mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus comprising: a display area (DA) and a folding area (FA); a display panel ; a digitizer disposed below the display panel; a sagging prevention member disposed in a portion below the display panel overlapping the folding area, and a cushion layer disposed below the digitizer; wherein the display area includes a first display area (DA1) and a second display area (DA2) spaced apart from each other, the folding area is disposed between the first display area and the second display area, and the digitizer includes: a first digitizer overlapping the first display area; a second digitizer overlapping the second display area; and a third digitizer overlapping the folding area, wherein the third digitizer is disposed on the sagging prevention layer, wherein the sagging prevention member and the third digitizer are configured to be movable together. a display area (DA) and a folding area (FA); a display panel ; a digitizer disposed below the display panel; a sagging prevention member disposed in a portion below the display panel overlapping the folding area, and a cushion layer disposed below the digitizer; wherein the display area includes a first display area (DA1) and a second display area (DA2) spaced apart from each other, the folding area is disposed between the first display area and the second display area, and the digitizer includes: a first digitizer overlapping the first display area; a second digitizer overlapping the second display area; and a third digitizer overlapping the folding area, wherein the third digitizer is disposed on the sagging prevention layer, wherein the sagging prevention member and the third digitizer are configured to be movable together. a first digitizer overlapping the first display area; a second digitizer overlapping the second display area; and a third digitizer overlapping the folding area, wherein the third digitizer is disposed on the sagging prevention layer, wherein the sagging prevention member and the third digitizer are configured to be movable together.
Temperature sensor arrangement for measuring a temperature of a component section of a component of a metallurgical plant, comprising - at least one optical waveguide with fibre Bragg gratings constructed at the optical waveguide at a mutual spacing in longitudinal direction of the optical waveguide , - at least one protective tube of a metal or a metal alloy which surrounds the optical waveguide in encircling manner with radial play and which is introducible, together with the optical waveguide inserted therein, into a sensor bore at the component section , and - at least one plug for connecting the optical waveguide with an optoelectrical sensor electronic system, characterised in that - the plug comprises a connecting sleeve of a metal or metal alloy, through which an end section - which is inserted into the plug - of the optical waveguide is guided and which is welded to the protective tube , and - the optical waveguide is directly connected with the plug . - at least one optical waveguide with fibre Bragg gratings constructed at the optical waveguide at a mutual spacing in longitudinal direction of the optical waveguide , - at least one protective tube of a metal or a metal alloy which surrounds the optical waveguide in encircling manner with radial play and which is introducible, together with the optical waveguide inserted therein, into a sensor bore at the component section , and - at least one plug for connecting the optical waveguide with an optoelectrical sensor electronic system, characterised in that - the plug comprises a connecting sleeve of a metal or metal alloy, through which an end section - which is inserted into the plug - of the optical waveguide is guided and which is welded to the protective tube , and - the optical waveguide is directly connected with the plug .
A handheld electronic soap device comprising: a water inlet configured to pour in water; an electrolytic cell connected to the water inlet and configured to generate alkaline ionized water and acidic ionized water from the poured-in water; a selector configured to select discharge of generated alkaline ionized water and/or acidic ionized water; a water outlet configured to discharge the selected ionized water; and a plurality of scrubbing elements (5a, 5b, ...) arranged on the water outlet . a water inlet configured to pour in water; an electrolytic cell connected to the water inlet and configured to generate alkaline ionized water and acidic ionized water from the poured-in water; a selector configured to select discharge of generated alkaline ionized water and/or acidic ionized water; a water outlet configured to discharge the selected ionized water; and a plurality of scrubbing elements (5a, 5b, ...) arranged on the water outlet .
Authentication method, comprising: • recording of a plurality of original 2D descriptions of the authentication device comprising interference elements which interfere with the light, said original 2D descriptions corresponding to different viewpoints that are referred to as neighboring viewpoints • authentication consisting in establishing a subsequent 2D description of an authentication device and comparing this subsequent description with an original description of said authentication device, characterized in that during the authentication procedure: • the authentication device is observed without needing to place the acquisition means at a precise location, the user being able to carry out an authentication procedure by placing the acquisition means at an unplanned location at the outset, • said subsequent 2D description is compared with one of said original 2D descriptions established from an acquisition carried out using an acquisition means from a viewpoint of among the closest to the viewpoint from which said subsequent 2D description of said marking is established, with reference to said authentication device, it being specified that the above term, "2D description of a marking," means a description in two dimensions of the appearance of said authentication device from a determined viewpoint. • recording of a plurality of original 2D descriptions of the authentication device comprising interference elements which interfere with the light, said original 2D descriptions corresponding to different viewpoints that are referred to as neighboring viewpoints • authentication consisting in establishing a subsequent 2D description of an authentication device and comparing this subsequent description with an original description of said authentication device, • the authentication device is observed without needing to place the acquisition means at a precise location, the user being able to carry out an authentication procedure by placing the acquisition means at an unplanned location at the outset, • said subsequent 2D description is compared with one of said original 2D descriptions established from an acquisition carried out using an acquisition means from a viewpoint of among the closest to the viewpoint from which said subsequent 2D description of said marking is established, with reference to said authentication device, it being specified that the above term, "2D description of a marking," means a description in two dimensions of the appearance of said authentication device from a determined viewpoint.
A method for producing a multi-layered sponge cake, characterized in that the method is carried out continuously and comprises the following stages: a) distributing a base sponge cake dough in at least two different portions; b) preparing at least two different doughs, wherein each one of these doughs is prepared independently, mixing at least a portion of the base dough with at least one additive; c) dispensing the dough corresponding to a first sponge cake layer and treating this first layer with mid-wave infrared radiation; d) dispensing the dough corresponding to a second sponge cake layer on the layer obtained in the previous stage and treating this second layer with mid-wave infrared radiation, wherein the stage d) is done n times, n-1 being a value equal to or greater than 2; and e) baking the multi-layered sponge cake in a convection oven at a temperature between 200 and 250°C during a time period between 8 and 22 minutes; with the condition that the infrared treatment is applied to at least all of the layers with the exception of the last one. a) distributing a base sponge cake dough in at least two different portions; b) preparing at least two different doughs, wherein each one of these doughs is prepared independently, mixing at least a portion of the base dough with at least one additive; c) dispensing the dough corresponding to a first sponge cake layer and treating this first layer with mid-wave infrared radiation; d) dispensing the dough corresponding to a second sponge cake layer on the layer obtained in the previous stage and treating this second layer with mid-wave infrared radiation, wherein the stage d) is done n times, n-1 being a value equal to or greater than 2; and e) baking the multi-layered sponge cake in a convection oven at a temperature between 200 and 250°C during a time period between 8 and 22 minutes; with the condition that the infrared treatment is applied to at least all of the layers with the exception of the last one.
Nozzle assembly for high-frequency supply of a predetermined volume dosing fluid, up to maximum volumes dosing fluid of about 1.0 ml, in the liquid containers, wherein the nozzle assembly comprises a multiplicity of essentially in the same direction extending dosing channels for the joint discharge of the predetermined volume dosing fluid, in which the dosing channels comprise a maximum internal diameter of 1.0 mm, and wherein the internal diameter of the dosing channels is preferably constant along the dosing channels and is at least 0.7 mm, wherein at least some of the dosing channels extend at different angles with respect to each other, the nozzle assembly having at least 6 dosing channels, wherein the dosing channels extend independently of each other at the distal ends in separate hollow tubes over at least 4 mm, wherein the open distal ends are positioned at a minimal mutual distance of about 1.2 mm from each other, wherein at least half of the dosing channels or more, make an angle of at least 5° with respect to an average direction of the dosing channels, characterized in that at least a first group of dosing channels is oriented such that the extensions of said first group of dosing channels converge substantially in a convergence point on the distal side of the nozzle assembly, and wherein at least a quarter of the dosing channels or more, make an angle of at least 10° to an average direction of the dosing channels.
Spun fiber comprising cellulose fiber doped with and optically active material represented by the following formula (I) (M') 8 (M"M′′′) 6 O 24 (X,X') 2 :Mʺʺ formula (I) wherein M' represents a monoatomic cation of an alkali metal selected from Group 1 of the IUPAC periodic table of the elements; M'' represents a trivalent monoatomic cation of an element selected from Group 13 of the IUPAC periodic table of the elements, or of a transition element selected from any of Groups 3 - 12 of the IUPAC periodic table of the elements, or any combination of such cations; M′′′ represents a monoatomic cation of an element selected from Group 14 of the IUPAC periodic table of the elements, or of an element selected from any of Groups 13 and 15 of the IUPAC periodic table of the elements, or of Zn, or any combination of such cations; X represents an anion of an element selected from Group 17 of the IUPAC periodic table of the elements, or any combination of such anions, or wherein X is absent; X' represents an anion of one or more elements selected from Group 16 of the IUPAC periodic table of the elements, or any combination of such anions, or wherein X' is absent; and Mʺʺ represents a dopant cation of an element selected from rare earth metals of the IUPAC periodic table of the elements, or from transition metals of the IUPAC periodic table of the elements, or of Ba, Sr, Tl, Pb, or Bi, or any combination of such cations, or wherein Mʺʺ is absent; with the proviso that at least one of X and X' is present. M' represents a monoatomic cation of an alkali metal selected from Group 1 of the IUPAC periodic table of the elements; M'' represents a trivalent monoatomic cation of an element selected from Group 13 of the IUPAC periodic table of the elements, or of a transition element selected from any of Groups 3 - 12 of the IUPAC periodic table of the elements, or any combination of such cations; M′′′ represents a monoatomic cation of an element selected from Group 14 of the IUPAC periodic table of the elements, or of an element selected from any of Groups 13 and 15 of the IUPAC periodic table of the elements, or of Zn, or any combination of such cations; X represents an anion of an element selected from Group 17 of the IUPAC periodic table of the elements, or any combination of such anions, or wherein X is absent; X' represents an anion of one or more elements selected from Group 16 of the IUPAC periodic table of the elements, or any combination of such anions, or wherein X' is absent; and Mʺʺ represents a dopant cation of an element selected from rare earth metals of the IUPAC periodic table of the elements, or from transition metals of the IUPAC periodic table of the elements, or of Ba, Sr, Tl, Pb, or Bi, or any combination of such cations, or wherein Mʺʺ is absent; with the proviso that at least one of X and X' is present.
A method for actuating a slide solenoid valve, said solenoid valve comprising - at least one coil , - a movable core , - a fixed core , - a valve body provided with: - at least one slider and - a plurality of fluid passages delimited by guides suitable for slidably housing said slider , - an implementation system for direct control of said slide solenoid valve, and comprising elements suitable for the actuation of said solenoid valve wherein: - said system is actuated starting from pressures of 0 bar allowing at the same time opening of said fluid passages, - said actuation elements comprise: - at least a lever connected to said movable core at a pin , and - a fulcrum for said lever , - said movable core is activated by said coil acting via said fulcrum on said lever , - said lever is adapted to amplify the stroke of said movable core , acting consequently on said slider to cause said slider to effect a movement equal to the movement of said movable core multiplied by a determined lever ratio, - said slider slidably opens and closes the inlets or outlets of said solenoid valve (1 ', 100', 1000 ') still maintaining reduced powers. - at least one coil , - a movable core , - a fixed core , - a valve body provided with: - at least one slider and - a plurality of fluid passages delimited by guides suitable for slidably housing said slider , - an implementation system for direct control of said slide solenoid valve, and comprising elements suitable for the actuation of said solenoid valve wherein: - said system is actuated starting from pressures of 0 bar allowing at the same time opening of said fluid passages, - said actuation elements comprise: - at least a lever connected to said movable core at a pin , and - a fulcrum for said lever , - at least one slider and - a plurality of fluid passages delimited by guides suitable for slidably housing said slider , - an implementation system for direct control of said slide solenoid valve, and comprising elements suitable for the actuation of said solenoid valve wherein: - said system is actuated starting from pressures of 0 bar allowing at the same time opening of said fluid passages, - said actuation elements comprise: - at least a lever connected to said movable core at a pin , and - a fulcrum for said lever , - said system is actuated starting from pressures of 0 bar allowing at the same time opening of said fluid passages, - said actuation elements comprise: - at least a lever connected to said movable core at a pin , and - a fulcrum for said lever , - at least a lever connected to said movable core at a pin , and - a fulcrum for said lever , - said movable core is activated by said coil acting via said fulcrum on said lever , - said lever is adapted to amplify the stroke of said movable core , acting consequently on said slider to cause said slider to effect a movement equal to the movement of said movable core multiplied by a determined lever ratio, - said slider slidably opens and closes the inlets or outlets of said solenoid valve (1 ', 100', 1000 ') still maintaining reduced powers.
A protective fan guard with at least one mounting strut and at least one fastening device for fastening the mounting strut of the protective fan guard , having at least one first leg that extends in a longitudinal direction and engages over a plurality of guard bars of the protective fan guard , wherein the at least one first leg has a free longitudinal end and the fastening device is arranged in the vicinity of the free longitudinal end of the at least one leg , wherein the fastening device is formed by an at least partially cubiform or cuboidal fastening element and the fastening element has at least one insertion receptacle which extends in a first spatial direction and into which at least the first leg can be inserted, wherein the at least one insertion receptacle is embodied as a blind hole extending in the first spatial direction, and wherein the at least one insertion receptacle receives at least the first leg in a clamp fit or clearance fit.
An eyeglass lens piece configured for both forward and rearward viewing by a user, comprising: at least one curved transparent section extending in front of, above, between and below the user's eyes and a distance laterally from the sides of said user's eyes to the approximate sides of the user's head, a housing arranged in an edge section of the lens piece , projecting outwards from the lens piece, where one side of the housing is open to give the user direct sight line to the inside, and a mirror arranged in the housing in a position offset outwards from the curved transparent section. at least one curved transparent section extending in front of, above, between and below the user's eyes and a distance laterally from the sides of said user's eyes to the approximate sides of the user's head, a housing arranged in an edge section of the lens piece , projecting outwards from the lens piece, where one side of the housing is open to give the user direct sight line to the inside, and a mirror arranged in the housing in a position offset outwards from the curved transparent section.
A thermoelectric heat recovery system comprising: an inlet for receiving a fluid; an outlet; N heat exchangers , wherein N≥2, located between, and in fluid communication with, the inlet and the outlet, each heat exchanger comprising a plurality of heat exchange conduits ; one or more first fluid paths from the inlet to the outlet, the or each first fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a first sequence; one or more second fluid paths from the inlet to the outlet, the or each second fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a second sequence, the second sequence being the reverse of the first sequence; wherein, in use, the fluid flows in a first direction through a given heat exchange conduit in a given heat exchanger and in a second direction opposite to the first direction through the or each heat exchange conduit adjacent the given heat exchange conduit in the given heat exchanger; and one or more thermoelectric generators, wherein the or each thermoelectric generator has a heat exchanger contact surface which is in thermal contact with at least a portion of at least two adjacent heat exchange conduits , such that, in use, the heat exchanger contact surface forms the hot side or cold side of the thermoelectric generator. an inlet for receiving a fluid; an outlet; N heat exchangers , wherein N≥2, located between, and in fluid communication with, the inlet and the outlet, each heat exchanger comprising a plurality of heat exchange conduits ; one or more first fluid paths from the inlet to the outlet, the or each first fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a first sequence; one or more second fluid paths from the inlet to the outlet, the or each second fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a second sequence, the second sequence being the reverse of the first sequence; wherein, in use, the fluid flows in a first direction through a given heat exchange conduit in a given heat exchanger and in a second direction opposite to the first direction through the or each heat exchange conduit adjacent the given heat exchange conduit in the given heat exchanger; and one or more thermoelectric generators, wherein the or each thermoelectric generator has a heat exchanger contact surface which is in thermal contact with at least a portion of at least two adjacent heat exchange conduits , such that, in use, the heat exchanger contact surface forms the hot side or cold side of the thermoelectric generator.
A valve preparation device for severing heart valve leaflets , the valve preparation device comprising: a first catheter ; and a severing apparatus configured to sever calcified heart valve leaflets , wherein the severing apparatus includes a wire and a first arm that is biased to bow outwardly with respect to the wire; the first arm further including a first electrode ; a tip connected to a distal end of the wire ; and wherein the first catheter is slidably movable from a delivery position in which the first catheter covers the severing apparatus and a deployed position in which the first catheter is proximally retracted to uncover the severing apparatus a first catheter ; and a severing apparatus configured to sever calcified heart valve leaflets , wherein the severing apparatus includes a wire and a first arm that is biased to bow outwardly with respect to the wire; the first arm further including a first electrode ; a tip connected to a distal end of the wire ; and wherein the first catheter is slidably movable from a delivery position in which the first catheter covers the severing apparatus and a deployed position in which the first catheter is proximally retracted to uncover the severing apparatus