mhurhangee/ep-ind-claims huggingface dataset:
A water blocking power cable, comprising: a cable core comprising in this order: a watertight conductor formed by twisting a plurality of wires filled with watertight material therebetween; an inner semiconductive layer formed of a conductive material mainly comprising a mixture blended 100 parts by weight of polyolefin based rubber or resin, 10 to 100 parts by weight of carbon black, and 0.3 to 3.0 parts by weight of aliphatic alkyl peroxide, the inner semiconductive layer being crosslinked by heating; an insulating layer formed from an insulating coating material mainly comprising polyolefin based rubber or resin; and an outer semiconductive layer. a cable core comprising in this order: a watertight conductor formed by twisting a plurality of wires filled with watertight material therebetween; an inner semiconductive layer formed of a conductive material mainly comprising a mixture blended 100 parts by weight of polyolefin based rubber or resin, 10 to 100 parts by weight of carbon black, and 0.3 to 3.0 parts by weight of aliphatic alkyl peroxide, the inner semiconductive layer being crosslinked by heating; an insulating layer formed from an insulating coating material mainly comprising polyolefin based rubber or resin; and an outer semiconductive layer. a watertight conductor formed by twisting a plurality of wires filled with watertight material therebetween; an inner semiconductive layer formed of a conductive material mainly comprising a mixture blended 100 parts by weight of polyolefin based rubber or resin, 10 to 100 parts by weight of carbon black, and 0.3 to 3.0 parts by weight of aliphatic alkyl peroxide, the inner semiconductive layer being crosslinked by heating; an insulating layer formed from an insulating coating material mainly comprising polyolefin based rubber or resin; and an outer semiconductive layer.
An apparatus for recovering a refrigerant from an air conditioning system, said apparatus comprising: - a collector hydraulically connected to a high pressure branch and a low pressure branch of the air conditioning system with a fluid feeding duct in said apparatus; - an evaporator arranged to separate said refrigerant from impurities through an evaporation of residual liquid fractions of said refrigerant, in order to obtain a purified refrigerant that evaporates and rises towards an upper part of the evaporator, and to obtain impurities that are concentrated in a lower part of said evaporator; - a suction unit for circulating the purified refrigerant exiting from said evaporator, said suction unit being in hydraulic connection with said feeding duct through said evaporator, said suction unit comprising a compressor; - a condenser in hydraulic connection with said suction unit, said condenser arranged to condense the refrigerant exiting from said suction unit; - a storage container in hydraulic connection with said condenser, said storage container arranged to contain the refrigerant condensed by said condenser; characterized in that upstream of said evaporator an auxiliary compressor means is provided arranged in parallel to said feeding duct, said auxiliary compressor means configured to boost the flow rate of said refrigerant towards said evaporator and for assisting a progressive pressure reduction of said refrigerant in said air conditioning system in cooperation with said suction unit. - a collector hydraulically connected to a high pressure branch and a low pressure branch of the air conditioning system with a fluid feeding duct in said apparatus; - an evaporator arranged to separate said refrigerant from impurities through an evaporation of residual liquid fractions of said refrigerant, in order to obtain a purified refrigerant that evaporates and rises towards an upper part of the evaporator, and to obtain impurities that are concentrated in a lower part of said evaporator; - a suction unit for circulating the purified refrigerant exiting from said evaporator, said suction unit being in hydraulic connection with said feeding duct through said evaporator, said suction unit comprising a compressor; - a condenser in hydraulic connection with said suction unit, said condenser arranged to condense the refrigerant exiting from said suction unit; - a storage container in hydraulic connection with said condenser, said storage container arranged to contain the refrigerant condensed by said condenser; characterized in that upstream of said evaporator an auxiliary compressor means is provided arranged in parallel to said feeding duct, said auxiliary compressor means configured to boost the flow rate of said refrigerant towards said evaporator and for assisting a progressive pressure reduction of said refrigerant in said air conditioning system in cooperation with said suction unit.
A spiral conveyor comprising: a drive drum extending from a bottom to a top and having a cylindrical periphery rotatable about a vertical axis; a plurality of parallel drive members extending in length along the cylindrical periphery of the drive drum from the bottom to the top; a helical carryway for supporting a conveyor belt positively driven at an inside edge by engagement with the drive members and defining a helical path for the conveyor belt about the periphery of the drive drum from the bottom to the top; wherein the helical carryway extends from an entrance end at the top for a downgoing spiral conveyor and at the bottom for an upgoing spiral conveyor to an exit end at the bottom for a downgoing spiral conveyor and at the top for an upgoing spiral conveyor; characterized in that the helical path is steeper at the entrance end than at the exit end. a drive drum extending from a bottom to a top and having a cylindrical periphery rotatable about a vertical axis; a plurality of parallel drive members extending in length along the cylindrical periphery of the drive drum from the bottom to the top; a helical carryway for supporting a conveyor belt positively driven at an inside edge by engagement with the drive members and defining a helical path for the conveyor belt about the periphery of the drive drum from the bottom to the top; wherein the helical carryway extends from an entrance end at the top for a downgoing spiral conveyor and at the bottom for an upgoing spiral conveyor to an exit end at the bottom for a downgoing spiral conveyor and at the top for an upgoing spiral conveyor; characterized in that the helical path is steeper at the entrance end than at the exit end.
A method of handover of radio communications connection, wherein the radio communications comprises base station radio coverage ranges of received radio frequency signals and transmitted radio frequency signals, and wherein the method comprises: detecting radio coverage range unbalances between downlink or uplink directions between a particular user equipment and different base stations (BS A, BS B), compensating radio coverage range unbalances between downlink and uplink directions between the particular user equipment and the different base stations (BS A, BS B), at least partially despreading one or more received signals from the particular user equipment in a Wideband Code Division Multiple Access, WCDMA, system wherein the method is characterized in that the compensating of the radio coverage range unbalances comprises: adding noise or interference to one or more received signals from the particular user equipment, wherein the adding of noise or interference comprises adding noise or interference posterior to the despreading of the one or more received signals for the particular user equipment, whereby signal components of the particular user equipment are enhanced. detecting radio coverage range unbalances between downlink or uplink directions between a particular user equipment and different base stations (BS A, BS B), compensating radio coverage range unbalances between downlink and uplink directions between the particular user equipment and the different base stations (BS A, BS B), at least partially despreading one or more received signals from the particular user equipment in a Wideband Code Division Multiple Access, WCDMA, system wherein the method is characterized in that the compensating of the radio coverage range unbalances comprises: adding noise or interference to one or more received signals from the particular user equipment, wherein the adding of noise or interference comprises adding noise or interference posterior to the despreading of the one or more received signals for the particular user equipment, whereby signal components of the particular user equipment are enhanced. adding noise or interference to one or more received signals from the particular user equipment, wherein the adding of noise or interference comprises adding noise or interference posterior to the despreading of the one or more received signals for the particular user equipment, whereby signal components of the particular user equipment are enhanced.
A process for preparing urethane (meth)acrylates of the formula which comprises in a first step reacting a hydroxyalkyl (meth)acrylate of the formula with a lactone of the formula in the presence of at least one zinc compound and/or bismuth compound, and in a further step reacting the resultant bismuth-containing product from the first step with at least one cycloaliphatic or asymmetric aliphatic diisocyanate, in which R 1 is a divalent alkylene radical which has 2 to 12 carbon atoms and which may optionally be substituted by C 1 to C 4 alkyl groups and/or interrupted by one or more oxygen atoms, R 2 in each case independently of any other is methyl or hydrogen, R 3 is a divalent alkylene radical which has 1 to 12 carbon atoms and which may optionally be substituted interrupted by C 1 to C 4 alkyl groups and/or by one or more oxygen atoms, R 4 is a divalent organic radical which is formed by abstraction of both isocyanate groups from a cycloaliphatic or asymmetric aliphatic diisocyanate, and n and m independently of one another are positive numbers from 1 to 5. in which R 1 is a divalent alkylene radical which has 2 to 12 carbon atoms and which may optionally be substituted by C 1 to C 4 alkyl groups and/or interrupted by one or more oxygen atoms, R 2 in each case independently of any other is methyl or hydrogen, R 3 is a divalent alkylene radical which has 1 to 12 carbon atoms and which may optionally be substituted interrupted by C 1 to C 4 alkyl groups and/or by one or more oxygen atoms, R 4 is a divalent organic radical which is formed by abstraction of both isocyanate groups from a cycloaliphatic or asymmetric aliphatic diisocyanate, and n and m independently of one another are positive numbers from 1 to 5.
A multifilar coil (904,1004,1104,1204) comprising: a first plurality of adjacent first filaments helically wound about a long axis, each of the first filaments having a substantially equal first lateral flexibility; and a second plurality of adjacent second filaments, the second plurality wound adjacent, along the long axis, to the first plurality, each of the second filaments having a respective lateral flexibility less than the first flexibility; wherein upon application to the coil of a force normal to the long axis, the coil tends preferentially to bend at a first coil portion that is helically oriented about the long axis and defined by the first plurality of adjacent first filaments; characterized in that the coil (904,1004,1104,1204) forms a first region (902a, 1002a), a second region (902b, 1002b), a third region (902c, 1002c), and a fourth region (902d,1002d) axially spaced along a length of the coil (904,1004,1104,1204), wherein a first maximum cross-sectional dimension of the first region (903a, 1002a) and the third region (902c, 1002c) is greater than a second maximum cross-sectional dimension of the second region (902b,1002b) and the fourth region (902d,1002d). a first plurality of adjacent first filaments helically wound about a long axis, each of the first filaments having a substantially equal first lateral flexibility; and a second plurality of adjacent second filaments, the second plurality wound adjacent, along the long axis, to the first plurality, each of the second filaments having a respective lateral flexibility less than the first flexibility; wherein upon application to the coil of a force normal to the long axis, the coil tends preferentially to bend at a first coil portion that is helically oriented about the long axis and defined by the first plurality of adjacent first filaments; characterized in that the coil (904,1004,1104,1204) forms a first region (902a, 1002a), a second region (902b, 1002b), a third region (902c, 1002c), and a fourth region (902d,1002d) axially spaced along a length of the coil (904,1004,1104,1204), wherein a first maximum cross-sectional dimension of the first region (903a, 1002a) and the third region (902c, 1002c) is greater than a second maximum cross-sectional dimension of the second region (902b,1002b) and the fourth region (902d,1002d).
A smelting vessel for producing molten metal including a refractory lined hearth that in use is in contact with molten slag or molten metal in the vessel, with the hearth including a plurality of heat pipes positioned in a refractory lining of at least a part of the hearth for cooling at least a part of the refractory lining, with at least one of the heat pipes being adapted to contain: a liquid phase of a heat transfer fluid, typically water, in a lower section of the heat pipe; a vapor phase of the heat transfer fluid, typically steam, in an upper section of the heat pipe; and a vent includes, a snorkel extending into the heat pipe, the snorkel comprising: an open end, that is inside the heat pipe and adapted to communicate with the vapour phase, and a closed end, that is outside the heat pipe, wherein, the closed end of the snorkel is configured to open when the vapour pressure or the temperature in the heat pipe exceeds a predetermined threshold pressure or temperature, to allow the vapour phase and not the liquid phase to escape from the heat pipe to reduce the pressure or the temperature within the heat pipe. a liquid phase of a heat transfer fluid, typically water, in a lower section of the heat pipe; a vapor phase of the heat transfer fluid, typically steam, in an upper section of the heat pipe; and a vent includes, a snorkel extending into the heat pipe, the snorkel comprising: an open end, that is inside the heat pipe and adapted to communicate with the vapour phase, and a closed end, that is outside the heat pipe, wherein, the closed end of the snorkel is configured to open when the vapour pressure or the temperature in the heat pipe exceeds a predetermined threshold pressure or temperature, to allow the vapour phase and not the liquid phase to escape from the heat pipe to reduce the pressure or the temperature within the heat pipe.
A seating unit having a base (21; 21B), a seat, a back (23; 23B), and a control which is arranged to be operably coupled to and supporting the back for movement between upright and reclined positions, the control including a housing, a first mechanism (123', 137, 123B', 137B) arranged to provide a biasing supporting force to the back during recline, an energy adjustment mechanism and a back stop mechanism, characterised by: the control including an actuator (155, 156, 205) movable to a first operative position for selectively engaging the energy adjustment mechanism, and movable to a second operative position for selectively engaging the back stop mechanism; the energy adjustment mechanism comprising a booster spring mechanism capable of increasing the supporting force, the actuator comprising an on/off selector device for selectively activating and deactivating the booster spring mechanism.
A composition comprising a compound shown below (Formula I): [Chemical Formula I] R 1 -NHCH 2 -COCH 2 -CH 2 COOR 2 wherein R 1 represents a hydrogen atom or an acyl group, and R 2 represents a hydrogen atom, a linear or branched alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group, or a salt thereof, for use in preventing and/or treating a hangover.
A product delivery and monitoring system comprising: at least one first pump; a first sensor for each first pump, each first pump sensor configured and arranged to monitor the operation of the at least one pump; at least one second pump configured and arranged to deliver a product at least in part in response to the operation of an associated first pump; a second pump sensor for each second pump, each second pump sensor configured and arranged to monitor the delivery of the product by the at least one second pump; and a controller in communication with each first pump sensor and each second pump sensor, the controller configured to generate at least one signal based at least in part on comparisons between communications between the controller and a first pump sensor and the controller and an associated second pump sensor. at least one first pump; a first sensor for each first pump, each first pump sensor configured and arranged to monitor the operation of the at least one pump; at least one second pump configured and arranged to deliver a product at least in part in response to the operation of an associated first pump; a second pump sensor for each second pump, each second pump sensor configured and arranged to monitor the delivery of the product by the at least one second pump; and a controller in communication with each first pump sensor and each second pump sensor, the controller configured to generate at least one signal based at least in part on comparisons between communications between the controller and a first pump sensor and the controller and an associated second pump sensor.
A heat exchanger comprising: a plurality of plate-shaped first heat transfer member through which a first fluid passes; and a plurality of plate-shaped second heat transfer member through which a second fluid passes, wherein the first heat transfer member and the second heat transfer member are stacked in a thickness direction thereof, at least one of the first heat transfer member and the second heat transfer member is integrally provided with a groove-shaped flow passage including a flow port (11, 12, 21, 22) for receiving or discharging a fluid, a plurality of heat exchange passages (13, 23) for making the fluid exchange heat, and a connection passage part (14, 24) having both ends, one of the ends being connected to the flow port and the other thereof being connected to the plurality of heat exchange passages, and characterized by the fact that the connection passage part has a tournament shape branched into two by two as it advances toward the heat exchange passages. a plurality of plate-shaped first heat transfer member through which a first fluid passes; and a plurality of plate-shaped second heat transfer member through which a second fluid passes, wherein the first heat transfer member and the second heat transfer member are stacked in a thickness direction thereof, at least one of the first heat transfer member and the second heat transfer member is integrally provided with a groove-shaped flow passage including a flow port (11, 12, 21, 22) for receiving or discharging a fluid, a plurality of heat exchange passages (13, 23) for making the fluid exchange heat, and a connection passage part (14, 24) having both ends, one of the ends being connected to the flow port and the other thereof being connected to the plurality of heat exchange passages, and characterized by the fact that the connection passage part has a tournament shape branched into two by two as it advances toward the heat exchange passages.
An access tunnel to an aircraft, comprising several tunnel elements that are displaceably connected to each other, characterized in that, a plurality of the tunnel elements are formed so that they taper conically in the direction of the longitudinal axis of each tunnel element, so that the tunnel elements can be pushed into each other.
A method for controlling a spectrometer for analyzing a product, the spectrometer comprising a light source comprising several light-emitting diodes (LD1-LD4) having respective emission spectra covering in combination an analysis wavelength band, characterized in that it comprises steps of: supplying at least one of the light-emitting diodes (LD1 to LD4) with a supply current (Ix) to switch it on, and measuring a light intensity (LFLz) emitted by the light source by measuring a current at a terminal of at least another of the light-emitting diodes maintained off, determining, according to each light intensity measurement, a setpoint value (LCx) of the supply current of each diode that is on, and regulating the supply current of each diode that is on so that it corresponds to the setpoint value. supplying at least one of the light-emitting diodes (LD1 to LD4) with a supply current (Ix) to switch it on, and measuring a light intensity (LFLz) emitted by the light source by measuring a current at a terminal of at least another of the light-emitting diodes maintained off, determining, according to each light intensity measurement, a setpoint value (LCx) of the supply current of each diode that is on, and regulating the supply current of each diode that is on so that it corresponds to the setpoint value.
A system for characterizing an active device, comprising a device class including - a set of component attributes (32a, 32b, 32c), wherein a component attribute indicates a purpose of an active device, - a set of capability attributes (34.1, 34.2, 34.3), wherein a capability attribute (34.1) indicates a functionality of an active device, wherein the set of component attributes and the set of capability attributes are selected to build up a complete and consistent abstraction model that allows to characterize any active device as regards its purpose and functionality, and wherein each component attribute is linked to at least one of the capability attributes (34.1, 34.2, 34.3) so that any active device can be characterized by at least one of the component attributes and at least one of the capability attributes (34.1, 34.2, 34.3) linked to that at least one component attribute, - a software framework implementing at least the device class; and - a software application based on the software framework, wherein the software application, when executed on a computing device (18; 20), is configured to allow: - generation and addition of a device object, based on the device class, to a device management system in a computing network; - connecting an active device to the device object; and - communicating with the active device via the device management system over the computing network by means of a controller device. - a set of component attributes (32a, 32b, 32c), wherein a component attribute indicates a purpose of an active device, - a set of capability attributes (34.1, 34.2, 34.3), wherein a capability attribute (34.1) indicates a functionality of an active device, wherein the set of component attributes and the set of capability attributes are selected to build up a complete and consistent abstraction model that allows to characterize any active device as regards its purpose and functionality, and wherein each component attribute is linked to at least one of the capability attributes (34.1, 34.2, 34.3) so that any active device can be characterized by at least one of the component attributes and at least one of the capability attributes (34.1, 34.2, 34.3) linked to that at least one component attribute, - a software framework implementing at least the device class; and - a software application based on the software framework, - generation and addition of a device object, based on the device class, to a device management system in a computing network; - connecting an active device to the device object; and - communicating with the active device via the device management system over the computing network by means of a controller device.