mhurhangee/ep-ind-claims huggingface dataset:
A photovoltaic device comprising: a substrate including a light-receiving surface and a back surface; a base region situated over the back surface of the substrate; an emitter region situated over the back surface of the substrate; a first electrode situated over the base region and having a first electrode width M1 measured in a first direction; and a second electrode situated over the emitter region and having a second electrode width M2 measured in the said first direction; characterised in that 0.3 ≤ C < 1, where C = M1/M2. a substrate including a light-receiving surface and a back surface; a base region situated over the back surface of the substrate; an emitter region situated over the back surface of the substrate; a first electrode situated over the base region and having a first electrode width M1 measured in a first direction; and a second electrode situated over the emitter region and having a second electrode width M2 measured in the said first direction; characterised in that 0.3 ≤ C < 1, where C = M1/M2.
A polymer comprising one or more monomer units represented by the formula: wherein "Monomer" is the repeating unit of a biocompatible, biodegradable polymer capable of resorption under physiological conditions; R' is phenyl-R, wherein from zero to five R substituents are present at any position on the phenyl ring, and each R is independently linear or branched, substituted or unsubstituted, saturated or unsaturated alkyl, aryl, alkylaryl, heteroatom-containing alkyl or aryl, alkylcycloalkyl, alkoxy, aryloxy or alkylether having from 1 to 20 carbon atoms; halide; nitro; -(R 2) r O((CR 3 R 4) a O) s -R 5; -O((CR 3 R 4) a O) s -R 5; -C -R 5; -(R 2) b C -YR 6; a protected hydroxyl group; a protected amino group or a protected carboxylic acid group; Y is -O- or -NH-; each R 2 is linear or branched, lower alkylene or lower alkenylene; each R 3 and R 4 is independently hydrogen, or linear or branched lower alkyl; each R 5 is independently linear or branched, substituted or unsubstituted, saturated or unsaturated alkyl; each R 6 is hydrogen; saturated or unsaturated alkyl, aryl or alkylaryl having from 1 to 20 carbon atoms; or -(R 2) r O((CR 3 R 4) a O) s -R 5; each a is independently 1 to 4; each b is independently zero or one; each r is independently 1 to 4; and each s is independently 1 to 5000. "Monomer" is the repeating unit of a biocompatible, biodegradable polymer capable of resorption under physiological conditions; R' is phenyl-R, wherein from zero to five R substituents are present at any position on the phenyl ring, and each R is independently linear or branched, substituted or unsubstituted, saturated or unsaturated alkyl, aryl, alkylaryl, heteroatom-containing alkyl or aryl, alkylcycloalkyl, alkoxy, aryloxy or alkylether having from 1 to 20 carbon atoms; halide; nitro; -(R 2) r O((CR 3 R 4) a O) s -R 5; -O((CR 3 R 4) a O) s -R 5; -C -R 5; -(R 2) b C -YR 6; a protected hydroxyl group; a protected amino group or a protected carboxylic acid group; Y is -O- or -NH-; each R 2 is linear or branched, lower alkylene or lower alkenylene; each R 3 and R 4 is independently hydrogen, or linear or branched lower alkyl; each R 5 is independently linear or branched, substituted or unsubstituted, saturated or unsaturated alkyl; each R 6 is hydrogen; saturated or unsaturated alkyl, aryl or alkylaryl having from 1 to 20 carbon atoms; or -(R 2) r O((CR 3 R 4) a O) s -R 5; each a is independently 1 to 4; each b is independently zero or one; each r is independently 1 to 4; and each s is independently 1 to 5000.
Beam for attaching a cantilevered structure (11, 17), in particular for building self-supporting terraces for buildings, comprising at least one tubular elongated body configured to be filled with reinforcing material, such as structural concrete or other, and attachment means configured to attach said structure (11, 17) to said elongated body, wherein said attachment means comprise a plurality of attachment bars associated with at least one side of said tubular body and configured to be inserted into corresponding holes made on at least one side of the structure (11, 17), said bars being provided with adjustment elements (18, 19) mobile along said bars so as to vary at least one distance of attachment of said structure (11, 17) with respect to said beam, characterized in that said bars are grouped on attachment plates distributed with a regular pitch along said side of said elongated body.
A setup supporting device for an injection molding machine that supports a setup work including a plurality of setup items, the device comprising: a storage unit configured to store a table (43, 44, 45, 46, 47, 48) for calculating a work time of the setup items; and a setup work timing determination unit configured to calculate the work time of the setup items and determine a work start timing of the setup items, based on input information and the table (43, 44, 45, 46, 47, 48). a storage unit configured to store a table (43, 44, 45, 46, 47, 48) for calculating a work time of the setup items; and a setup work timing determination unit configured to calculate the work time of the setup items and determine a work start timing of the setup items, based on input information and the table (43, 44, 45, 46, 47, 48).
An optical device (20") comprising: a substrate (21"); an optical waveguide (22") carried by said substrate (21") and having an optical waveguide core (33") and an optical waveguide cladding (34") surrounding the optical waveguide core (33"), the optical waveguide (22") further having a notch (23") therein defining a feed optical waveguide (24") and a longitudinal optical waveguide section (25") on opposite longitudinal sides of the notch (23"); a transverse optical waveguide section (27") carried by said substrate (21") and transversely aligned with said feed optical waveguide (24") adjacent the notch (23"); and an elastomeric waveguide switch body (36") including an elastomeric waveguide switch body core (53") optically alignable with the optical waveguide core (33") and an elastomeric waveguide switch body cladding (54") surrounding the elastomeric waveguide switch body (36"), wherein the index of refraction of the elastomeric waveguide switch body core (53") is within ±10% of the index of refraction of the optical waveguide core (33") and the index of refraction of the elastomeric waveguide switch body cladding (54") is within ±10% of the index of refraction of the optical waveguide cladding, the elastomeric waveguide switch body (36") being configured to be moved between: - a first position within the notch (23") and operative to switch light from said feed optical waveguide (24") to said longitudinal optical waveguide section (25"), the elastomeric waveguide switch body core (53") being optically aligned with the optical waveguide core (33") and - a second position removed from the notch (23") and operative to switch light from said feed optical waveguide (24") to said transverse optical waveguide section (25"). a substrate (21"); an optical waveguide (22") carried by said substrate (21") and having an optical waveguide core (33") and an optical waveguide cladding (34") surrounding the optical waveguide core (33"), the optical waveguide (22") further having a notch (23") therein defining a feed optical waveguide (24") and a longitudinal optical waveguide section (25") on opposite longitudinal sides of the notch (23"); a transverse optical waveguide section (27") carried by said substrate (21") and transversely aligned with said feed optical waveguide (24") adjacent the notch (23"); and an elastomeric waveguide switch body (36") including an elastomeric waveguide switch body core (53") optically alignable with the optical waveguide core (33") and an elastomeric waveguide switch body cladding (54") surrounding the elastomeric waveguide switch body (36"), - a first position within the notch (23") and operative to switch light from said feed optical waveguide (24") to said longitudinal optical waveguide section (25"), the elastomeric waveguide switch body core (53") being optically aligned with the optical waveguide core (33") and - a second position removed from the notch (23") and operative to switch light from said feed optical waveguide (24") to said transverse optical waveguide section (25").
An aerosol generation device, configured to heat an aerosol-forming substrate to generate an aerosol for inhalation, and comprising: a housing, provided with a through hole and an air inlet; a cavity, wherein the aerosol-forming substrate is received in the cavity or removed from the cavity through the through hole; a heater, configured to heat the aerosol-forming substrate received in the cavity; a heat drain device, arranged on a gas flow path extending between the air inlet and the through hole; the aerosol generation device characterized in that it further comprises: a circuit, configured to, after the heater starts for heating and before the heater enters an inhalation stage, control the heat drain device to start operation to drain hot air generated by heating out of the housing along the gas flow path, wherein a temperature variation curve of the heater comprises at least a temperature rise stage and the inhalation stage. a housing, provided with a through hole and an air inlet; a cavity, wherein the aerosol-forming substrate is received in the cavity or removed from the cavity through the through hole; a heater, configured to heat the aerosol-forming substrate received in the cavity; a heat drain device, arranged on a gas flow path extending between the air inlet and the through hole; the aerosol generation device characterized in that it further comprises: a circuit, configured to, after the heater starts for heating and before the heater enters an inhalation stage, control the heat drain device to start operation to drain hot air generated by heating out of the housing along the gas flow path, wherein a temperature variation curve of the heater comprises at least a temperature rise stage and the inhalation stage.
Device for selecting and controlling functions of a horological movement, comprising a selector member arranged such that, when it is acted on, it causes a column wheel comprising a plurality of coaxial cams which are integral with one another for rotation as one, to rotate in a single direction of rotation, said device comprising a plurality of transmission yokes, each of which is arranged such that it bears against a cam specific thereto so as to be able to successively occupy, depending on the angular position of said cam, a rest position and an active position, characterised in that each transmission yoke is configured such that when it occupies the active position, it is disposed in the path of a control member which is intended, when it is acted on from a rest position, to drive the transmission yoke located in an active position, towards a position for controlling a function specific thereto.
A tubing valve (120, 300), comprising: a valve body (122, 330); a valve stem (124, 310) configured to be inserted into said valve body where said valve stem has an inlet port; and a valve tip (126, 340) wherein a second end of said valve tip is configured to hold a tube, wherein said tubing valve is configured to open upon attaching said tube to said valve tip, causing said valve stem to move away from said valve body and to permit fluid access to said inlet port, and is configured to close upon removing said tube from said valve tip, causing said valve stem to move toward said valve body and to block fluid access to said inlet port, and characterized in that the valve tip (126, 340) is configured to be inserted and fixed into said valve stem after a first end of said valve tip is positioned inside said valve stem (124, 310).
A gas turbine engine system comprising: a turbofan engine comprising a low pressure spool, a high pressure spool and a fan section driven by said low pressure spool through a first gear train; an engine pylon; an accessory gearbox mounted within said engine pylon; a towershaft driven by said high pressure spool, said accessory gearbox driven by said towershaft. a turbofan engine comprising a low pressure spool, a high pressure spool and a fan section driven by said low pressure spool through a first gear train; an engine pylon; an accessory gearbox mounted within said engine pylon; a towershaft driven by said high pressure spool, said accessory gearbox driven by said towershaft.
A method comprising: capturing, with an image capture device, a first image of a scene while a controlled light source illuminating the scene is at a first power level; capturing, with the image capture device, a second image of the scene while the controlled light source illuminating the scene is at a second power level that is higher than the first power level; calculating luminance differences (112, 138) between a plurality of regions in the first image and a plurality of collocated regions in the second image; determining a difference threshold based on a maximum of the luminance differences; determining (116, 140, 152) that a region of interest, ROI, includes those regions for which the luminance differences exceed the threshold; configuring a white balance setting based on the region of interest; capturing, with the image capture device, a third image of the scene; and white balancing the third image based, at least in part, on the white balance setting. capturing, with an image capture device, a first image of a scene while a controlled light source illuminating the scene is at a first power level; capturing, with the image capture device, a second image of the scene while the controlled light source illuminating the scene is at a second power level that is higher than the first power level; calculating luminance differences (112, 138) between a plurality of regions in the first image and a plurality of collocated regions in the second image; determining a difference threshold based on a maximum of the luminance differences; determining (116, 140, 152) that a region of interest, ROI, includes those regions for which the luminance differences exceed the threshold; configuring a white balance setting based on the region of interest; capturing, with the image capture device, a third image of the scene; and white balancing the third image based, at least in part, on the white balance setting.
An underwater optical fibre cable protection system, comprising an underwater optical fibre cable and a controlled cathodic protection system, wherein the underwater optical fibre cable comprises: two end portions (3a, 3b), an extruded metal tube, at least one loosely housed optical fibre within the extruded metal tube, a polymeric sheath surrounding the extruded metal tube; and wherein the controlled cathodic protection system comprises an anode bed arranged outside the underwater cable and an electric connection connecting the anode bed to the extruded metal tube of the underwater cable at one of the end portions (3a, 3b) of the underwater cable. two end portions (3a, 3b), an extruded metal tube, at least one loosely housed optical fibre within the extruded metal tube, a polymeric sheath surrounding the extruded metal tube; and wherein the controlled cathodic protection system comprises an anode bed arranged outside the underwater cable and an electric connection connecting the anode bed to the extruded metal tube of the underwater cable at one of the end portions (3a, 3b) of the underwater cable.
A fluid temperature regulating valve including: a valve body having a cavity in which mixing of fluids can occur, and provided with: a heated fluid inlet adapted for communication with a source of heated fluid; a cooled fluid inlet adapted for communication with an apparatus that has used the mixed fluid for heating; a mixed fluid outlet adapted for communication with an apparatus that uses the mixed fluid for heating; and a return fluid outlet adapted for communication with the source of heated fluid, all inlets and outlets also being in communication with the cavity provided within the valve body; characterised by an insert in a sealing relationship with an inner surface of the cavity, the insert maintaining a substantially static position with the inner surface of the cavity and having a central bore and also defining flow passages and being configured to direct the flows of heated fluid entering the cavity via the heated fluid inlet and cooled fluid entering the cavity via the cooled fluid inlet, wherein the flow passages defined by the insert are arranged to interact with temperature reactive moveable closure means (28,30) to selectively permit, restrict or prevent the flows of heated fluid and cooled fluid into the cavity, and mixed fluid and return fluid out of the cavity. a valve body having a cavity in which mixing of fluids can occur, and provided with: a heated fluid inlet adapted for communication with a source of heated fluid; a cooled fluid inlet adapted for communication with an apparatus that has used the mixed fluid for heating; a mixed fluid outlet adapted for communication with an apparatus that uses the mixed fluid for heating; and a return fluid outlet adapted for communication with the source of heated fluid, all inlets and outlets also being in communication with the cavity provided within the valve body; characterised by a heated fluid inlet adapted for communication with a source of heated fluid; a cooled fluid inlet adapted for communication with an apparatus that has used the mixed fluid for heating; a mixed fluid outlet adapted for communication with an apparatus that uses the mixed fluid for heating; and a return fluid outlet adapted for communication with the source of heated fluid, all inlets and outlets also being in communication with the cavity provided within the valve body; characterised by an insert in a sealing relationship with an inner surface of the cavity, the insert maintaining a substantially static position with the inner surface of the cavity and having a central bore and also defining flow passages and being configured to direct the flows of heated fluid entering the cavity via the heated fluid inlet and cooled fluid entering the cavity via the cooled fluid inlet, wherein the flow passages defined by the insert are arranged to interact with temperature reactive moveable closure means (28,30) to selectively permit, restrict or prevent the flows of heated fluid and cooled fluid into the cavity, and mixed fluid and return fluid out of the cavity.
An excavator comprising: an undercarriage; a rotating platform rotatably provided on the undercarriage; an attachment including at least a boom attached to the rotating platform and an arm attached to the boom; characterised by a display unit that, before manipulation of the attachment, visually displays a predicted stability indicating a stability of the excavator' posture upon the attachment being manipulated. an undercarriage; a rotating platform rotatably provided on the undercarriage; an attachment including at least a boom attached to the rotating platform and an arm attached to the boom; characterised by a display unit that, before manipulation of the attachment, visually displays a predicted stability indicating a stability of the excavator' posture upon the attachment being manipulated.
Spherical beads for use in producing pharmaceutically active pellets being prepared by depositing a pharmaceutically active agent on the surface of said spherical beads, wherein the spherical beads consist of a pharmaceutically acceptable carrier material, said carrier material consisting of a) at least 60 wt.% of phosphoric acid calcium salt and b) up to 40 wt.% of organic material, wherein ≥ 90 wt.% of the spherical beads have a particle size in the range of from 90 μm to 1200 μm, wherein the particle size is determined by analytical sieving as indicated in European Pharmacopoeia (Ph. Eur.), 9th Edition, and wherein the spherical beads have - a bulk density of at least 1000 g/l, - a specific surface area of at most 10 m 2 /g and - a hardness of at least 600 g/mm 2. a) at least 60 wt.% of phosphoric acid calcium salt and b) up to 40 wt.% of organic material, - a bulk density of at least 1000 g/l, - a specific surface area of at most 10 m 2 /g and - a hardness of at least 600 g/mm 2.
A connecting structure comprising: an RF signal connecting portion spaced apart, by a predetermined distance, from an outer member having an electrode pad provided on a surface thereof; and a terminal portion configured to electrically connect the electrode pad of the outer member and the RF signal connecting portion so as to absorb assembly tolerance existing at the predetermined distance and to prevent disconnection of the electric flow between the electrode pad and the RF signal connecting portion, wherein the terminal portion comprises: a first side terminal contactable with the electrode pad and a second side terminal connected to the RF signal connecting portion, and a part (52, 52) of the at least one side terminal (50, 60) is elastically deformable by an assembly force provided by an assembler, and is configured to apply lateral tension to the other side terminal (50, 60) while elastically supporting the other side terminal (50, 60) toward the electrode pad, wherein the second side terminal has a housing space in which a part of the first side terminal is housed, characterized in that the first side terminal has a plurality of cut pieces (52', 52") formed at an outer circumferential surface thereof, and inclined and extended upwardly, with respect to the second side terminal, to the outside. an RF signal connecting portion spaced apart, by a predetermined distance, from an outer member having an electrode pad provided on a surface thereof; and a terminal portion configured to electrically connect the electrode pad of the outer member and the RF signal connecting portion so as to absorb assembly tolerance existing at the predetermined distance and to prevent disconnection of the electric flow between the electrode pad and the RF signal connecting portion, wherein the terminal portion comprises: a first side terminal contactable with the electrode pad and a second side terminal connected to the RF signal connecting portion, and a part (52, 52) of the at least one side terminal (50, 60) is elastically deformable by an assembly force provided by an assembler, and is configured to apply lateral tension to the other side terminal (50, 60) while elastically supporting the other side terminal (50, 60) toward the electrode pad, wherein the second side terminal has a housing space in which a part of the first side terminal is housed, characterized in that the first side terminal has a plurality of cut pieces (52', 52") formed at an outer circumferential surface thereof, and inclined and extended upwardly, with respect to the second side terminal, to the outside.
A method for sending a handover success report, performed by a terminal device, the method comprising: sending to a target base station, the handover success report in a case that Conditional Handover, CHO, is successful, characterized in that the handover success report comprises at least one of: signal measurement results of candidate cells that do not meet a handover condition by the terminal device; or a duration from receiving a CHO configuration to triggering the CHO. signal measurement results of candidate cells that do not meet a handover condition by the terminal device; or a duration from receiving a CHO configuration to triggering the CHO.