mhurhangee/ep-ind-claims huggingface dataset:
Automatic welding machine for welding plastic webs, with a movable supporting frame, a heating device for partially melting the plastic webs, at least two opposing booms (3, 3') with pressing and advancing rollers (11, 11'), at least one driving device and a tensioning device that is mounted on the supporting frame and comprises an actuating element for reversibly joining the booms (3, 3') and applying a tension force between these, having an open position in which the opposing booms (3, 3') are separated from one another by a gap and a closed position in which the opposing booms (3, 3') are joined to one another and braced with respect to one another, one boom being mounted pivotably in relation to the other boom and being able to be brought from the open into the closed position by the actuation of the tensioning device, whereby the tensioning device comprises a supporting element connected to the supporting frame and a spring-loaded element for generating the tension force and the spring-loaded element, at one end, is rigidly connected to the supporting element, characterized in that, at the other end, the spring-loaded element is connected to the actuating element designed as an actuating lever so as to pivot about an axis; the actuating lever is mounted on the supporting frame so as to pivot about a further axis and thus forms a double swivel joint for the spring-loaded element, and whereby pivoting the actuating lever out of the open position into the closed position causes the spring-loaded element to be tensioned and thereby the pivotable boom of the supporting element is brought out of the open position into the closed position, whereby the supporting element and the pivotable boom are rigidly connected to one another and pivotable about a shared axis.
A mould (2, 32, 42, 62) for moulding a wind turbine blade or an elongate structural part thereof, the mould comprising a plurality of longitudinal elongate mould sections (64, 66) fitted together in an end-to-end relationship to form a unitary mould, each mould section (64, 66) having a central mould portion between opposite end portions, each mould section (64, 66) being composed of a fibre reinforced resin matrix composite material, at least one end portion of each mould section (64, 66) forming an integral flange oriented substantially orthogonally downwardly with respect to an upper surface of the mould section (64, 66), and the upper surface including a moulding surface and a recess located between the flange and the moulding surface, the recess extending across a transverse width of the mould section (64, 66) whereby the flanges (76a, 76b) of adjacent mould sections (64, 66) are fitted together in an abutting relationship and the adjacent recesses form a combined recess separating the moulding surfaces of the adjacent mould sections (64, 66), characterised in that the mould further comprises heating wires within each mould section (64, 66), the heating wires extending from the central mould portion into the flange, a vertical gap is provided between abutting flanges (76a, 76b), and a thermally conductive material is disposed in the vertical gap, the thermally conductive material comprising a cured resin including metallic particles, wherein the heating wires in the flanges (76a, 76b) are arranged to heat the thermally conductive material in the vertical gap for conducting heat toward the moulding surface above the thermally conductive material during moulding of a wind turbine blade or an elongate structural part thereof.
Electrical circuit that comprises at least three battery modules, wherein each of said battery modules comprises at least one battery subportion (1101; 1201; 1301; 2101; 2201; 2301; 8106-8108; 8206-8208; 9106-9108; 10114; 10214; 10314) and at least two electric switches (1105-1108; 1207, 1208; 1307, 1308; 2105-2108; 8101-8104, 8112-8115, 8201-8204, 8212-8215; 10121-10128; 10221-10228; 10321-10328; 10421-10428); and wherein each of said battery modules is electrically connected to at least a second of said battery modules through at least one electric inter-battery-module connection line (1103, 1104; 1203, 1204; 1303, 1304; 2103, 2104, 2109, 2110; 2203, 2204, 2209, 2210; 2303, 2304, 2309, 23010; 4011, 4012; 5128, 5129; 9105, 9116) characterized in that the at least two electric switches are adapted to dynamically change the electric connectivity of at least three battery subportions, each part of a different battery module of the at least three battery modules, between at least two alternatives of the electric connectivity by effective switching of said electric switches, wherein the at least two alternatives of the electric connectivity include at least the two following: the at least one battery subportion of one battery module is electrically conductively connected in series with the at least one battery subportion of another battery module; the at least one battery subportion of one battery module is electrically conductively connected in parallel with the at least one battery subportion of another. battery module. the at least one battery subportion of one battery module is electrically conductively connected in series with the at least one battery subportion of another battery module; the at least one battery subportion of one battery module is electrically conductively connected in parallel with the at least one battery subportion of another. battery module.
A polymeric battery separator comprising a nonwoven combination of microfibers and nanofibers, wherein said combination of microfibers and nanofibers is present as a single layer within said separator, and wherein said separator provides sufficient porosity for electrolyte ion transfer therethrough and suitable prevention of electrode contact when present within a battery, wherein said nanofibers have an average diameter less than 1000 nm, wherein said microfibers have a diameter greater than 3000 nanometers, and wherein said nanofibers and microfibers are intermingled such that at least a portion of said nanofibers reside in the interstices between said microfibers.
A method for recording and playing a user voice by a mobile terminal, the method comprising: entering a page by executing an electronic book; identifying, by the mobile terminal, whether a user voice record file corresponding to the page exists; generating a user voice record file corresponding to the page by recording a user voice corresponding to a text included in the page if the user voice record file does not exist; and playing a user voice by synchronizing the user voice stored in the user voice record file with the text if the user voice record file exists. entering a page by executing an electronic book; identifying, by the mobile terminal, whether a user voice record file corresponding to the page exists; generating a user voice record file corresponding to the page by recording a user voice corresponding to a text included in the page if the user voice record file does not exist; and playing a user voice by synchronizing the user voice stored in the user voice record file with the text if the user voice record file exists.
An electro-active lens, comprising: a first substrate having a first index of refraction; a second substrate having said first index of refraction; an electro-active material disposed between the first and the second substrates (220, 230), wherein the electro-active material has a second index of refraction approximately equal to the first index of refraction when the electro-active lens is in a deactivated state; a continuous electrode disposed on the side of said first substrate facing said electro-active material; and one or more electrodes disposed on the side of said second substrate facing said electro-active material, characterized in that said first substrate and said second substrate have a first dispersion of said first index of refraction, and wherein said electro-active material has a second dispersion of said second index of refraction, and wherein said first dispersion of said first index of refraction is substantially equal to said second dispersion of said second index of refraction; wherein the second substrate is a surface relief diffractive element; and wherein the electro-active material comprises a nematic liquid crystal having a birefringence larger than 0.20 and a chiral dopant having a helical twisting power with a magnitude greater than 1.1 μm -1. a first substrate having a first index of refraction; a second substrate having said first index of refraction; an electro-active material disposed between the first and the second substrates (220, 230), wherein the electro-active material has a second index of refraction approximately equal to the first index of refraction when the electro-active lens is in a deactivated state; a continuous electrode disposed on the side of said first substrate facing said electro-active material; and one or more electrodes disposed on the side of said second substrate facing said electro-active material, characterized in that said first substrate and said second substrate have a first dispersion of said first index of refraction, and wherein said electro-active material has a second dispersion of said second index of refraction, and wherein said first dispersion of said first index of refraction is substantially equal to said second dispersion of said second index of refraction; wherein the second substrate is a surface relief diffractive element; and wherein the electro-active material comprises a nematic liquid crystal having a birefringence larger than 0.20 and a chiral dopant having a helical twisting power with a magnitude greater than 1.1 μm -1.
A single-use product preparation container assembly comprising: a container body for containing a product prior to, during and following preparation thereof; and a single-use container body closure assembly defining with said container body a product preparation enclosure and including an externally rotatably drivable rotary product engagement assembly; said single-use container body closure assembly comprises: a lid; and a rotatable blade assembly located on said lid for engaging contents of said container body, said rotatable blade assembly and said lid being relatively at least linearly moveable with respect to each other, characterized in that: wherein the lid has a recess formed therein; and wherein said rotatable blade assembly and said lid are relatively at least linearly moveable with respect to each other at least between a first retracted orientation wherein said rotatable blade assembly is at least partially located within said recess and a second extended orientation wherein said rotatable blade assembly is outside of said recess. a container body for containing a product prior to, during and following preparation thereof; and a single-use container body closure assembly defining with said container body a product preparation enclosure and including an externally rotatably drivable rotary product engagement assembly; said single-use container body closure assembly comprises: a lid; and a rotatable blade assembly located on said lid for engaging contents of said container body, said rotatable blade assembly and said lid being relatively at least linearly moveable with respect to each other, a lid; and a rotatable blade assembly located on said lid for engaging contents of said container body, said rotatable blade assembly and said lid being relatively at least linearly moveable with respect to each other, wherein the lid has a recess formed therein; and wherein said rotatable blade assembly and said lid are relatively at least linearly moveable with respect to each other at least between a first retracted orientation wherein said rotatable blade assembly is at least partially located within said recess and a second extended orientation wherein said rotatable blade assembly is outside of said recess.
Gemcitabine for use in treating a gemcitabine-sensitive tumor, or inducing regression of a GEM-sensitive tumor, in a subject of a species, wherein GEM is to be orally administered to the subject in a formulation that, upon oral ingestion, releases in a bioavailable form less than half the maximum tolerated dose of GEM for the species, wherein the formulation is a self-emulsifying pharmaceutical composition comprising: (a) a therapeutically effective amount of the GEM or a pharmaceutically acceptable salt thereof, the amount being a fraction of the MTD for GEM when orally administered to humans in the SEP composition; (b) one or more solvent(s) capable of dissolving the drug or salt to form a GEM-solvent solution; (c) a surfactant system comprising one or more surfactants, the surfactant system exhibiting an HLB value from 8 to 17; and (d) one or more hydrophilic carrier(s) which are compatible with the GEM-solvent solution and the surfactant system, wherein the formulation is administered to the subject multiple times on a regular schedule without a significant interruption for a sustained period of time. (a) a therapeutically effective amount of the GEM or a pharmaceutically acceptable salt thereof, the amount being a fraction of the MTD for GEM when orally administered to humans in the SEP composition; (b) one or more solvent(s) capable of dissolving the drug or salt to form a GEM-solvent solution; (c) a surfactant system comprising one or more surfactants, the surfactant system exhibiting an HLB value from 8 to 17; and (d) one or more hydrophilic carrier(s) which are compatible with the GEM-solvent solution and the surfactant system,
A monitoring system for a passenger conveyor comprising at least one acceleration sensor provided on a movable component (22, 26, 30) of the passenger conveyor, wherein the moveable component (22, 26, 30) moves in a closed loop path when the passenger conveyor is in use; a fault detection sensor associated with the or each acceleration sensor and configured to provide data indicative of a fault in the moveable component (22, 26, 30); and a controller configured to: receive data from the or each acceleration sensor; monitor a gravity vector of the or each acceleration sensor; determine a direction of travel of the or each acceleration sensor; determine a current location of the or each acceleration sensor based on the monitored gravity vector and the determined direction of travel; detect a fault from the data received from the or each fault detection sensor; identify a location of the detected fault based on the determined current location of the associated acceleration sensor; characterised in that the controller is further configured to monitor a start-up acceleration of the or each acceleration sensor and determine the direction of travel of the or each acceleration sensor based on the monitored start-up acceleration and the monitored gravity vector. receive data from the or each acceleration sensor; monitor a gravity vector of the or each acceleration sensor; determine a direction of travel of the or each acceleration sensor; determine a current location of the or each acceleration sensor based on the monitored gravity vector and the determined direction of travel; detect a fault from the data received from the or each fault detection sensor; identify a location of the detected fault based on the determined current location of the associated acceleration sensor; characterised in that the controller is further configured to monitor a start-up acceleration of the or each acceleration sensor and determine the direction of travel of the or each acceleration sensor based on the monitored start-up acceleration and the monitored gravity vector.
A component for a gas turbine engine, comprising: an airfoil shell (92; 192) having an internal cavity and extending between a radially inner platform and a radially outer platform; a spar (86; 186) disposed within the internal cavity; and a radiant heat shield (90; 190; 290; 390) that circumscribes the spar (86; 186) within the internal cavity, the radiant heat shield (90; 190; 290; 390) enclosed within the airfoil shell (92; 192); characterised in that: the airfoil shell (92; 192) has a greater resistance to heat than the spar (86; 186); the spar (86; 186) has a greater strength than the airfoil shell (92; 192); and the radiant heat shield (90; 190; 290; 390) has a reflectance to radiant heat that is greater than or equal to that of the spar (86; 186). an airfoil shell (92; 192) having an internal cavity and extending between a radially inner platform and a radially outer platform; a spar (86; 186) disposed within the internal cavity; and a radiant heat shield (90; 190; 290; 390) that circumscribes the spar (86; 186) within the internal cavity, the radiant heat shield (90; 190; 290; 390) enclosed within the airfoil shell (92; 192); characterised in that: the airfoil shell (92; 192) has a greater resistance to heat than the spar (86; 186); the spar (86; 186) has a greater strength than the airfoil shell (92; 192); and the radiant heat shield (90; 190; 290; 390) has a reflectance to radiant heat that is greater than or equal to that of the spar (86; 186). the airfoil shell (92; 192) has a greater resistance to heat than the spar (86; 186); the spar (86; 186) has a greater strength than the airfoil shell (92; 192); and the radiant heat shield (90; 190; 290; 390) has a reflectance to radiant heat that is greater than or equal to that of the spar (86; 186).
An apparatus, comprising: a housing having a chamber therein; a replaceable part which has a moisture adsorption characteristic and which is in communication with said chamber: a humidity monitoring section which is responsive to the humidity within said chamber; characterised by: a first valve, coupled to the replaceable part, which has a closed state that prevents a flow of gas between said chamber and a location external to said housing, and which has an open state that permits a flow of gas into said chamber; a second valve, provided through said housing, which has a closed state that prevents a flow of gas between said chamber and a location external to said housing, and which has an open state that permits a flow of gas out of said chamber. a housing having a chamber therein; a replaceable part which has a moisture adsorption characteristic and which is in communication with said chamber: a humidity monitoring section which is responsive to the humidity within said chamber; characterised by: a first valve, coupled to the replaceable part, which has a closed state that prevents a flow of gas between said chamber and a location external to said housing, and which has an open state that permits a flow of gas into said chamber; a second valve, provided through said housing, which has a closed state that prevents a flow of gas between said chamber and a location external to said housing, and which has an open state that permits a flow of gas out of said chamber. a first valve, coupled to the replaceable part, which has a closed state that prevents a flow of gas between said chamber and a location external to said housing, and which has an open state that permits a flow of gas into said chamber; a second valve, provided through said housing, which has a closed state that prevents a flow of gas between said chamber and a location external to said housing, and which has an open state that permits a flow of gas out of said chamber.
Seat of a motor vehicle comprising a seat member and a foldable backrest comprising a rear face which is capable of being in a substantially horizontal position once said backrest has been folded down, characterized in that the rear face of the backrest is provided with fixing means which are capable of cooperating with an independent tray in order to retain it in a deployed position on said rear face once the backrest has been folded down.
Method for displaying data in at least two spatial planes of a flexible display, characterised in that the flexible display is bent such that at least one first portion of the display is positioned, from a viewer's perspective, in a second plane behind at least one second portion of the display positioned in a first plane, so that on the at least one first portion of the display at least data pertaining to depth information of data presented on the at least one second portion of display can be represented.
A heat not burn consumable comprising: a tubular vapour generating member defining a channel therethrough, wherein at least an active portion of the vapour generating member includes an aerosol former and an active substance configured to be heated by a heater to produce vapour, wherein: the tubular vapour generating member has an inlet to the channel at a first end of the consumable, the first end of the consumable being for cooperation with a heating device; and wherein the active portion of the vapour generating member has a sidewall which has a thickness between 0.2 and 1.0 mm and the active portion includes between 0.2 milligrams and 2.0 milligrams of active substance.
An assay for diagnosing Kawasaki disease in a subject comprising: analyzing a biological sample obtained from a subject for a level of biomarker meprin A; wherein an increase in the level of the biomarker compared with a reference level of a normalizing protein is indicative that the subject has KD. analyzing a biological sample obtained from a subject for a level of biomarker meprin A; wherein an increase in the level of the biomarker compared with a reference level of a normalizing protein is indicative that the subject has KD.
A computer-implemented method to determine placement of transducers (21A, 22A, 23A, 24A; 31A, 32A, 33A, 34A; 31B, 32B, 33B, 34B; 31C, 32C, 33C, 34C; 31D, 32D, 33D, 34D, 35D; 31E, 32E, 33E; 41A-E, 42A-E; 61A, B, 62A, B, 63A, B, 64A, B) on a subject's body for inducing tumor treating fields, the computer comprising one or more processors and memory accessible by the one or more processors, the memory storing instructions that, when executed by the one or more processors, cause the computer to perform the method, the method comprising: selecting a plurality of pairs of locations on the subject's body, each pair of locations having a first location to locate a first transducer and a second location to locate a second transducer; obtaining a model of AC electrical conductivity in a portion of the subject's body; obtaining, for each location in the pairs of locations, an indication of heat removal potential at a surface of the subject's body; selecting one or more recommended pairs of first and second locations based at least on the model of AC electrical conductivity and the indication of heat removal potential for each location; and outputting the one or more recommended pairs of first and second locations. selecting a plurality of pairs of locations on the subject's body, each pair of locations having a first location to locate a first transducer and a second location to locate a second transducer; obtaining a model of AC electrical conductivity in a portion of the subject's body; obtaining, for each location in the pairs of locations, an indication of heat removal potential at a surface of the subject's body; selecting one or more recommended pairs of first and second locations based at least on the model of AC electrical conductivity and the indication of heat removal potential for each location; and outputting the one or more recommended pairs of first and second locations.