mhurhangee/ep-ind-claims huggingface dataset:
A portable device comprising: a touch screen configured to display a first screen and an application screen of an executed application; and a control unit configured to control the touch screen and to execute the application, and a storage unit, wherein the control unit is configured to, when the first screen is displayed, detect a number of touch gestures on a touch gesture length detection region of the first screen, calculate an average of the lengths of the number of touch gestures, calculate a ratio of the average to a maximum length of the number of touch gestures, and store the ratio as a first gesture setting in the storage unit, wherein the control unit is configured to, when the application screen is displayed, control presentation of the display of the application screen to move in correspondence to a direction of a continuous movement of a first touch that is detected on the application screen, and control a movement distance of the displayed application screen to be different than a movement distance of the detected first touch in accordance with the stored first gesture setting. a touch screen configured to display a first screen and an application screen of an executed application; and a control unit configured to control the touch screen and to execute the application, and a storage unit, wherein the control unit is configured to, when the first screen is displayed, detect a number of touch gestures on a touch gesture length detection region of the first screen, calculate an average of the lengths of the number of touch gestures, calculate a ratio of the average to a maximum length of the number of touch gestures, and store the ratio as a first gesture setting in the storage unit, wherein the control unit is configured to, when the application screen is displayed, control presentation of the display of the application screen to move in correspondence to a direction of a continuous movement of a first touch that is detected on the application screen, and control a movement distance of the displayed application screen to be different than a movement distance of the detected first touch in accordance with the stored first gesture setting.
A flowpath apparatus (24, 124, 224) for a gas turbine engine, comprising: a plurality of ducts (10, 100, 200) arranged in an annular array, each duct (10, 100, 200) comprising a peripheral wall structure having a closed perimeter that defines a flow channel extending from an upstream end (14, 114, 214) to a downstream end (16, 116, 216) thereof, the ducts comprising a ceramic-based composite material; and a support structure positioning the plurality of ducts (10, 100, 200) in the annular array; wherein the support structure comprises at least one closeout (32, 34, 132, 134, 232, 234) having an open-ended recess which accepts portions of lateral walls (18, 118, 218) of adjacent ducts (10, 100, 200) therein for sealing a gap (48, 148, 248) between adjacent ducts (10, 100, 200). a plurality of ducts (10, 100, 200) arranged in an annular array, each duct (10, 100, 200) comprising a peripheral wall structure having a closed perimeter that defines a flow channel extending from an upstream end (14, 114, 214) to a downstream end (16, 116, 216) thereof, the ducts comprising a ceramic-based composite material; and a support structure positioning the plurality of ducts (10, 100, 200) in the annular array; wherein the support structure comprises at least one closeout (32, 34, 132, 134, 232, 234) having an open-ended recess which accepts portions of lateral walls (18, 118, 218) of adjacent ducts (10, 100, 200) therein for sealing a gap (48, 148, 248) between adjacent ducts (10, 100, 200).
Light-emitting element, comprising - a planar OLED or a planar QLED for producing a first light, - an optical influencing element having a light emitting surface for emitting a second light, wherein the second light is formed from the first light by means of an optical influence caused at least in part by the optical influencing element, wherein the optical influencing element comprises a primary optical system and secondary optical system for optical influencing, wherein the primary optical system is configured on a side of the optical influencing element that faces toward the OLED or QLED, characterized in that that the primary optical system comprises microlenses, wherein, with respect to the light emitting surface, differently formed microlenses are arranged as light influencing elements in a peripheral region of the optical influencing element than in a central region. - a planar OLED or a planar QLED for producing a first light, - an optical influencing element having a light emitting surface for emitting a second light,
A method comprising: configuring a narrowband internet of things carrier relative to one or more physical resource blocks of a radio carrier, the one or more physical resource blocks having a bandwidth that is greater than a bandwidth of the narrowband internet of things carrier; configuring the narrowband internet of things carrier relative to the one or more physical resource blocks such that there is a first guard band between the narrowband internet of things carrier and a first adjacent physical resource block, and a second guard band between the narrowband internet of things carrier and a second adjacent physical resource block; and characterised in that the method further comprises allocating resources of a partial portion of the one or more physical resource blocks to one or more user equipment, the partial portion not occupied by the narrowband internet of things carrier. configuring a narrowband internet of things carrier relative to one or more physical resource blocks of a radio carrier, the one or more physical resource blocks having a bandwidth that is greater than a bandwidth of the narrowband internet of things carrier; configuring the narrowband internet of things carrier relative to the one or more physical resource blocks such that there is a first guard band between the narrowband internet of things carrier and a first adjacent physical resource block, and a second guard band between the narrowband internet of things carrier and a second adjacent physical resource block; and characterised in that the method further comprises allocating resources of a partial portion of the one or more physical resource blocks to one or more user equipment, the partial portion not occupied by the narrowband internet of things carrier.
A power control system for a battery driven elevator; the power control system comprising a DC battery for providing electrical power to an electric motor of the elevator system; and a power controller including a power converter, a power inverter, and a DC intermediate circuit connected in between the power converter and the power inverter; characterised in that the power converter has a configuration corresponding to the configuration of the power inverter, the power control system further comprising at least one additional power storage device (42, 44) connected to an input of the power converter; an output of the DC battery is connected to the DC intermediate circuit; and the DC battery is connected to an electric power supply via a charger circuit.
A composite panel (10,110) for an aerospace structure, comprising a plurality of carbon plies (16, 116), a perforated metallic foil (18,118) comprising several apertures (20, 120) directly secured to the plurality of carbon plies (16,116), and a protective layer (19,119) made from resin containing a fibrous reinforcement whose areal weight is comprised between 2 to 20 g/m 2, said protective layer (19, 119) being secured to the metallic foil (18,118) with the perforated metallic foil (18,118) being embedded in the protective layer (19,119) through its apertures (20,120), a free surface of the protective layer forming a top side (11b,111b) of the composite panel (10,110), the thickness of the protective layer (19,119) between the top side (11b,111b) of the composite panel (10,110) and the perforated metallic foil (18,118) being at least 15 micrometers and the perforated metallic foil (18,110) has a thickness of not more than 30 micrometers, the apertures having a predefined geometric shape extending through the thickness of the perforated metallic foil (18,118) and being distributed across a surface area defined by the length and the width of the perforated metallic foil (18,118), the plurality of apertures (20,120) in the aggregate defining an open area of not more than 40% of the surface area and the maximum distance between two opposed points in the perimeter of an aperture being equal or less than 3 mm.
A method of manufacturing a solar heat collection apparatus, wherein the heat collecting tube (2; 2') comprises: an inner tube through which the heating medium heated by sunlight flows; and an outer tube provided on an outer side of the inner tube; and a connecting member (7, 8a, 8b, 15; 11, 16; 38a; 58a) connecting the inner tube to the outer tube and an insulating space is formed between the inner tube and the outer tube, the method comprising a step of evacuating air in the insulating space through an exhaust hole using a vacuum pump so that the interior of the insulating space is set in a vacuum condition; a step of bringing a metal ball having a larger diameter than the exhaust hole as a sealing member in contact with the exhaust hole (18; 28; 48; 68) that is formed in the connecting member and communicates with the insulating space, and temporarily fix the metal ball thereto; and a step of pushing the sealing member by a rotating rod and friction-welding the sealing member to the connecting member, in which the sealing member melts so as to deform by friction heat generated by the rotating rod so that a portion of the sealing member is pushed to the exhaust hole (18; 28; 48; 68) to seal the exhaust hole (18; 28; 48; 68), and the remaining part of the sealing member is welded to the connecting member. an inner tube through which the heating medium heated by sunlight flows; and an outer tube provided on an outer side of the inner tube; and a connecting member (7, 8a, 8b, 15; 11, 16; 38a; 58a) connecting the inner tube to the outer tube and an insulating space is formed between the inner tube and the outer tube, the method comprising a step of evacuating air in the insulating space through an exhaust hole using a vacuum pump so that the interior of the insulating space is set in a vacuum condition; a step of bringing a metal ball having a larger diameter than the exhaust hole as a sealing member in contact with the exhaust hole (18; 28; 48; 68) that is formed in the connecting member and communicates with the insulating space, and temporarily fix the metal ball thereto; and a step of pushing the sealing member by a rotating rod and friction-welding the sealing member to the connecting member, in which the sealing member melts so as to deform by friction heat generated by the rotating rod so that a portion of the sealing member is pushed to the exhaust hole (18; 28; 48; 68) to seal the exhaust hole (18; 28; 48; 68), and the remaining part of the sealing member is welded to the connecting member.
A communication device, comprising: a host and a modem interconnected by an interface; the host comprising a host processor configured to control components (11, 13) of the communication device and to communicate with the modem via the interface, the modem comprising: a modem processor configured to control components (21, 22) of the modem and to communicate with the host via the interface; and a transceiver configured to communicate with the modem processor and to transmit data to, and receive data from, a communications network; characterised in that the modem processor is configured to predict a period of reduced activity of the modem and to communicate information on the predicted period of reduced modem activity to the host processor; and wherein the host processor is configured to reduce, in response to the information on the predicted period of reduced modem activity, an operation of at least one component (3, 12, 13, 22) of the communication device during at least part of the predicted period. a host and a modem interconnected by an interface; the host comprising a host processor configured to control components (11, 13) of the communication device and to communicate with the modem via the interface, the modem comprising: a modem processor configured to control components (21, 22) of the modem and to communicate with the host via the interface; and a transceiver configured to communicate with the modem processor and to transmit data to, and receive data from, a communications network; characterised in that the modem processor is configured to predict a period of reduced activity of the modem and to communicate information on the predicted period of reduced modem activity to the host processor; and a modem processor configured to control components (21, 22) of the modem and to communicate with the host via the interface; and a transceiver configured to communicate with the modem processor and to transmit data to, and receive data from, a communications network; characterised in that the modem processor is configured to predict a period of reduced activity of the modem and to communicate information on the predicted period of reduced modem activity to the host processor; and wherein the host processor is configured to reduce, in response to the information on the predicted period of reduced modem activity, an operation of at least one component (3, 12, 13, 22) of the communication device during at least part of the predicted period.
A method comprising the following steps executed by control circuitry: calculating a first signal-to-noise ratio, SNR, at or near a middle of a first symbol of a received wireless signal; calculating a second SNR at or near an edge of the first symbol; calculating a first difference between the second SNR and the first SNR; determining whether the first difference is greater than a threshold; classifying a modulation technique of the received wireless signal as continuous 4 level frequency, C4FM, modulation when the first difference is less than or equal to the threshold; and classifying the modulation technique of the received wireless signal as continuous quadrature phase shift keying, CQPSK, modulation when the first difference is greater than the threshold. calculating a first signal-to-noise ratio, SNR, at or near a middle of a first symbol of a received wireless signal; calculating a second SNR at or near an edge of the first symbol; calculating a first difference between the second SNR and the first SNR; determining whether the first difference is greater than a threshold; classifying a modulation technique of the received wireless signal as continuous 4 level frequency, C4FM, modulation when the first difference is less than or equal to the threshold; and classifying the modulation technique of the received wireless signal as continuous quadrature phase shift keying, CQPSK, modulation when the first difference is greater than the threshold.
Method for fabricating a varistor device comprising the steps of: - providing a base body for the varistor device, wherein the base body comprises a ceramic material, - providing a passivation to the base body, such that sites or surface regions of the base body remain free or uncoated, - providing the base body with a basic material for a base metal electrode region, such that the basic material is provided or applied to the free or uncoated regions in order to provide one or more electrodes of the varistor device, - exposing the base body with the basic material to a burn-in temperature under a protective gas atmosphere such that the base metal electrode region is formed and firmly connected to the base body of the varistor device - completing the varistor device by forming solder contacts or straps and forming an outer coating or encapsulation. - providing a base body for the varistor device, wherein the base body comprises a ceramic material, - providing a passivation to the base body, such that sites or surface regions of the base body remain free or uncoated, - providing the base body with a basic material for a base metal electrode region, such that the basic material is provided or applied to the free or uncoated regions in order to provide one or more electrodes of the varistor device, - exposing the base body with the basic material to a burn-in temperature under a protective gas atmosphere such that the base metal electrode region is formed and firmly connected to the base body of the varistor device - completing the varistor device by forming solder contacts or straps and forming an outer coating or encapsulation.
A composition combining both antimicrobial and toxin-adsorption activities, characterized in that it is formed by a molecular complex obtained by mixing a volatile antimicrobial agent with an edible clay, said volatile antimicrobial agent being interspersed into the interfoliar space of the clay and said clay being a either caused or natural interlayered mixture of stevensite and bentonite.
A solar receiver comprising a metamaterials-enhanced sunlight-receiving structure consisting essentially of a high melting point base material having a first surface comprising a plurality of substantially cube-shaped microcavities surrounded by associated interlaced walls that are disposed a periodic array having a grating period in the range of 0.5 to 2 microns, characterised in that two or more of the interlaced walls have different thicknesses.
Prefabricated wall comprising at least two panels (1, 2) disposed in respective planes and substantially parallel to each other, the panels (1, 2) being kept separated by at least one joining reinforcement that cooperates with at least one face of each of the panels (1, 2) so as to create an internal volume of the prefabricated wall that is suitable and intended for a formwork operation, characterized in that at least one of the panels (1, 2) comprises at least one plate formed by combining materials distributed over at least two superposed layers realized by, on the one hand, structural elements made in the form of blades of which the respective axes of blades disposed in one and the same layer of the plate are oriented substantially parallel to each other, and, on the other hand, materials with acoustically and/or thermally insulating properties incorporating thermal inertia or fire resistance such that, in the plate of the panel (1, 2), the superposed layers of structural elements and insulating materials are disposed alternately.
An air conditioner comprising: a housing (10, 601, 701) comprising an inlet (12, 602); a first outlet (17, 607, 707) formed in the housing (10, 601, 701) to discharge air introduced through the inlet (12, 602); a second outlet (13, 603, 703) disposed adjacent to the first outlet (17, 607, 707); a fan assembly comprising a first fan (101, 301, 401) configured to discharge air toward the first outlet (17, 607, 707), and a second fan (102, 302, 402) configured to discharge air toward the second outlet (13, 603, 703); a first flow path formed in the housing (10, 601, 701) between the first fan (101, 301, 401) and the first outlet (17, 607, 707); a second flow path partitioned from the first flow path and formed in the housing (10, 601, 701) between the second fan (102, 302, 402) and the second outlet (13, 603, 703); a stator provided to guide air, which is discharged from the first fan (101, 301, 401), to the first outlet (17, 607, 707), and guide air, which is discharged from the second fan (102, 302, 402), to the second outlet (13, 603, 703); characterized in that the air conditioner furthermore comprises: a heat exchanger disposed in the first flow path, and configured to exchange heat with air discharged from the first fan (101, 301, 401) and directed to the first outlet (17, 607, 707). a housing (10, 601, 701) comprising an inlet (12, 602); a first outlet (17, 607, 707) formed in the housing (10, 601, 701) to discharge air introduced through the inlet (12, 602); a second outlet (13, 603, 703) disposed adjacent to the first outlet (17, 607, 707); a fan assembly comprising a first fan (101, 301, 401) configured to discharge air toward the first outlet (17, 607, 707), and a second fan (102, 302, 402) configured to discharge air toward the second outlet (13, 603, 703); a first flow path formed in the housing (10, 601, 701) between the first fan (101, 301, 401) and the first outlet (17, 607, 707); a second flow path partitioned from the first flow path and formed in the housing (10, 601, 701) between the second fan (102, 302, 402) and the second outlet (13, 603, 703); a stator provided to guide air, which is discharged from the first fan (101, 301, 401), to the first outlet (17, 607, 707), and guide air, which is discharged from the second fan (102, 302, 402), to the second outlet (13, 603, 703); characterized in that the air conditioner furthermore comprises: a heat exchanger disposed in the first flow path, and configured to exchange heat with air discharged from the first fan (101, 301, 401) and directed to the first outlet (17, 607, 707).
A vaporizer, comprising: a liquid storage housing having a liquid storage cavity formed therein; and a base arranged at one end of the liquid storage housing, wherein the base comprises an air inlet protruding stage, wherein the air inlet protruding stage is provided with at least one first air inlet hole and at least one second air inlet hole, wherein the first air inlet hole and the second air inlet hole have different cross-sectional areas, characterized in that the air inlet protruding stage has an upper surface facing the liquid storage cavity, wherein the upper surface is in a shape of a protrusion, wherein the first air inlet hole and the second air inlet hole extend from the upper surface away from the liquid storage cavity. a liquid storage housing having a liquid storage cavity formed therein; and a base arranged at one end of the liquid storage housing, wherein the base comprises an air inlet protruding stage, wherein the air inlet protruding stage is provided with at least one first air inlet hole and at least one second air inlet hole, wherein the first air inlet hole and the second air inlet hole have different cross-sectional areas, characterized in that the air inlet protruding stage has an upper surface facing the liquid storage cavity, wherein the upper surface is in a shape of a protrusion, wherein the first air inlet hole and the second air inlet hole extend from the upper surface away from the liquid storage cavity.
A lawn mower comprising a load-bearing body, a motor supported by the load-bearing body, a vertical axis cutting blade connected to the motor, a bag for containing the grass clippings applied to the rear of the load-bearing body, a flange and applied to the body so as to separate a central chamber from the cutting blade, characterized in that said flange provides a conical circular wall, delimited on the periphery by a circular edge and towards the center by a cylinder, said flange is provided with a series of S-shaped radial fins adapted to define a series of radial vents, said radial fins and said radial vents being equally distributed around a central rotation axis of the cutting blade.