mhurhangee/ep-ind-claims huggingface dataset:
A coloured glass lens for eyeglasses, the coloured glass lens comprising a front glass wafer and a rear glass wafer having a convex surface connected to a concave surface of the front wafer, wherein at least the convex surface of the rear wafer has a coloured coating, the lens comprising a layer of glue interposed between said surfaces (2B, 3A) for bonding the front and rear wafers (2, 3) to each other, the layer of glue defining a filter as a screen against UV radiation, and the concave surface of the front wafer having a polarized or photochromic coating, and wherein the coloured coating comprises a layer of lacquer impregnated with pigment, characterised in that the coloured coating is made by applying a cross-linked coating and then colouring it.
A digital image processing device for evaluation of a sequence of image frames (It) provided by a camera of an area of a cartridge in an optical biosensor, comprising: a) a transient data storage means; b) a digital pixel processing unit adapted to determine at least one characteristic parameter (Ei, σ' i) for an individual processing spot of a set of processing spots (PS i, PS a, PS b) in the image area from a stream of image values (I(x,y,t)); c) a higher-level digital control unit adapted to communicate with the pixel processing unit, and adapted for setting a position and/or shape of the set of processing spots and for reading out and post-processing the determined characteristic parameters; wherein the transient data storage means is adapted to store data to be exchanged between the pixel processing unit and the digital control unit; characterised in that the digital pixel processing unit comprises a first and a second integrator for determining the at least one characteristic parameter (E i, σ' i), and a timing controller, wherein the stream of image values (I(x,y,t)) is continuously supplied from the camera to the integrators, and wherein the timing controller is adapted to indicate within a frame (I t) which image values are to be processed by the integrators. a) a transient data storage means; b) a digital pixel processing unit adapted to determine at least one characteristic parameter (Ei, σ' i) for an individual processing spot of a set of processing spots (PS i, PS a, PS b) in the image area from a stream of image values (I(x,y,t)); c) a higher-level digital control unit adapted to communicate with the pixel processing unit, and adapted for setting a position and/or shape of the set of processing spots and for reading out and post-processing the determined characteristic parameters;
Headlamp, including - a body of a transparent material arranged to receive light at at least one light input portion (24a, 24b) thereof, to reflect at least a portion of said light at an outer surface (28a, 28b) of said body due to total internal reflection and to emit light to the outside at at least one light output portion, wherein the body is generally flat, wherein the outer surface of said body comprises upper and lower surface portions that are substantially plane and parallel, and - and a non-transparent housing to at least partially cover said body, the housing including housing walls arranged at a distance from the body, said body being held within said housing by protrusions (30, 36) extending from the housing walls and arranged to abut against said outer surface (28a, 28b). - a body of a transparent material arranged to receive light at at least one light input portion (24a, 24b) thereof, to reflect at least a portion of said light at an outer surface (28a, 28b) of said body due to total internal reflection and to emit light to the outside at at least one light output portion, wherein the body is generally flat, wherein the outer surface of said body comprises upper and lower surface portions that are substantially plane and parallel, and wherein the body is generally flat, wherein the outer surface of said body comprises upper and lower surface portions that are substantially plane and parallel, and - and a non-transparent housing to at least partially cover said body, the housing including housing walls arranged at a distance from the body, said body being held within said housing by protrusions (30, 36) extending from the housing walls and arranged to abut against said outer surface (28a, 28b).
A transport device comprising a driverless transport vehicle for transporting one or more handling devices that are each configured to handle a pallet and/or a workpiece on a machine tool that is configured to machine said workpiece and is set up on a base surface, wherein said driverless transport vehicle for positioning said one or more handling devices can be moved with respect to said machine tool on said base surface, in particular within a region in front of and/or next to said machine tool and/or in front of and/or next to a work space of said machine tool, characterized in that said driverless transport vehicle is configured to be moved freely on a plane, independently of a type of rail system or the like, for guiding said transport vehicle, and said transport device comprises, as a handling device, a pallet changer that is coupled to said driverless transport vehicle and configured to insert and exchange pallets for receiving a workpiece in the work space and/or at a setup station of said machine tool after said driverless transport vehicle with the coupled pallet changer has been moved and positioned within a region in front of and/or next to the work space of said machine tool.
A head assembly for an ignition system, comprising: a head block with an issue aperture and defining an issue axis, the head block being configured and adapted for sealably coupling with an igniter combustion chamber; and a plurality of igniters seated in the head block and arranged about the issue aperture, wherein each of the igniters has an ignition member arranged obliquely with respect to the issue axis for igniting fuel exiting the issue aperture irrespective to orientation of the ignition system, wherein each of the ignition members are skew with respect to the issue axis, characterised in that the head block defines a plurality of slots intersecting the issue aperture and further comprising a spider manifold disposed in the plurality of slots defined by the head block slots. a head block with an issue aperture and defining an issue axis, the head block being configured and adapted for sealably coupling with an igniter combustion chamber; and a plurality of igniters seated in the head block and arranged about the issue aperture, wherein each of the igniters has an ignition member arranged obliquely with respect to the issue axis for igniting fuel exiting the issue aperture irrespective to orientation of the ignition system, wherein each of the ignition members are skew with respect to the issue axis, characterised in that the head block defines a plurality of slots intersecting the issue aperture and further comprising a spider manifold disposed in the plurality of slots defined by the head block slots.
A liquid ejection head comprising: a substrate; a liquid flow passage formed on the substrate and configured to allow a first liquid and a second liquid to flow inside, the liquid flow passage including a pressure chamber; a pressure generation element configured to apply pressure to the first liquid in the pressure chamber; an ejection port configured to eject the second liquid; and a wall located in the liquid flow passage and configured to separate the first liquid and the second liquid, wherein in a case where a direction of ejection of the second liquid is a direction (z) from bottom to top, the second liquid flows above the first liquid in the pressure chamber, the substrate includes a first outflow port located downstream of the pressure chamber in a direction (y) of flow of the first liquid and configured to allow the first liquid to flow out of the liquid flow passage, the substrate includes a second outflow port located downstream of the first outflow port in the direction (y) of flow of the second liquid and configured to allow the second liquid to flow out of the liquid flow passage, the wall is located on a section of the substrate on a side opposite to the pressure chamber across the first outflow port, the wall including a portion located higher than a surface of a section of the substrate where the pressure chamber is located on a side opposite to the wall across the first outflow port. a substrate; a liquid flow passage formed on the substrate and configured to allow a first liquid and a second liquid to flow inside, the liquid flow passage including a pressure chamber; a pressure generation element configured to apply pressure to the first liquid in the pressure chamber; an ejection port configured to eject the second liquid; and a wall located in the liquid flow passage and configured to separate the first liquid and the second liquid, wherein in a case where a direction of ejection of the second liquid is a direction (z) from bottom to top, the second liquid flows above the first liquid in the pressure chamber, the substrate includes a first outflow port located downstream of the pressure chamber in a direction (y) of flow of the first liquid and configured to allow the first liquid to flow out of the liquid flow passage, the substrate includes a second outflow port located downstream of the first outflow port in the direction (y) of flow of the second liquid and configured to allow the second liquid to flow out of the liquid flow passage, the wall is located on a section of the substrate on a side opposite to the pressure chamber across the first outflow port, the wall including a portion located higher than a surface of a section of the substrate where the pressure chamber is located on a side opposite to the wall across the first outflow port.
A component holding apparatus comprising: a stage with a horizontal upper surface on which components of one type are scattered; characterized in that the component holding apparatus further comprises: an input screen configured to input multiple heights of the components of one type; a two-dimensional imaging device configured to perform fixed-point imaging at a predetermined height above the stage and to image the components of one type which are scattered on the stage; and a means configured to calculate a holding position based on the inputted multiple heights and on image data of the imaged components of one type, wherein the components of one type which are scattered on the stage are held based on the calculated holding position. a stage with a horizontal upper surface on which components of one type are scattered; characterized in that the component holding apparatus further comprises: an input screen configured to input multiple heights of the components of one type; a two-dimensional imaging device configured to perform fixed-point imaging at a predetermined height above the stage and to image the components of one type which are scattered on the stage; and a means configured to calculate a holding position based on the inputted multiple heights and on image data of the imaged components of one type, wherein the components of one type which are scattered on the stage are held based on the calculated holding position. an input screen configured to input multiple heights of the components of one type; a two-dimensional imaging device configured to perform fixed-point imaging at a predetermined height above the stage and to image the components of one type which are scattered on the stage; and a means configured to calculate a holding position based on the inputted multiple heights and on image data of the imaged components of one type, wherein the components of one type which are scattered on the stage are held based on the calculated holding position.
An intermediate film for laminated glass comprising: a first end and a second end, the first end being thinner than the second end; and a thin region and a thick region, the thin region having a moisture content of more than one time but not more than three times the moisture content of the thick region, wherein the intermediate film contains a thermoplastic resin and a plasticizer, wherein the thermoplastic resin is a polyvinyl acetal resin, wherein a distance between the first end and the second end is represented by X, the thin region is a region satisfying 0.1X to 0.2X from the first end toward an inside, and the thick region is a region satisfying 0.1X to 0.2X from the second end toward the inside. a first end and a second end, the first end being thinner than the second end; and a thin region and a thick region, the thin region having a moisture content of more than one time but not more than three times the moisture content of the thick region, wherein the intermediate film contains a thermoplastic resin and a plasticizer, wherein the thermoplastic resin is a polyvinyl acetal resin, wherein a distance between the first end and the second end is represented by X, the thin region is a region satisfying 0.1X to 0.2X from the first end toward an inside, and the thick region is a region satisfying 0.1X to 0.2X from the second end toward the inside.
A machine for transferring adhesive substances to a moving web, comprising: - a spreading roller by which the adhesive substances are spread and which is configured to come into contact, at least temporarily, with the moving web; wherein the spreading roller is an "anilox" roller; - a plurality of distribution rollers (5a-5e) on which the web, which is subject to tensioning, is made to run; - and a transfer system for transferring adhesive substances to the spreading roller; the machine comprising motor-driven means connected to at least one pin of the spreading roller in order to rotate it; the plurality of distribution rollers (5a-5e) is rotatably pivoted on fixedly pins relative to a first and a second lateral shoulder (6, 7) of the machine and the spreading roller is slidably constrained to the machine; the spreading roller extending between two opposite pins which are rotatably mounted on respective carriages (10, 11); the carriages (10, 11) being mounted on the first and second shoulders (6, 7) of the machine and being movable relative to the first and second shoulders (6, 7) so as to move the spreading roller towards and away from the distribution rollers (5a-5e); characterized in that the pair of carriages (10, 11) movable relative to a pair of lateral shoulders (6, 7) is driven by respective actuator means; the transfer system for transferring adhesive substances comprises a doctor blade mounted on the carriages (10, 11) to be moved together with the spreading roller; wherein the transfer system for transferring adhesive substances is movable and comprises a doctor blade capable of adjusting the quantity of adhesive substances transferred to the spreading roller; the motor-driven means being mounted on at least one of the carriages (10, 11) in such a way as to follow the movement of the spreading roller towards and away from the distribution rollers (5a-5e). - a spreading roller by which the adhesive substances are spread and which is configured to come into contact, at least temporarily, with the moving web; wherein the spreading roller is an "anilox" roller; - a plurality of distribution rollers (5a-5e) on which the web, which is subject to tensioning, is made to run; - and a transfer system for transferring adhesive substances to the spreading roller; the machine comprising motor-driven means connected to at least one pin of the spreading roller in order to rotate it; the plurality of distribution rollers (5a-5e) is rotatably pivoted on fixedly pins relative to a first and a second lateral shoulder (6, 7) of the machine and the spreading roller is slidably constrained to the machine;
Mineral composition for the preparation of foundry moulds, comprising: (a) from 20% to 90% by weight of plaster, (b) from 10% to 75% by weight of a mineral component based on silica and/or alumina, and (c) from 0.5% to 4.8%, preferably from 1.5% to 4.5% and in particular between 2% and 4.5% by weight, of a mineral powder having a thermal conductivity (λ) at 20°C of between 20 and 500 W/(m.K) and a specific surface area BET of between 12 and 50 m 2 /g, these percentages being relative to the total weight of the sum of the components (a), (b) and (c). (a) from 20% to 90% by weight of plaster, (b) from 10% to 75% by weight of a mineral component based on silica and/or alumina, and (c) from 0.5% to 4.8%, preferably from 1.5% to 4.5% and in particular between 2% and 4.5% by weight, of a mineral powder having a thermal conductivity (λ) at 20°C of between 20 and 500 W/(m.K) and a specific surface area BET of between 12 and 50 m 2 /g,
A method for controlling a mobile device comprising a processor for controlling the mobile device, a sensor hub and a sensor unit comprising one or more sensors for measuring a parameter, the method comprising: receiving (410, 510), by the sensor hub, state information regarding the mobile device, the state information comprising a parameter value measured by one or more sensors; setting (410, 510), by the sensor hub, a sensor hub wake up period based on the received state information; and while the sensor hub is in wake up mode based on the set sensor hub wake up period and while the processor is in a sleep mode in which the processor is operable only to receive a wake-up signal from the sensor hub: receiving (440, 550), by the sensor hub, measured values from one or more sensors; and re-setting (460, 550), by the sensor hub, the sensor hub wake up period based on the measured values. receiving (410, 510), by the sensor hub, state information regarding the mobile device, the state information comprising a parameter value measured by one or more sensors; setting (410, 510), by the sensor hub, a sensor hub wake up period based on the received state information; and while the sensor hub is in wake up mode based on the set sensor hub wake up period and while the processor is in a sleep mode in which the processor is operable only to receive a wake-up signal from the sensor hub: receiving (440, 550), by the sensor hub, measured values from one or more sensors; and re-setting (460, 550), by the sensor hub, the sensor hub wake up period based on the measured values. receiving (440, 550), by the sensor hub, measured values from one or more sensors; and re-setting (460, 550), by the sensor hub, the sensor hub wake up period based on the measured values.
A battery pack comprising: a first battery cell and a second battery cell that extend in a vertical direction and are arranged close to each other in a right-left direction; a third battery cell extending in the vertical direction and being disposed in front of the first battery cell and the second battery cell; a battery case housing the first to third battery cells (21, 22, 23); a positive terminal connecting port and a negative terminal connecting port; and a first fixing claw disposed on one side of the battery pack, characterized in that the battery case has a positioning convex portion protruding upward beyond a top surface of the battery case in a longitudinal direction of the battery case, and the positive terminal connecting port and the negative terminal connecting port for receiving a positive terminal and a negative terminal are disposed on the positioning convex portion. a first battery cell and a second battery cell that extend in a vertical direction and are arranged close to each other in a right-left direction; a third battery cell extending in the vertical direction and being disposed in front of the first battery cell and the second battery cell; a battery case housing the first to third battery cells (21, 22, 23); a positive terminal connecting port and a negative terminal connecting port; and a first fixing claw disposed on one side of the battery pack, characterized in that the battery case has a positioning convex portion protruding upward beyond a top surface of the battery case in a longitudinal direction of the battery case, and the positive terminal connecting port and the negative terminal connecting port for receiving a positive terminal and a negative terminal are disposed on the positioning convex portion.
Method for programming a hearing aid wherein the hearing aid user is initially tested by subjecting the user to air borne sound and/or to bone transmitted vibrations, and based on the test results a bone conducting hearing threshold of a bone integrated bone conducting hearing aid is calculated, and further a bone conducting hearing aid is chosen and applied to a skin penetrating abutment which is firmly attached to a bone integrated fixture in the skull bone of the hearing aid user, and the vibrator in the chosen hearing aid is caused to vibrate at different frequencies and vibration levels and feed-back from the hearing aid user is obtained in order to obtain knowledge of a hearing aid users experienced hearing threshold with the attached hearing aid and wherein an internal programmable sine-generator in the chosen bone conducting hearing aid is used to produce the range of vibration frequencies and amplitudes used in the measurements of levels perceived by the user and finally the experienced hearing threshold is used to fine tune this same hearing aid for future wearing by the user.
A mutant v3 or v2 fHbp which is: a polypeptide comprising a mutant fHbp v2 amino acid sequence, wherein: (i) the amino acid sequence has at least 80% sequence identity to SEQ ID NO: 5 and/or comprises a fragment of SEQ ID NO: 5 which is at least 7 amino acids long and includes a residue corresponding to residue 32 from SEQ ID NO: 5; but (ii) the amino acid sequence differs from SEQ ID NO: 5 at residue 32 by the substitution S32V, wherein the polypeptide can elicit antibodies which can recognise a wild-type meningococcal polypeptide consisting of SEQ ID NO. 4, or a polypeptide comprising a mutant fHbp v3 amino acid sequence, wherein: (i) the amino acid sequence has at least 80% sequence identity to SEQ ID NO: 17 and/or comprises a fragment of SEQ ID NO: 17 which is at least 7 amino acids long and includes a residue corresponding to residue 32 from SEQ ID NO: 17; but (ii) the amino acid sequence differs from SEQ ID NO: 17 at residue 32 by the substitution S32V, wherein the polypeptide can elicit antibodies which can recognise a wild-type meningococcal polypeptide consisting of SEQ ID NO. 40. a polypeptide comprising a mutant fHbp v2 amino acid sequence, wherein: (i) the amino acid sequence has at least 80% sequence identity to SEQ ID NO: 5 and/or comprises a fragment of SEQ ID NO: 5 which is at least 7 amino acids long and includes a residue corresponding to residue 32 from SEQ ID NO: 5; but (ii) the amino acid sequence differs from SEQ ID NO: 5 at residue 32 by the substitution S32V, wherein the polypeptide can elicit antibodies which can recognise a wild-type meningococcal polypeptide consisting of SEQ ID NO. 4, or (i) the amino acid sequence has at least 80% sequence identity to SEQ ID NO: 5 and/or comprises a fragment of SEQ ID NO: 5 which is at least 7 amino acids long and includes a residue corresponding to residue 32 from SEQ ID NO: 5; but (ii) the amino acid sequence differs from SEQ ID NO: 5 at residue 32 by the substitution S32V, a polypeptide comprising a mutant fHbp v3 amino acid sequence, wherein: (i) the amino acid sequence has at least 80% sequence identity to SEQ ID NO: 17 and/or comprises a fragment of SEQ ID NO: 17 which is at least 7 amino acids long and includes a residue corresponding to residue 32 from SEQ ID NO: 17; but (ii) the amino acid sequence differs from SEQ ID NO: 17 at residue 32 by the substitution S32V, wherein the polypeptide can elicit antibodies which can recognise a wild-type meningococcal polypeptide consisting of SEQ ID NO. 40. (i) the amino acid sequence has at least 80% sequence identity to SEQ ID NO: 17 and/or comprises a fragment of SEQ ID NO: 17 which is at least 7 amino acids long and includes a residue corresponding to residue 32 from SEQ ID NO: 17; but (ii) the amino acid sequence differs from SEQ ID NO: 17 at residue 32 by the substitution S32V,