mhurhangee/ep-ind-claims huggingface dataset:
A user device comprising: - a touch screen display having a touch screen detector; - a proximity detector arrangement comprising a plurality of sensors for detecting a location of an input device; - a control unit comprising a processor, the control unit being configured to: - receive data from the proximity detector to determine the location of the input device, including a value related to the distance of the input device to the display; and - control the display to perform a zoom function to enlarge the size of content on a portion of the display based on the value related to the distance of the input device to the display; wherein the proximity detector arrangement and control unit are configured to detect the location of the input device within a detection volume and to provide a gradual variation in enlargement of the size of content as the distance of the input device to the display varies; wherein the control unit is configured to enlarge the size of content on the screen from an initial size as the input device moves closer to the display, and characterised in that the control unit is further configured to maintain the enlarged size as the input device subsequently moves further from the display, the control unit being further configured to resize the content to the initial size in response to a further input on the user device; and wherein the control unit is configured to, once the zoom limit allowed by movement within the detection volume is reached, detect when the input device exits and re-enters the detection volume such that a re-entry of the input device into the detection volume causes further zooming whereby the level of zoom further increases as the input device moves closer to the display. - a touch screen display having a touch screen detector; - a proximity detector arrangement comprising a plurality of sensors for detecting a location of an input device; - a control unit comprising a processor, the control unit being configured to: - receive data from the proximity detector to determine the location of the input device, including a value related to the distance of the input device to the display; and - control the display to perform a zoom function to enlarge the size of content on a portion of the display based on the value related to the distance of the input device to the display; - receive data from the proximity detector to determine the location of the input device, including a value related to the distance of the input device to the display; and - control the display to perform a zoom function to enlarge the size of content on a portion of the display based on the value related to the distance of the input device to the display;
A cuff device comprising: a) a support having a first end, a second end and an elongated body in between; b) connection means (104, 104') for electrical, magnetic and/or fluidic connection with external devices; c) at least one of i) an electrode and/or electronic component operatively connected with said connection means configured to electrically interface with a biological tissue, or ii) a channel having an inlet, an outlet and an elongated body in between operatively connected with said connection means via said inlet and configured to fluidically interface with a biological tissue via said outlet; d) at least one buckle configured to receive said first end and permit the sliding therein of said elongated body so to close and lock the cuff device at desired positions characterized in that said support is stretchable and has a Young's modulus comprised between about 1 kPa and 1 GPa. a) a support having a first end, a second end and an elongated body in between; b) connection means (104, 104') for electrical, magnetic and/or fluidic connection with external devices; c) at least one of i) an electrode and/or electronic component operatively connected with said connection means configured to electrically interface with a biological tissue, or ii) a channel having an inlet, an outlet and an elongated body in between operatively connected with said connection means via said inlet and configured to fluidically interface with a biological tissue via said outlet; i) an electrode and/or electronic component operatively connected with said connection means configured to electrically interface with a biological tissue, or ii) a channel having an inlet, an outlet and an elongated body in between operatively connected with said connection means via said inlet and configured to fluidically interface with a biological tissue via said outlet; d) at least one buckle configured to receive said first end and permit the sliding therein of said elongated body so to close and lock the cuff device at desired positions
An improved bidirectional heating cooker comprising: an upper radiation unit which is located at an upper portion of the heating cooker and comprises a heat radiator which emits radiation heat; a lower heating unit which is located at the lower portion of the heating cooker and comprises a heater; a supporting pillar which connects the upper radiation unit with the lower heating unit; a coupling projection portion which is formed on the outer circumferential surface of the upper portion of the lower heating unit; characterised in that it comprises a first pan portion having a first union groove which is fitted with the coupling projection portion of the lower heating unit and formed along the lower circumferential portion of the first pan portion, an incision portion which is formed in a cutout open form at one side of the first pan portion, and a first supporting projection portion which is connected with the incision portion, contacts an outer surface of the supporting pillar, and formed at the center of the inner portion of the first pan portion; and a second pan portion which is fitted in the incision portion of the first pan portion and has a second union groove formed at a portion of the second pan portion which is fitted with the coupling projection portion of the lower heating unit and formed at the lower portion of the second pan portion and a second supporting projection portion which is formed at a portion of the second pan portion which contacts an outer surface of the supporting pillar. an upper radiation unit which is located at an upper portion of the heating cooker and comprises a heat radiator which emits radiation heat; a lower heating unit which is located at the lower portion of the heating cooker and comprises a heater; a supporting pillar which connects the upper radiation unit with the lower heating unit; a coupling projection portion which is formed on the outer circumferential surface of the upper portion of the lower heating unit; characterised in that it comprises a first pan portion having a first union groove which is fitted with the coupling projection portion of the lower heating unit and formed along the lower circumferential portion of the first pan portion, an incision portion which is formed in a cutout open form at one side of the first pan portion, and a first supporting projection portion which is connected with the incision portion, contacts an outer surface of the supporting pillar, and formed at the center of the inner portion of the first pan portion; and a second pan portion which is fitted in the incision portion of the first pan portion and has a second union groove formed at a portion of the second pan portion which is fitted with the coupling projection portion of the lower heating unit and formed at the lower portion of the second pan portion and a second supporting projection portion which is formed at a portion of the second pan portion which contacts an outer surface of the supporting pillar.
A laundry machine comprising: a tub in which wash water is stored and/or a rotatable drum in which laundry is accommodated; a duct configured to communicate with the tub and/or drum; a heater installed in the duct and adapted to be heated upon receiving power; at least one nozzle installed in the duct to supply water to the heated heater for generating steam; and a blower installed in the duct, the blower serving to generate air flow within the duct and supply the generated steam into the tub and/or drum, whereby the nozzle is oriented toward the heater and is configured to directly eject water to the heated heater by ejection pressure thereof, characterized in that the nozzle is installed in a blower housing surrounding the blower, wherein the nozzle is installed close to a discharge portion of the blower through which air having passed through the blower is discharged, the nozzle being provided between the heater and the blower and spaced apart from the heater by a predetermined distance such as to be located close to the blower, wherein the heater is located at one longitudinal side of the duct, and wherein the blower is located at the other longitudinal side of the duct. a tub in which wash water is stored and/or a rotatable drum in which laundry is accommodated; a duct configured to communicate with the tub and/or drum; a heater installed in the duct and adapted to be heated upon receiving power; at least one nozzle installed in the duct to supply water to the heated heater for generating steam; and a blower installed in the duct, the blower serving to generate air flow within the duct and supply the generated steam into the tub and/or drum, whereby the nozzle is oriented toward the heater and is configured to directly eject water to the heated heater by ejection pressure thereof, characterized in that the nozzle is installed in a blower housing surrounding the blower, wherein the nozzle is installed close to a discharge portion of the blower through which air having passed through the blower is discharged, the nozzle being provided between the heater and the blower and spaced apart from the heater by a predetermined distance such as to be located close to the blower, wherein the heater is located at one longitudinal side of the duct, and wherein the blower is located at the other longitudinal side of the duct.
A method comprising: a) providing a doped semiconductor wafer comprising a front side, a back side, and a pn junction; b) selectively applying a resist composition on top of the front side of the semiconductor wafer, the resist composition comprises one or more hydrogenated rosin resins, the hydrogenated rosin resins are solid at room temperature, one or more hydrogenated rosin resin esters, the hydrogenated rosin resin esters are liquid at room temperature, and one or more fatty acids; and c) applying an etch composition to the semiconductor to etch away exposed sections of the front side of the semiconductor to form current tracks, wherein the weight ratio of the one or more hydrogenated rosin resins to the one or more hydrogenated rosin resin esters is 2:1 to 4:1. a) providing a doped semiconductor wafer comprising a front side, a back side, and a pn junction; b) selectively applying a resist composition on top of the front side of the semiconductor wafer, the resist composition comprises one or more hydrogenated rosin resins, the hydrogenated rosin resins are solid at room temperature, one or more hydrogenated rosin resin esters, the hydrogenated rosin resin esters are liquid at room temperature, and one or more fatty acids; and c) applying an etch composition to the semiconductor to etch away exposed sections of the front side of the semiconductor to form current tracks,
Device for generatively producing a component (7A, 7B), in particular a gas turbine engine component, comprising: a working chamber; a solidification means, in particular a laser, for locally solidifying, layer by layer, a starting material arranged in the working chamber, in order to produce the component layer by layer in a layer build-up direction; and a movable induction heating assembly comprising a first inductor and a second inductor for inductively controlling the temperature in specified regions of the working chamber, wherein, at least in an operating position, the first inductor engages in the second inductor in the direction of the working chamber and wherein the first inductor is adjustable relative to the second inductor. a working chamber; a solidification means, in particular a laser, for locally solidifying, layer by layer, a starting material arranged in the working chamber, in order to produce the component layer by layer in a layer build-up direction; and a movable induction heating assembly comprising a first inductor and a second inductor for inductively controlling the temperature in specified regions of the working chamber, wherein, at least in an operating position, the first inductor engages in the second inductor in the direction of the working chamber and wherein the first inductor is adjustable relative to the second inductor.
A radar fill level measuring device for fill level measurement or for detecting the topology of a fill medium surface in a container, comprising: a first radar chip and a second radar chip, wherein the first radar chip as a master chip comprises a first synchronization circuit adapted to generate a radio frequency signal; wherein the second radar chip as a slave chip comprises a second synchronization circuit; a high-frequency line arrangement adapted to transmit the high-frequency signal from the first synchronizing circuit to the second synchronizing circuit for synchronizing the two radar chips; a high-frequency amplifier arranged in said high-frequency line arrangement and adapted to amplify said high-frequency signal. a first radar chip and a second radar chip, wherein the first radar chip as a master chip comprises a first synchronization circuit adapted to generate a radio frequency signal; wherein the second radar chip as a slave chip comprises a second synchronization circuit; wherein the first radar chip as a master chip comprises a first synchronization circuit adapted to generate a radio frequency signal; wherein the second radar chip as a slave chip comprises a second synchronization circuit; a high-frequency line arrangement adapted to transmit the high-frequency signal from the first synchronizing circuit to the second synchronizing circuit for synchronizing the two radar chips; a high-frequency amplifier arranged in said high-frequency line arrangement and adapted to amplify said high-frequency signal.
A method of separating at least one target compound from a feed, which method is a simulated moving bed process using the liquid chromatography system of claim 9, wherein at least one adsorbent is washed after binding of target compound and wherein the outlet of wash liquid from said adsorbent is subsequently passed onto another adsorbent for binding of target compound removed by said washing, which method comprises continuous binding of at least one target compound to one or more of three or more adsorbents which are connected in series and discrete elution of target compound from said three adsorbents; wherein after the binding, wash liquid is passed across each adsorbent to recover desorbed and/or unbound target compound, and the outlet of such wash liquid is directed to the adsorbent after the next in the series, wherein said target compound is recovered by eluting target compound from the washed adsorbents.
An aerosol-generating system comprising: an aerosol-generating article comprising an aerosol-generating substrate, a first electrode, and a dielectric material comprising a porous substrate material and a liquid sorbed into the porous substrate material; and an aerosol-generating device comprising: a power supply; at least one heater; a cavity for receiving the aerosol-generating article; a first electrical contact for contacting the first electrode when the aerosol-generating article is received within the cavity; a controller; and a second electrode; wherein, when the aerosol-generating article is received within the cavity, the dielectric material is positioned between the first electrode and the second electrode so that the first electrode, the dielectric material and the second electrode form a capacitor; wherein the controller is configured to control a supply of power from the power supply to the at least one heater for heating the aerosol-generating substrate and the dielectric material and for controlling a supply of power from the power supply to the capacitor; wherein the controller is configured to measure the capacitance of the capacitor and wherein the controller is configured to terminate the supply of power from the power supply to the at least one heater when the measured capacitance exceeds a predetermined threshold. an aerosol-generating article comprising an aerosol-generating substrate, a first electrode, and a dielectric material comprising a porous substrate material and a liquid sorbed into the porous substrate material; and an aerosol-generating device comprising: a power supply; at least one heater; a cavity for receiving the aerosol-generating article; a first electrical contact for contacting the first electrode when the aerosol-generating article is received within the cavity; a controller; and a second electrode; a power supply; at least one heater; a cavity for receiving the aerosol-generating article; a first electrical contact for contacting the first electrode when the aerosol-generating article is received within the cavity; a controller; and a second electrode; wherein, when the aerosol-generating article is received within the cavity, the dielectric material is positioned between the first electrode and the second electrode so that the first electrode, the dielectric material and the second electrode form a capacitor; wherein the controller is configured to control a supply of power from the power supply to the at least one heater for heating the aerosol-generating substrate and the dielectric material and for controlling a supply of power from the power supply to the capacitor; wherein the controller is configured to measure the capacitance of the capacitor and wherein the controller is configured to terminate the supply of power from the power supply to the at least one heater when the measured capacitance exceeds a predetermined threshold.
A container unit (50, 50a, 50b) located outside of a liquid ejection apparatus and configured to supply a liquid to the liquid ejection apparatus via a connection path, comprising: a liquid container configured to contain the liquid, the liquid container having a liquid fill port for pouring the liquid into the liquid container; and a bottom cover member (57, 57a, 57b) attached to the liquid container, wherein the outer face of the bottom cover member (57, 57a, 57b) forms a bottom face that comes into contact with a mounting surface of the container unit in a liquid supply attitude of the liquid container, in which the liquid is supplied to the liquid ejection apparatus, wherein the bottom cover member (57, 57a, 57b) has a liquid retainer (579Z, 579Za, 579Zb) provided on a face facing the liquid container to retain the liquid flow into the face facing the liquid container, the face facing the liquid container being provided on an opposite side to the bottom face wherein the liquid retainer (579Z, 579Za, 579Zb) is a recess formed on the face facing the liquid container; and wherein the bottom cover member (57, 57a, 57b) is vertically-angled relative to the mounting surface of the container unit (50, 50a, 50b) in a liquid receiving attitude of the container unit, in which the liquid is poured into the liquid container (50, 50a, 50b). a liquid container configured to contain the liquid, the liquid container having a liquid fill port for pouring the liquid into the liquid container; and a bottom cover member (57, 57a, 57b) attached to the liquid container, wherein the outer face of the bottom cover member (57, 57a, 57b) forms a bottom face that comes into contact with a mounting surface of the container unit in a liquid supply attitude of the liquid container, in which the liquid is supplied to the liquid ejection apparatus, wherein the bottom cover member (57, 57a, 57b) has a liquid retainer (579Z, 579Za, 579Zb) provided on a face facing the liquid container to retain the liquid flow into the face facing the liquid container, the face facing the liquid container being provided on an opposite side to the bottom face wherein the liquid retainer (579Z, 579Za, 579Zb) is a recess formed on the face facing the liquid container; and wherein the bottom cover member (57, 57a, 57b) is vertically-angled relative to the mounting surface of the container unit (50, 50a, 50b) in a liquid receiving attitude of the container unit, in which the liquid is poured into the liquid container (50, 50a, 50b).
An emitter system for irradiating asphalt pavement, characterized by: a structural frame; an insulating layer of a high-density ceramic, an emitter panel including an emitter selected from the group consisting of an elongated semiconductor or a resistance conductor; and a sheet of biaxial birefringent micaceous material, wherein the emitter panel is positioned between the insulating layer and the sheet of biaxial birefringent micaceous material; and wherein the emitter panel is configured to produce energy with a power density of from 0.465 to 2.325 W/cm 2 (3 to 15 W/in 2). a structural frame; an insulating layer of a high-density ceramic, an emitter panel including an emitter selected from the group consisting of an elongated semiconductor or a resistance conductor; and a sheet of biaxial birefringent micaceous material, wherein the emitter panel is positioned between the insulating layer and the sheet of biaxial birefringent micaceous material; and wherein the emitter panel is configured to produce energy with a power density of from 0.465 to 2.325 W/cm 2 (3 to 15 W/in 2).
Installation comprising a slotted waveguide for data transmission, wherein a rail vehicle comprises an antenna that protrudes into the slot region of the slotted waveguide at least in part, wherein the slotted waveguide is arranged in parallel with a rail part and/or is connected thereto, wherein the rail vehicle is movable along the rail part, wherein the slotted waveguide comprises a conduit portion that delimits the slot region, wherein the conduit portion delimits the slot opening transversely to the rail direction in a practically collar-like manner, characterised in that a shield plate is placed over the conduit portion at least in part, such that the shield plate and/or the conduit portion break(s) every straight connecting line between any radiation source arranged in the surrounding area and a surface point of the antenna, wherein the shield plate has a U-shaped profile in cross section and is connected to the rail vehicle.