mhurhangee/ep-ind-claims huggingface dataset:
Device to detect the entry of a target into a zone comprising at least one source able to emit an illuminating beam in the direction of the target and at least two sensors (3a, 3b) arranged in proximity to said zone and whose sensor fields (4a, 4b) incorporate a common part, each sensor being synchronised with said source and being arranged so as to be able to receive radiation reflected on the target after its emission by said source, calculation means being supplied by signals from the sensors (3a, 3b) and calculating either the first and second travel distances (2Da, 2Db, Δa, Δb) lying between the source and each of the sensors (3a, 3b) via the target, or only one of these first and second travel distances (2Da, 2Db, Δa, Δb) between the source and one of the sensors (3a, 3b) via the target which is then associated with the target presence criterion supplied by the other sensor, the calculation means supplying a target detection signal with the calculated travel distance or distances, as well as any said presence criterion supplied, enable a point to be defined that is located geometrically within the zone under surveillance, device characterised in that the two sensors are passive sensors (3a, 3b) and at least one of the two passive sensors (3a, 3b) is a discriminating sensor, which is to say it incorporates its sensor field enabling the spatial discrimination of at least one edge (2a, 2b) of said zone and in that said source is separate from its sensors, said source being linked to the calculation means by at least one synchronisation link (15; E1, Sd1).
A combustion method for melting glass, according to which a first fuel and a second fuel, of the same nature or of different natures, are introduced into a melting laboratory made up of a front wall, a rear wall, side walls, and a vault arranged above a basin to receive glass to be melted and containing a bath of molten glass, in which combustion method the first fuel is introduced via at least one burner disposed on a first wall among the front wall, the rear wall and the side walls, and the second fuel is injected via at least one injector on a second wall among the front wall, the rear wall, the side walls and the vault, different from the first wall, a stream of air is introduced, the burner being located at a location near or in the stream of air and the injector is positioned on the second wall at a sufficient distance from the burner, in an area where the second fuel mixes with the hot fumes recirculating in the laboratory of the combustion of the first fuel, so that it is diluted in said fumes, before being ignited in the laboratory in contact with the air of the stream of air not consumed by the combustion of the first fuel, wherein the heat produced is transferred to the glass to be melted, while reducing the production of NOx, the amount of the second fuel being between 30% and 100% of the total amount of the first and second fuels.
A nanocellulose material which is of plant origin and comprises nanocellulose particles or fibres derived from a plant material, characterised in that the nanocellulose material has a hemicellulose content of 30% (w/w) or greater.
A display apparatus comprising: a base substrate comprising a display region (DD-DA) and a non-display region adjacent (DD-NDA) to the display region (DD-DA); a circuit layer (DP-CL) disposed on the base substrate; a light-emitting element layer disposed on the display region (DD-DA); an encapsulating layer covering the light-emitting element layer; a touch sensing unit disposed on the encapsulating layer and comprising a touch electrode (TE1-1) and a wiring part connected to the touch electrode (TE1-1); and a protruding member disposed on the non-display region (DD-NDA), characterized by the following features:the wiring part comprises, when viewed in a plan view: a first wiring part which does not overlap the protruding member and having a first wiring width; a second wiring part overlapping the protruding member and having a second wiring width; and a connection wiring part having a third wiring width less than the first and second wiring widths and disposed between the first and second wiring parts; the first to third wiring widths (W1 to W3) are widths in a direction perpendicular to an extending direction of the wiring part; and the connection wiring part overlaps an edge (DM-E) of the protruding member. a base substrate comprising a display region (DD-DA) and a non-display region adjacent (DD-NDA) to the display region (DD-DA); a circuit layer (DP-CL) disposed on the base substrate; a light-emitting element layer disposed on the display region (DD-DA); an encapsulating layer covering the light-emitting element layer; a touch sensing unit disposed on the encapsulating layer and comprising a touch electrode (TE1-1) and a wiring part connected to the touch electrode (TE1-1); and a protruding member disposed on the non-display region (DD-NDA), characterized by the following features:the wiring part comprises, when viewed in a plan view: a first wiring part which does not overlap the protruding member and having a first wiring width; a second wiring part overlapping the protruding member and having a second wiring width; and a connection wiring part having a third wiring width less than the first and second wiring widths and disposed between the first and second wiring parts; a first wiring part which does not overlap the protruding member and having a first wiring width; a second wiring part overlapping the protruding member and having a second wiring width; and a connection wiring part having a third wiring width less than the first and second wiring widths and disposed between the first and second wiring parts; the first to third wiring widths (W1 to W3) are widths in a direction perpendicular to an extending direction of the wiring part; and the connection wiring part overlaps an edge (DM-E) of the protruding member.
Casting method using an expendable or partially expendable casting mould, in which method at least one embeddable component is positioned in the mould, wetted with wash and surrounded at least partially with casting material, characterised in that the embeddable component is cleaned following application of the wash.
A deep ultra-violet continuous wave laser comprising: a fundamental CW laser (201; 221) configured to generate a fundamental frequency (202; 222) with a corresponding wavelength between about 1 μm and 1.1 μm; a third harmonic generator module (200; 220) including at least one periodically poled non-linear optical crystal (204; 224) to generate a third harmonic (209; 226); a fourth harmonic generator module comprising a cavity resonant at the fundamental frequency, the fourth harmonic generator module for combining the fundamental frequency with the third harmonic to generate a fourth harmonic; and wherein the fourth harmonic generator module does not recirculate the third harmonic in the cavity. a fundamental CW laser (201; 221) configured to generate a fundamental frequency (202; 222) with a corresponding wavelength between about 1 μm and 1.1 μm; a third harmonic generator module (200; 220) including at least one periodically poled non-linear optical crystal (204; 224) to generate a third harmonic (209; 226); a fourth harmonic generator module comprising a cavity resonant at the fundamental frequency, the fourth harmonic generator module for combining the fundamental frequency with the third harmonic to generate a fourth harmonic; and wherein the fourth harmonic generator module does not recirculate the third harmonic in the cavity.
A lithographic projection apparatus comprising: - a radiation system (LA, Ex, IL) for providing a projection beam of radiation; - a support structure for supporting patterning means, the patterning means serving to pattern the projection beam according to a desired pattern; a substrate table for holding a substrate; a projection system for projecting the patterned beam onto a target portion of the substrate; wherein the radiation system comprises an illumination system for defining the intensity distribution of the projection beam; and wherein the illumination system comprises steering means for individually steering different parts of the projection beam into different directions to provide a desired angular intensity distribution of the projection beam at the patterning means, said steering means comprising a plurality of discrete reflectors (33a - 33e), each for steering a part of the projection beam, and whose orientation can be controlled individually to direct the corresponding part of the projection beam into a desired direction, characterized in that the illumination system further comprises concentrating means for respectively concentrating the different parts of the projection beam onto the discrete reflectors. - a radiation system (LA, Ex, IL) for providing a projection beam of radiation; - a support structure for supporting patterning means, the patterning means serving to pattern the projection beam according to a desired pattern;
A corner connection comprising: a first molded part having a first end face, with at least one hook-like prolongation extending from the first end face; and a second molded part having a second end face, with the second molded part having a hollow space starting from the second end face and a jacket wall which defines the hollow space and which is provided with at least one reception opening which serves to receive a hook-like prolongation, characterized by a locking element which can be received in a rotatably supported manner in the hollow space of the second molded part and which has at least one locking opening which is aligned flush with a reception opening of the second molded part in a pre-assembly position of the locking element to receive the hook-like prolongation received in the reception opening, with a hook section of the hook-like prolongation being engaged behind by the locking element by a rotation of the locking element into a locked position to lock the first molded part to the second molded part. a first molded part having a first end face, with at least one hook-like prolongation extending from the first end face; and a second molded part having a second end face, with the second molded part having a hollow space starting from the second end face and a jacket wall which defines the hollow space and which is provided with at least one reception opening which serves to receive a hook-like prolongation, characterized by a locking element which can be received in a rotatably supported manner in the hollow space of the second molded part and which has at least one locking opening which is aligned flush with a reception opening of the second molded part in a pre-assembly position of the locking element to receive the hook-like prolongation received in the reception opening, with a hook section of the hook-like prolongation being engaged behind by the locking element by a rotation of the locking element into a locked position to lock the first molded part to the second molded part.
Method for producing a polymeric vehicle add-on part with a decorative element, wherein a. a first polymeric material phase is provided, b. a decorative element is transferred from a carrier film onto a first surface of the first polymeric material phase by hot stamping using a punch, and c. a second polymeric material phase is applied on the first surface of the first polymeric material phase such that the decorative element is arranged between the first polymeric material phase and the second polymeric material phase, wherein at least the first polymeric material phase or the second polymeric material phase is transparent and wherein providing the first material phase and applying the second material phase are done by injection molding. a. a first polymeric material phase is provided, b. a decorative element is transferred from a carrier film onto a first surface of the first polymeric material phase by hot stamping using a punch, and c. a second polymeric material phase is applied on the first surface of the first polymeric material phase such that the decorative element is arranged between the first polymeric material phase and the second polymeric material phase, wherein at least the first polymeric material phase or the second polymeric material phase is transparent and wherein providing the first material phase and applying the second material phase are done by injection molding.
An apparatus (310, 410) for cooling an electronic component comprising: a heat-absorbing base (316, 416); and a heat-dissipating body (318, 418) connected to the heat-absorbing base (316, 416), wherein the heat-dissipating body (318, 418) comprises a heat-dissipating static feature (320, 420) and a first heat-dissipating dynamic feature (321, 421), wherein the first heat-dissipating dynamic feature (321, 421) is configured to be repositioned about the heat-dissipating static feature (320, 420) to increase a surface cooling area of the heat-dissipating body (318, 418), wherein the apparatus is further comprises a first set of thermosiphons connecting the first heat-dissipating dynamic feature with the heat-dissipating static feature, wherein the first set of thermosiphons is characterized by being configured to expand to cause the first heat-dissipating dynamic feature to rotate about the heat-dissipating static feature to increase the surface cooling area of the heat-dissipating body (318, 418). a heat-absorbing base (316, 416); and a heat-dissipating body (318, 418) connected to the heat-absorbing base (316, 416), wherein the heat-dissipating body (318, 418) comprises a heat-dissipating static feature (320, 420) and a first heat-dissipating dynamic feature (321, 421), wherein the first heat-dissipating dynamic feature (321, 421) is configured to be repositioned about the heat-dissipating static feature (320, 420) to increase a surface cooling area of the heat-dissipating body (318, 418), wherein the apparatus is further comprises a first set of thermosiphons connecting the first heat-dissipating dynamic feature with the heat-dissipating static feature, wherein the first set of thermosiphons is characterized by being configured to expand to cause the first heat-dissipating dynamic feature to rotate about the heat-dissipating static feature to increase the surface cooling area of the heat-dissipating body (318, 418).
An induction hardening monitoring apparatus that can be connected to an induction hardening apparatus in which a high-frequency inverter is connected to a capacitor and a heating coil and in which a current transformer is provided between the capacitor and the heating coil, comprising: a current sensor for detecting output current from the high-frequency inverter; a voltage sensor for detecting a voltage generated in the heating coil; and a controller for monitoring a hardening processing based on a detection signal from the current sensor and a detection signal from the voltage sensor, the induction hardening monitoring apparatus characterized in that the current sensor is electrically connected to a wiring between the high frequency inverter and the capacitor, and the voltage sensor has terminals (22a, 22b) parallely connected to the heating coil at both ends. a current sensor for detecting output current from the high-frequency inverter; a voltage sensor for detecting a voltage generated in the heating coil; and a controller for monitoring a hardening processing based on a detection signal from the current sensor and a detection signal from the voltage sensor, the induction hardening monitoring apparatus characterized in that the current sensor is electrically connected to a wiring between the high frequency inverter and the capacitor, and the voltage sensor has terminals (22a, 22b) parallely connected to the heating coil at both ends.
An ESD protection device comprising: a ceramic base material including a glass component; opposed electrodes comprising an opposed electrode on one side and an opposed electrode on the other side, the opposed electrodes formed so as to oppose to each other at a distance therebetween; and a discharge auxiliary electrode connected to each of the opposed electrode on one side and the opposed electrode on the other side, the discharge auxiliary electrode placed so as to provide a bridge from the opposed electrode on one side to the opposed electrode on the other side, characterized by a sealing layer for preventing ingress of the glass component from the ceramic base material into the discharge auxiliary electrode, the sealing layer provided between the discharge auxiliary electrode and the ceramic base material, wherein the sealing layer is a porous layer including ceramic grains and functions to absorb and keep the glass component contained in the ceramic base material and the glass component produced in the ceramic base material in a firing step to suppress and prevent the ingress of the glass component into the discharge auxiliary electrode, thereby preventing short circuit defects from being caused by excessive sintering of the discharge auxiliary electrode, and wherein the difference ΔB (= B1 - B2) is 1.4 or less between basicity B1 of a main constituent material of the sealing layer and basicity B2 of an amorphous portion constituting the ceramic base material. a ceramic base material including a glass component; opposed electrodes comprising an opposed electrode on one side and an opposed electrode on the other side, the opposed electrodes formed so as to oppose to each other at a distance therebetween; and a discharge auxiliary electrode connected to each of the opposed electrode on one side and the opposed electrode on the other side, the discharge auxiliary electrode placed so as to provide a bridge from the opposed electrode on one side to the opposed electrode on the other side, characterized by a sealing layer for preventing ingress of the glass component from the ceramic base material into the discharge auxiliary electrode, the sealing layer provided between the discharge auxiliary electrode and the ceramic base material, wherein the sealing layer is a porous layer including ceramic grains and functions to absorb and keep the glass component contained in the ceramic base material and the glass component produced in the ceramic base material in a firing step to suppress and prevent the ingress of the glass component into the discharge auxiliary electrode, thereby preventing short circuit defects from being caused by excessive sintering of the discharge auxiliary electrode, and wherein the difference ΔB (= B1 - B2) is 1.4 or less between basicity B1 of a main constituent material of the sealing layer and basicity B2 of an amorphous portion constituting the ceramic base material.
A method of partially thawing an object in a frozen state placed in an interior of a container, in which an AC voltage which is 10V or higher and 5kV or lower is applied to the object in the frozen state to flow a current which is 10 μA or higher and 100 mA or lower, through the object in the frozen state, the method comprising the steps of: partially thawing the object in the frozen state in such a manner that a temperature in the interior of the container is controlled to cause the object in the frozen state to be partially thawed with the object at a minus temperature in the range of 0 degrees C to minus 10 degrees C while applying the AC voltage to the object in the frozen state; and stopping application of the AC voltage to the object and preserving the object while maintaining a state in which the object is partially thawed. partially thawing the object in the frozen state in such a manner that a temperature in the interior of the container is controlled to cause the object in the frozen state to be partially thawed with the object at a minus temperature in the range of 0 degrees C to minus 10 degrees C while applying the AC voltage to the object in the frozen state; and stopping application of the AC voltage to the object and preserving the object while maintaining a state in which the object is partially thawed.
A process for obtaining concentrated hydroxytyrosol extracts using as raw material extracts with low concentration (less than 5% HT d.b) derived from the olive industry, without the use of organic solvents, that comprises the following steps: a) adjusting the pH of an extract with low HT concentration to a pH value less than 7 using a pH regulator; b) contacting the extract with low HT concentration with a weak base anion exchange resin of a polystyrene, styrene, divinylbenzene, polydivinylbenzene, polystyrene-DVB, or styrene-DVB matrix; c) eluting the resin using hot water at a temperature between 50-100°C to obtain a purified HT extract. a) adjusting the pH of an extract with low HT concentration to a pH value less than 7 using a pH regulator; b) contacting the extract with low HT concentration with a weak base anion exchange resin of a polystyrene, styrene, divinylbenzene, polydivinylbenzene, polystyrene-DVB, or styrene-DVB matrix; c) eluting the resin using hot water at a temperature between 50-100°C to obtain a purified HT extract.
A composite comestible product comprising distinct first and second components, wherein the first component has a total fat content comprising a randomly interesterified fat, the randomly interesterified fat having a saturated fat content of from 35 to 55 wt% by weight of the randomly interesterified fat and less than 3 wt% saturated fatty acids having 20 or more carbon atoms by weight of the randomly interesterified fat, wherein the total fat content of the first component comprises from 20 to 50 wt% saturated fat and less than 3 wt% trans fatty acids by weight of the total fat content, wherein the total fat content of the first component further comprises a liquid oil in an amount of from 10 to 70 wt% by weight of the total fat content, the liquid oil having a saturated fat content of less than 20 wt% by weight of the liquid oil and a solid fat content of less than 5 wt% at 20 oC, wherein the randomly interesterified fat is present in a total amount of from 90 to 30 wt% by weight of the total fat content of the first component, and wherein the second component is a chocolate component comprising one or more sources of cocoa butter or cocoa butter equivalent, preferably wherein the randomly interesterified fat and the liquid oil are present in a total amount of at least 80 wt%, more preferably at least 90 wt% by weight of the total fat content of the first component. wherein the first component has a total fat content comprising a randomly interesterified fat, the randomly interesterified fat having a saturated fat content of from 35 to 55 wt% by weight of the randomly interesterified fat and less than 3 wt% saturated fatty acids having 20 or more carbon atoms by weight of the randomly interesterified fat, wherein the total fat content of the first component comprises from 20 to 50 wt% saturated fat and less than 3 wt% trans fatty acids by weight of the total fat content, wherein the total fat content of the first component further comprises a liquid oil in an amount of from 10 to 70 wt% by weight of the total fat content, the liquid oil having a saturated fat content of less than 20 wt% by weight of the liquid oil and a solid fat content of less than 5 wt% at 20 oC, wherein the randomly interesterified fat is present in a total amount of from 90 to 30 wt% by weight of the total fat content of the first component, and wherein the second component is a chocolate component comprising one or more sources of cocoa butter or cocoa butter equivalent, preferably wherein the randomly interesterified fat and the liquid oil are present in a total amount of at least 80 wt%, more preferably at least 90 wt% by weight of the total fat content of the first component.