on the directed equipment connectivity matrix; and using the determined protection settings for the overcurrent relays to control switches in the electrical power distribution network in response to a detected fault.
An electrical bus communication system comprising: a main communication module; a bank of modular I/O units mounted to the side of the main communication module and adjacent each other; each modular I/O unit having an electrical fitting in proximity to each side thereof and being connected to a respective complementary electrical fitting of an adjacent module; each modular I/O unit enclosing electronic boards therein and being distributable to a remote location and electrically connectable to the main bank and main communication module; characterized in that said one modular I/O unit being removable from said bank of modular I/O units without removing said left and right modular I/O units; and said main communication module constructed to automatically address each modular I/O unit with a sub-network address on either the main bank or on the remote location. a main communication module; a bank of modular I/O units mounted to the side of the main communication module and adjacent each other; each modular I/O unit having an electrical fitting in proximity to each side thereof and being connected to a respective complementary electrical fitting of an adjacent module; each modular I/O unit enclosing electronic boards therein and being distributable to a remote location and electrically connectable to the main bank and main communication module; characterized in that said one modular I/O unit being removable from said bank of modular I/O units without removing said left and right modular I/O units; and said main communication module constructed to automatically address each modular I/O unit with a sub-network address on either the main bank or on the remote location.
A shell mold comprising: • central cylinder extending, along a main axis, between a casting cup and a base; • a plurality of molding cavities arranged as a cluster around the central cylinder, each one being connected to the casting cup by at least a feed channel, and via a baffle-selector to a starter in the base; and • at least one heat shield that is substantially perpendicular to said main axis; the shell mold being characterized in that said at least one heat shield completely surrounds each said molding cavity in a plane that is substantially perpendicular to said main axis. • central cylinder extending, along a main axis, between a casting cup and a base; • a plurality of molding cavities arranged as a cluster around the central cylinder, each one being connected to the casting cup by at least a feed channel, and via a baffle-selector to a starter in the base; and • at least one heat shield that is substantially perpendicular to said main axis;
A flexible plasma-based film comprising more than 2.5 International Units of thrombin per ml of plasma and having a thickness ranging from about 0.005 to 0.1 mm, wherein said flexible film is characterized by a burst pressure of about 67 to 1333 hPa (50 to 1000 mm Hg).
An antimicrobial composition comprising: i. 0.001 to 5% by weight of one or more isopropyl-methylphenols, ii. 0.001 to 5% by weight of terpineol, and iii. a carrier; wherein the one or more isopropyl-methylphenols are selected from 3-isopropyl-5-methylphenol and 4-isopropyl-3-methylphenol; and wherein the terpineol is selected from the group consisting of alpha-terpineol, beta-terpineol, gamma-terpineol, delta-terpineol, 4-terpineol, and mixtures thereof. i. 0.001 to 5% by weight of one or more isopropyl-methylphenols, ii. 0.001 to 5% by weight of terpineol, and iii. a carrier;
Case for the individual handling by means of a robot arm clamp, and/or for storage, of a cylindrical container (PT, GT), made of rigid or semi-rigid material, for example a tube containing a product with homeopathic effect, the container (PT, GT) being delimited externally by at least one lateral face of axial orientation, the case being delimited: - by a horizontal, planar bottom wall of axial orientation and of rectangular outline, - and, at each of the axial ends of the case, by a pair of opposing and vertical lateral wall sections each of which extends axially, along an associated lateral edge of the bottom wall, by virtue of which the case has a generally rectangular parallepipedal form comprising a top face that is open to allow the introduction and the housing of a container (PT, GT) laid flat and arranged inside the case, and has means for retaining the container, characterized in that the case is suitable for housing two types (PT, GT) of containers, and in that the retaining means comprise: - at least one first elastically deformable clamp with transverse gripping effect comprising two opposing jaws each of which cooperates with facing portions of the cylindrical lateral wall of a container of a first type, - and at least one second elastically deformable clamp with axial gripping effect comprising two opposing jaws each of which cooperates with a facing portion of an associated transverse face (16, 18) of a container of a second type which extends in a plane orthogonal to the axis of the container. - by a horizontal, planar bottom wall of axial orientation and of rectangular outline, - and, at each of the axial ends of the case, by a pair of opposing and vertical lateral wall sections each of which extends axially, along an associated lateral edge of the bottom wall, - at least one first elastically deformable clamp with transverse gripping effect comprising two opposing jaws each of which cooperates with facing portions of the cylindrical lateral wall of a container of a first type, - and at least one second elastically deformable clamp with axial gripping effect comprising two opposing jaws each of which cooperates with a facing portion of an associated transverse face (16, 18) of a container of a second type which extends in a plane orthogonal to the axis of the container.
A compound having Formula I: wherein R 1, R 2, R 3 and R 4 are independently selected from the group consisting of hydrogen and a C 1-12 linear or branched alkyl group, with the proviso that R 1, R 2, R 3 and R 4 together contain 1-12 carbon atoms.
Method for establishing a certain position of a vehicle, wherein the vehicle has a global position determination system (GNSS), an inertial measurement unit and an odometry system, wherein the method comprises the following steps: - identifying an absolute position of the vehicle by way of the global position determination system (GNSS), - identifying a first relative position of the vehicle by way of the inertial measurement unit, - identifying a second relative position of the vehicle by way of the odometry system, - identifying a certainty of the absolute position based on an accuracy of the global position determination system (GNSS), - identifying a certainty of the first relative position based on an accuracy of the inertial measurement unit, - identifying a certainty of the second relative position based on an accuracy of the odometry system, - determining a current position of the vehicle based on the absolute position, the first relative position and the second relative position, - determining a certainty for the current position of the vehicle, based on the certainty of the absolute position, on the certainty of the first relative position and on the certainty of the second relative position, - determining a tolerance range around the current position of the vehicle, based on the certainty of the absolute position, on the certainty of the first relative position and on the certainty of the second relative position, - establishing and then outputting a probability of the vehicle being located within the tolerance range. - identifying an absolute position of the vehicle by way of the global position determination system (GNSS), - identifying a first relative position of the vehicle by way of the inertial measurement unit, - identifying a second relative position of the vehicle by way of the odometry system, - identifying a certainty of the absolute position based on an accuracy of the global position determination system (GNSS), - identifying a certainty of the first relative position based on an accuracy of the inertial measurement unit, - identifying a certainty of the second relative position based on an accuracy of the odometry system, - determining a current position of the vehicle based on the absolute position, the first relative position and the second relative position, - determining a certainty for the current position of the vehicle, based on the certainty of the absolute position, on the certainty of the first relative position and on the certainty of the second relative position, - determining a tolerance range around the current position of the vehicle, based on the certainty of the absolute position, on the certainty of the first relative position and on the certainty of the second relative position, - establishing and then outputting a probability of the vehicle being located within the tolerance range.
An immunochromatographic test strip for detecting digoxin, comprising a bottom plate, and a sample pad, a glass fiber mat, a nitrocellulose membrane and a water absorbing paper which are sequentially overlapped on the bottom plate, wherein the glass fiber mat is sprayed with a digoxin-specific antibody-fluorescent microsphere complex; and the nitrocellulose membrane is sequentially provided with a detection line coated with digoxin protein conjugate and a quality control line coated with a secondary antibody; the digoxin-specific antibody-fluorescent microsphere complex is obtained by conjugation between a digoxin monoclonal antibody or a digoxin polyclonal antibody and a fluorescent microsphere; the mass percentage concentration of the digoxin-specific antibody-fluorescent microsphere complex is 0.01-0.1%; and the spraying amount of the digoxin-specific antibody-fluorescent microsphere complex on the glass fiber mat is 1-10 μL/cm; and the digoxin protein conjugate comprises a digoxin-conjugated rabbit albumin or a digoxin-conjugated rabbit ovalbumin; the concentration of the digoxin-conjugated rabbit albumin is 1 mg/mL; the concentration of the digoxin-conjugated rabbit ovalbumin is 3 mg/mL; and the spraying amount of the digoxin protein conjugate on the nitrocellulose membrane is 1-5 μL/cm; and the secondary antibody comprises a goat anti-mouse IgG antibody; and the sample pad comprises a glass fiber, a polyester film, a cellulose filter paper, and a nonwoven fabric. the digoxin-specific antibody-fluorescent microsphere complex is obtained by conjugation between a digoxin monoclonal antibody or a digoxin polyclonal antibody and a fluorescent microsphere; the mass percentage concentration of the digoxin-specific antibody-fluorescent microsphere complex is 0.01-0.1%; and the spraying amount of the digoxin-specific antibody-fluorescent microsphere complex on the glass fiber mat is 1-10 μL/cm; and the digoxin protein conjugate comprises a digoxin-conjugated rabbit albumin or a digoxin-conjugated rabbit ovalbumin; the concentration of the digoxin-conjugated rabbit albumin is 1 mg/mL; the concentration of the digoxin-conjugated rabbit ovalbumin is 3 mg/mL; and the spraying amount of the digoxin protein conjugate on the nitrocellulose membrane is 1-5 μL/cm; and the secondary antibody comprises a goat anti-mouse IgG antibody; and the sample pad comprises a glass fiber, a polyester film, a cellulose filter paper, and a nonwoven fabric.
A process for the preparation of a product compound having the following formula: the process comprising the steps of: 1) preparing a reaction mixture from at least: i) a halopyridine of the following structure: ii) a substituted pyridine of the following structure: iii) a palladium containing catalyst selected from the group consisting of palladium acetate, bis(dibenzylideneacetone)palladium, tris(dibenzylideneacetone)dipalladium, tetrakis-(triphenylphosphine)palladium, [1,1'-bis(diphenylphosphino)ferrocene]dichloropalladium, and any mixture of two or more of the foregoing; iv) a phosphine or carbene ligand; v) a Bronsted base; and vi) a solvent; 2) heating the reaction mixture to one or more temperatures in the range of 30°C to 110°C such that the product compound is formed; wherein R 1, R 2, R 3, and R 4 are each hydrogen, R 5 and R 6 are each methyl groups, R 7, R 8, R 9 and R 10 are each hydrogen, and X is selected from the group consisting of chlorine, bromine, iodine, sulfonate, triflate, nonaflate, and a diazonium salt. 1) preparing a reaction mixture from at least: i) a halopyridine of the following structure: ii) a substituted pyridine of the following structure: iii) a palladium containing catalyst selected from the group consisting of palladium acetate, bis(dibenzylideneacetone)palladium, tris(dibenzylideneacetone)dipalladium, tetrakis-(triphenylphosphine)palladium, [1,1'-bis(diphenylphosphino)ferrocene]dichloropalladium, and any mixture of two or more of the foregoing; iv) a phosphine or carbene ligand; v) a Bronsted base; and vi) a solvent; i) a halopyridine of the following structure: ii) a substituted pyridine of the following structure: iii) a palladium containing catalyst selected from the group consisting of palladium acetate, bis(dibenzylideneacetone)palladium, tris(dibenzylideneacetone)dipalladium, tetrakis-(triphenylphosphine)palladium, [1,1'-bis(diphenylphosphino)ferrocene]dichloropalladium, and any mixture of two or more of the foregoing; iv) a phosphine or carbene ligand; v) a Bronsted base; and vi) a solvent; 2) heating the reaction mixture to one or more temperatures in the range of 30°C to 110°C such that the product compound is formed;
A watch-type mobile terminal comprising: an wireless communication unit configured to perform a communication with an external device; a controller configured to execute a contact application; a touch screen configured to output a contact list when the contact application is executed; and a bezel configured to sense at least one rotation input, characterized in that the controller is further configured to: sense a touch input signal on the touch screen, wherein the touch input signal is a drag touch input on touch screen, scroll the contact list to search for a specific contact in response to the touch input signal, sense a rotation input, being a drag touch input, via the bezel, and control a scroll pop-up for searching for the specific contact to be output on the contact list of the contact application when the rotation input's speed corresponds to a speed faster than a predetermined speed. an wireless communication unit configured to perform a communication with an external device; a controller configured to execute a contact application; a touch screen configured to output a contact list when the contact application is executed; and a bezel configured to sense at least one rotation input, characterized in that the controller is further configured to: sense a touch input signal on the touch screen, wherein the touch input signal is a drag touch input on touch screen, scroll the contact list to search for a specific contact in response to the touch input signal, sense a rotation input, being a drag touch input, via the bezel, and control a scroll pop-up for searching for the specific contact to be output on the contact list of the contact application when the rotation input's speed corresponds to a speed faster than a predetermined speed. sense a touch input signal on the touch screen, wherein the touch input signal is a drag touch input on touch screen, scroll the contact list to search for a specific contact in response to the touch input signal, sense a rotation input, being a drag touch input, via the bezel, and control a scroll pop-up for searching for the specific contact to be output on the contact list of the contact application when the rotation input's speed corresponds to a speed faster than a predetermined speed.
Ultrasonic welding tongs for performing ultrasonic welding on a tubular electrically conductive welding medium, comprising a first tongs part and a second tongs part movable relative to the first tongs part, the first tongs part having a first welding jaw, which is formed by a sonotrode, which transmits ultrasonic vibrations, and the second tongs part having a second welding jaw, which is formed by an anvil, characterized in that the first welding jaw or the second welding jaw and a welding-medium stop device, which delimits a welding-medium holding space formed between the welding jaws, are each electrically conductive and arranged electrically isolated from each other, the electrically conductive welding jaw and the electrically conductive welding-medium stop device forming components of a safety circuit in such a manner that a welding process including a closing of the welding jaws is triggered after the safety circuit has been closed by the formation of an electrical contact between the electrically conductive welding jaw and the welding-medium stop device by way of the welding medium.
Bipolar plate for a fuel cell stack, comprising a first side, on which a first flow field is formed, and a second side, on which a second flow field is formed, and a first sealing section surrounding the first flow field and a second sealing section surrounding the second flow field, wherein the sealing sections (157, 158) are designed to cooperate in a sealing manner with an elastic sealing element in a fuel cell stack, characterised in that at least one sealing projection is formed in the first sealing section and the second sealing section is formed without a sealing projection and/or substantially flat.
A turbomachine part, comprising: a body having a first side, a second side and a longitudinal axis; and an overhung section extending in an overhung manner, such that the overhung section lacks structural support in a portion thereof, from at least one of the first side and the second side of the body, wherein at least a portion of the overhung section includes a plurality of material layers, wherein each material layer extends at an acute angle δ relative to the longitudinal axis of the body and lacks structural support in a portion thereof. a body having a first side, a second side and a longitudinal axis; and an overhung section extending in an overhung manner, such that the overhung section lacks structural support in a portion thereof, from at least one of the first side and the second side of the body, wherein at least a portion of the overhung section includes a plurality of material layers, wherein each material layer extends at an acute angle δ relative to the longitudinal axis of the body and lacks structural support in a portion thereof.
A method of additive manufacturing of a three-dimensional object, comprising sequentially forming a plurality of layers in a configured pattern corresponding to the shape of the object, said forming comprising, for each layer, dispensing at least one modeling material to form an uncured layer, and curing said uncured layer by radiation, wherein the method comprises, for at least one layer, forming a stack (82, 84) of sacrificial radiation-protective layers to cover an exposed portion (62, 64) of said layer, such that an upper layer of said stack (82, 84) remains exposed during formation of any subsequent layer of said plurality of layers, and once the object is completed, removing said stack (82, 84) thereby revealing said portion (62, 64) of said layer.
A computer implemented method for controlling call capacity in a mobile network, the method comprising: activating a mass event mode in a first cell of a first base station, wherein the first cell is a high frequency band cell, and wherein operating in the mass event mode comprises: checking if any low frequency band cells are available in a first sector served by the first cell; and responsive to detecting that one or more low frequency band cells are available, switching, at least some, voice call connections of the users of the first cell to at least some of the available low frequency band cells. checking if any low frequency band cells are available in a first sector served by the first cell; and responsive to detecting that one or more low frequency band cells are available, switching, at least some, voice call connections of the users of the first cell to at least some of the available low frequency band cells.
A vertical diverter for a conveyor system, the conveyer system having a lower conveyer track and an upper conveyer track, wherein the vertical diverter is configured to vertically connect the upper conveyor track and the lower conveyer track, and wherein the vertical diverter has a lower diverter track and an upper diverter track, wherein: the lower diverter track is shorter than the upper diverter track, the lower diverter track is configured to be lowered at least at one end in order to make room for the connection of the end of the upper diverter track that is to be lowered, and the upper diverter track is configured to be lowered at least at one end, and the lowered end of the upper diverter track rests where the unlowered end of the lower diverter track previously rested; characterized in that a mechanism for moving the diverter tracks (4, 5) moves a slide (19, 22) up and down, wherein the slide (19, 22) has a horizontal longitudinal slot (20, 24) in which an end support of the diverter track (4, 5) is displaceably guided. the lower diverter track is shorter than the upper diverter track, the lower diverter track is configured to be lowered at least at one end in order to make room for the connection of the end of the upper diverter track that is to be lowered, and the upper diverter track is configured to be lowered at least at one end, and the lowered end of the upper diverter track rests where the unlowered end of the lower diverter track previously rested;