mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a storage chamber configured to store food; a cooler configured to supply cold into the storage chamber; an ice maker comprising an ice making cell, which is a space in which water is phase-changed into ice by the cold; a transparent ice heater configured to supply heat into the ice making cell; and a controller configured to control the transparent ice heater, wherein the controller controls the transparent ice heater to operate in at least partial section while the cooler supplies the cold so that bubbles dissolved in the water within the ice making cell move from a portion, at which the ice is made, toward the water that is in a liquid state to make transparent ice, a process for controlling the transparent ice heater comprises a basic heating process and an additional heating process that is performed after the basic heating process, in the basic heating process, the controller performs control so that a heating amount of the transparent ice heater varies according to a mass per unit height of the water in the ice making cell, and in at least partial section of the additional heating process, the controller controls the transparent ice heater to operate with a heating amount that is equal to or less than a heating amount of the transparent ice heater in the basic heating process. a storage chamber configured to store food; a cooler configured to supply cold into the storage chamber; an ice maker comprising an ice making cell, which is a space in which water is phase-changed into ice by the cold; a transparent ice heater configured to supply heat into the ice making cell; and a controller configured to control the transparent ice heater, wherein the controller controls the transparent ice heater to operate in at least partial section while the cooler supplies the cold so that bubbles dissolved in the water within the ice making cell move from a portion, at which the ice is made, toward the water that is in a liquid state to make transparent ice, a process for controlling the transparent ice heater comprises a basic heating process and an additional heating process that is performed after the basic heating process, in the basic heating process, the controller performs control so that a heating amount of the transparent ice heater varies according to a mass per unit height of the water in the ice making cell, and in at least partial section of the additional heating process, the controller controls the transparent ice heater to operate with a heating amount that is equal to or less than a heating amount of the transparent ice heater in the basic heating process.
A method of making a termination assembly (22, 122) for an umbilical, wherein one or more tubes extend from the umbilical, the method comprising inserting the one or more tubes extending from the umbilical into a chamber within the termination assembly (22, 122) either before or after steps (a)-(c) below, the method comprising the steps of: (a) providing an anchor (32, 132, 133, 134) for mounting onto one of the tubes, the anchor (32, 132, 133, 134) comprising a shape memory material in a second phase and comprising an aperture which is in a second shape which the tube can pass through, (b) sliding the anchor (32, 132, 133, 134) onto the tube by passing the tube through the aperture, (c) allowing the shape memory material to undergo a phase change in which at least some of the second phase converts to a first phase such that the aperture returns towards a first shape which the tube cannot pass through, the anchor (32, 132, 133, 134) thereby gripping the tube, and (d) adding a filler material to the chamber. (a) providing an anchor (32, 132, 133, 134) for mounting onto one of the tubes, the anchor (32, 132, 133, 134) comprising a shape memory material in a second phase and comprising an aperture which is in a second shape which the tube can pass through, (b) sliding the anchor (32, 132, 133, 134) onto the tube by passing the tube through the aperture, (c) allowing the shape memory material to undergo a phase change in which at least some of the second phase converts to a first phase such that the aperture returns towards a first shape which the tube cannot pass through, the anchor (32, 132, 133, 134) thereby gripping the tube, and (d) adding a filler material to the chamber.
A snap-acting locking device, particularly for lids, doors and the like, comprising a slider adapted to be associated with a movable member, such as a lid, a door or the like, and to engage by snap action a locking member provided on a body on which the movable member that constitutes its lid, door or the like is articulated; said slider is a single body constituted by an actuation pushbutton provided with a stem, provided with a locking means, and by an elastic member, which is jointly connected to a free end of said stem; said locking means detachably engage said locking member provided in said body; characterized in that said slider comprises a longitudinal slot which runs partially within said pushbutton and substantially along all of said stem.
A method for the protection of skin areas of a teat (13, 100) during the milking process or for adjusting the teat diameter to a milking gear (10, 11, 12) wherein a film that is a cut (15, 20, 30, 40, 50, 60, 70, 80, 90) which is made of a composite material and is cut out from a flat substrate (16, 33) having an adhesive layer (17, 34) is wrapped around the teat (13, 100) in an overlapping manner, with the film (15, 20, 30, 40, 50, 60, 70, 80, 90) adhering to itself and to the skin via said adhesive layer (17, 34), wherein the adhesive layer (17, 34) is selected from the group consisting of polyurethane adhesive layer, silicone adhesive layer, acrylate adhesive layer, synthetic rubber adhesive layer or partially cross-linked hydrocolloid adhesive layers, has a water vapour permeability of at least 300 g/m 2 in 24 h, preferably 500 g/m 2 in 24 h, and is selected with a thickness ranging from 150 to 3000 μm and an elastic and/or plastic deformability which, in relation to a film (15, 20, 30, 40, 50, 60, 70, 80, 90) flatly bonded on steel, allows the substrate (16, 33) to be pushed back from the edge to its centre by more than 500 per cent of the thickness of the adhesive layer (17, 34) in such a way that, when the teat (13, 100) is stretched during the milking process, it compensates the shear forces which the film (15, 20, 30, 40, 50, 60, 70, 80, 90) exerts on the skin and/or the adhesive layer (17, 34) is selected such that, when a force is exerted on it in the longitudinal direction of the teat (13, 100), it comes off the skin without injuring the corneocyte layer.
A ship comprising at least one hull and a bow part defining a forward direction of said ship, where said bow part comprises at least one elastically deformable fender extending at least partially across said bow part with a given curvature in the cross-wise direction and having at least one curved engagement surface in said cross-wise direction, where said engagement surface faces in said forward direction and is adapted to engage a structure (1, 1a) during docking of the ship at said structure (1, 1a), wherein said fender comprises at least one concave engagement surface as seen in the cross-wise direction from said forward direction, characterized in that said concave engagement surface comprises a number of recesses (9c, 9d) adapted to accommodate a landing structure of said structure.
A system for management of wireless access points in a multi-band wireless network, comprising: a first wireless distribution unit associated with a first set of wireless access points, and comprising a first data collector configured to collect a first set of information about an environment where the first WDU is located; a second WDU associated with a second set of wireless access points, and comprising a second data collector configured to collect a second set of information about an environment where the second WDU is located; and a control unit communicatively coupled with each of the first and second WDUs, and comprising a central cognitive engine configured to balance a load across the first and second WDUs based on the first and second sets of information received from the first and second WDUs, respectively; wherein the central cognitive engine further comprises an information manager configured to receive the first and second sets of information, wherein the information manager is configured to store received information in an AVL tree, wherein the information manager is configured to compare the received information with information stored in the first and second WDUs, remove non-relevant or duplicative information, and store the remaining information in the AVL tree; and wherein the central cognitive engine comprises a set of optimization algorithms, and wherein the central cognitive engine is configured to use the optimization algorithms to balance the load across the first and second WDUs based on the first and second sets of information. a first wireless distribution unit associated with a first set of wireless access points, and comprising a first data collector configured to collect a first set of information about an environment where the first WDU is located; a second WDU associated with a second set of wireless access points, and comprising a second data collector configured to collect a second set of information about an environment where the second WDU is located; and a control unit communicatively coupled with each of the first and second WDUs, and comprising a central cognitive engine configured to balance a load across the first and second WDUs based on the first and second sets of information received from the first and second WDUs, respectively; wherein the central cognitive engine further comprises an information manager configured to receive the first and second sets of information, wherein the information manager is configured to store received information in an AVL tree, wherein the information manager is configured to compare the received information with information stored in the first and second WDUs, remove non-relevant or duplicative information, and store the remaining information in the AVL tree; and wherein the central cognitive engine comprises a set of optimization algorithms, and wherein the central cognitive engine is configured to use the optimization algorithms to balance the load across the first and second WDUs based on the first and second sets of information.
A metal foil for the catalytic production of hydrogen, comprising the following chemical composition (in % by mass) C 0.001 to 0.5 % S max. 0.008 % N 0.1 to 0.3 % Cr 24 to 28 % Ni 30 to 33 % Mn 1.0 to 2.0 % Si 0.005 to 0.2 % Mo 6.0 to 7.5 % Ti max. 0.05 % Nb max. 0.05 % Cu 0.8 to 2.0 % P max. 0.025 % Al max. 0.2 % cerium MM 0.01 to 0.1 % W max. 0.5 % Co max. 0.5 % B 0.001 to 0.05 % Fe rest and production dependent impurities.
An evaporator assembly for an ice-making apparatus, comprising: a vertical freeze surface having vertical dividers forming fluid flow channels; a refrigerant circuit; and a freeze template thermally coupled between the freeze surface and the refrigerant circuit, and being formed of horizontal strips arranged in a plane, wherein interface locations between the freeze template and the freeze surface define where on the freeze surface ice is to be formed, characterized in that each of the horizontal strips has a plurality of vertical ribs respectively aligned with the vertical dividers. a vertical freeze surface having vertical dividers forming fluid flow channels; a refrigerant circuit; and a freeze template thermally coupled between the freeze surface and the refrigerant circuit, and being formed of horizontal strips arranged in a plane, wherein interface locations between the freeze template and the freeze surface define where on the freeze surface ice is to be formed, characterized in that each of the horizontal strips has a plurality of vertical ribs respectively aligned with the vertical dividers.
A power transmission system comprising: at least one power substation for receiving power from a power source; a Direct Current cable for transferring the power from the power source to the power substation, the DC cable comprising one or more cable segments forming a first power routing path to route the power to the power substation and one or more cable segments forming a second power routing path to route the power to the power substation; a main switch unit coupled between the power source and the at least one power substation and configured for, in the event of a fault on or a maintenance event for a faulty cable segment of one of the first and second power routing paths, routing the power to the power substation via the one or more operational cable segments of the other of the first and second power routing paths; and a plurality of segment switch units (116, 120), each cable segment (112, 114) being electrically coupled to at least one segment switch unit (116, 120), wherein each segment switch unit (116, 120) comprises: at least one shorting switch element (206; 214) for providing a short circuit path to prevent the power from the power source to be routed to the faulty cable segment (112, 114) in response to a shorting command, and at least one disconnect switch element (204, 212) for disconnecting the faulty cable segment (112, 114) in response to a disconnect command. at least one power substation for receiving power from a power source; a Direct Current cable for transferring the power from the power source to the power substation, the DC cable comprising one or more cable segments forming a first power routing path to route the power to the power substation and one or more cable segments forming a second power routing path to route the power to the power substation; a main switch unit coupled between the power source and the at least one power substation and configured for, in the event of a fault on or a maintenance event for a faulty cable segment of one of the first and second power routing paths, routing the power to the power substation via the one or more operational cable segments of the other of the first and second power routing paths; and a plurality of segment switch units (116, 120), each cable segment (112, 114) being electrically coupled to at least one segment switch unit (116, 120), wherein each segment switch unit (116, 120) comprises: at least one shorting switch element (206; 214) for providing a short circuit path to prevent the power from the power source to be routed to the faulty cable segment (112, 114) in response to a shorting command, and at least one disconnect switch element (204, 212) for disconnecting the faulty cable segment (112, 114) in response to a disconnect command. at least one shorting switch element (206; 214) for providing a short circuit path to prevent the power from the power source to be routed to the faulty cable segment (112, 114) in response to a shorting command, and at least one disconnect switch element (204, 212) for disconnecting the faulty cable segment (112, 114) in response to a disconnect command.
Valve housing for a venting valve on a tank for a mechanical or/and a hydraulic actuation consisting of: - the valve housing - a connection (f) with a flange (e) on the valve housing - a flange with openings (d) for securing the valve housing on the tank - an upper opening for a lid or the hydraulic actuation - a lower opening for a mechanical actuation, characterised by - a bayonet closure and in that - on the lower side of the valve housing at least three holders with openings such as elongate holes are arranged, which are suitable for accommodating latching lugs of a lid in order to form the bayonet closure (b) with the latter, - the connection (f) with its cross-sectional surface has the form of two ellipses, wherein the semi-axis (i) of the first ellipse is greater than the semi-axis (j) of the second ellipse, and - an eccentricity (h) is present between the central axis of the flange (e) and the central axis of the cross-sectional surface of the connection (f) between the flange and the securing parts on the flange of the housing, - the valve housing - a connection (f) with a flange (e) on the valve housing - a flange with openings (d) for securing the valve housing on the tank - an upper opening for a lid or the hydraulic actuation - a lower opening for a mechanical actuation, characterised by - a bayonet closure and in that - on the lower side of the valve housing at least three holders with openings such as elongate holes are arranged, which are suitable for accommodating latching lugs of a lid in order to form the bayonet closure (b) with the latter, - the connection (f) with its cross-sectional surface has the form of two ellipses, wherein the semi-axis (i) of the first ellipse is greater than the semi-axis (j) of the second ellipse, and - an eccentricity (h) is present between the central axis of the flange (e) and the central axis of the cross-sectional surface of the connection (f) between the flange and the securing parts on the flange of the housing,
A method of porting source code for use in a runtime environment including a tool chain with a compiler for building the source code, the method characterised by: obtaining a source code fragment associated with a build error during the source code build in the runtime environment; creating a signature of the source code fragment; automatically comparing the signature with signatures of entries in an error database constructed from a history of previous build errors in the runtime environment and their fixes in the form of source code and/or tool chain modifications; using the comparison to find one or more similar previous build errors to the build error and thus to identify one or more of the source code and/or tool chain modifications as candidate solutions to the build error; compiling the source code with each of the candidate source code and/or tool chain modifications in turn until the source code compiles without reproducing the build error; and storing the build error in the error database and storing the modification with which the source code compiles without reproducing the build error as its fix. obtaining a source code fragment associated with a build error during the source code build in the runtime environment; creating a signature of the source code fragment; automatically comparing the signature with signatures of entries in an error database constructed from a history of previous build errors in the runtime environment and their fixes in the form of source code and/or tool chain modifications; using the comparison to find one or more similar previous build errors to the build error and thus to identify one or more of the source code and/or tool chain modifications as candidate solutions to the build error; compiling the source code with each of the candidate source code and/or tool chain modifications in turn until the source code compiles without reproducing the build error; and storing the build error in the error database and storing the modification with which the source code compiles without reproducing the build error as its fix.
A telecommunications patching system, comprising: a patch panel comprising a plurality of connector ports, a plurality of patch cords configured to selectively interconnect pairs of the connector ports, wherein each patch cord comprises opposite ends and a respective connector secured to each end, wherein each connector is configured to be removably secured within a connector port, and wherein each connector of a respective patch cord comprises an RFID tag; and wherein the RFID tags for a respective patch cord have the same unique identifier stored therewithin; an RFID reader; and a plurality of RF antennas, wherein each RF antenna is attached to the patch panel adjacent a respective one of the connector ports, wherein each RF antenna emits RF signals configured to cause a patch cord connector RFID tag to transmit its identifier when excited by emitted RF signals, wherein each RF antenna detects transmitted identifiers of patch cord connector RFID tags when a patch cord connector is inserted within, and removed from, a respective one of the connector ports, and wherein each RF antenna transmits detected RFID tag identifiers to the RFID reader, characterized in that each connector port comprises tracing circuitry that is operable to locate a connector port in which an opposite end of the patch cord is located. a patch panel comprising a plurality of connector ports, a plurality of patch cords configured to selectively interconnect pairs of the connector ports, wherein each patch cord comprises opposite ends and a respective connector secured to each end, wherein each connector is configured to be removably secured within a connector port, and wherein each connector of a respective patch cord comprises an RFID tag; and wherein the RFID tags for a respective patch cord have the same unique identifier stored therewithin; an RFID reader; and a plurality of RF antennas, wherein each RF antenna is attached to the patch panel adjacent a respective one of the connector ports, wherein each RF antenna emits RF signals configured to cause a patch cord connector RFID tag to transmit its identifier when excited by emitted RF signals, wherein each RF antenna detects transmitted identifiers of patch cord connector RFID tags when a patch cord connector is inserted within, and removed from, a respective one of the connector ports, and wherein each RF antenna transmits detected RFID tag identifiers to the RFID reader, characterized in that each connector port comprises tracing circuitry that is operable to locate a connector port in which an opposite end of the patch cord is located.
Illumination apparatus for outputting an output light, comprising a first light source configured to emit first light with a first peak wavelength in a first range of 660 nm to 699 nm; wherein the illumination apparatus is characterized by further comprising a second light source configured to emit second light with a second peak wavelength in a second range of 689 nm to 705 nm; wherein the second peak wavelength is larger than the first peak wavelength by at least 5 nm; the second light source is configured to be switched on and off independently from the first light source; the apparatus is configured to output the first light as the output light if the second light source is switched off and to output the first light and the second light as the output light if the second light source is switched on. wherein the illumination apparatus is characterized by further comprising a second light source configured to emit second light with a second peak wavelength in a second range of 689 nm to 705 nm; wherein the second peak wavelength is larger than the first peak wavelength by at least 5 nm; the second light source is configured to be switched on and off independently from the first light source; the apparatus is configured to output the first light as the output light if the second light source is switched off and to output the first light and the second light as the output light if the second light source is switched on.