mhurhangee/ep-ind-claims huggingface dataset:
Method for characterizing sensitivity to energy interactions in an electronic component in which: - the electronic component is put into operation; - the electronic component thus put into operation is excited using laser radiation; - a fault in the operation of the electronic component put into operation, corresponding to this excitation, is measured, and - a map (Fig. 5) of locations of interest in the component, where these interactions are strongest, is produced, characterized in that: - the laser radiation is focused at various depths in the component, and - the energy interactions for these various depths are measured. - the electronic component is put into operation; - the electronic component thus put into operation is excited using laser radiation; - a fault in the operation of the electronic component put into operation, corresponding to this excitation, is measured, and - a map (Fig. 5) of locations of interest in the component, where these interactions are strongest, is produced, characterized in that: - the laser radiation is focused at various depths in the component, and - the energy interactions for these various depths are measured. - the laser radiation is focused at various depths in the component, and - the energy interactions for these various depths are measured.
A method of making a shaped body having a silica content of at least 85 wt%, the method comprising the steps of: a) mixing at least one amorphous silica powder, at least one silica sol having a pH below 7, and at least one polymeric organic extrusion aid, and optionally supplemental liquid medium and optionally crystallites of a zeolite or zeolite type material, wherein any zeolite material present is an aluminosilicate or germano alumino silicate having a silica to alumina molar ratio of at least 10, and forming a shaped body from the mixture; b) drying the shaped body obtained in step a); and c) heating the shaped body, in the presence of steam, to a temperature ranging from 500 °C to 800 °C for a duration of from 15 minutes to 60 minutes, wherein the amorphous silica powder and the at least one silica sol are present in the mixture in an amount such that the heated shaped body has a silica content of at least 85 wt%, excluding the weight of zeolite or zeolite-like crystallites, if present. a) mixing at least one amorphous silica powder, at least one silica sol having a pH below 7, and at least one polymeric organic extrusion aid, and optionally supplemental liquid medium and optionally crystallites of a zeolite or zeolite type material, wherein any zeolite material present is an aluminosilicate or germano alumino silicate having a silica to alumina molar ratio of at least 10, and forming a shaped body from the mixture; b) drying the shaped body obtained in step a); and c) heating the shaped body, in the presence of steam, to a temperature ranging from 500 °C to 800 °C for a duration of from 15 minutes to 60 minutes, wherein the amorphous silica powder and the at least one silica sol are present in the mixture in an amount such that the heated shaped body has a silica content of at least 85 wt%, excluding the weight of zeolite or zeolite-like crystallites, if present.
Electropneumatic braking device for a vehicle, with load-corrected brake pressure regulation, wherein an electropneumatic brake pressure regulator provides a pilot pressure matched to the vehicle weight for a downstream relay valve for application to a pneumatic brake cylinder, with which pilot pressure a pilot pressure accumulator can be filled, characterised in that in the normal driving mode the brake pressure regulator corrects in an additional emergency brake pressure accumulator a load-corrected pilot pressure which is used for the pilot control of the relay valve in the case of an emergency braking operation.
A irrigation control system comprising: a controller for controlling multiple irrigation channels ( C1, C2,..., Cn); a sensor interface connected to the controller; multiple sensor connectors (CN1, CN2,..., CNn) corresponding to each of the multiple irrigation channels ( C1, C2,..., Cn) provided on the sensor interface; and one or more sensors ( S1, S2,..., Sm) connected to the sensor connectors (CN1, CN2,..., CNn), a single sensor ( S1, S2) being connected to a single sensor connector (CN1, CN4) and configured to provide an output to the controller such that the irrigation channel ( C1, C4) corresponding to the sensor connector (CN1, CN4) is controlled based on the output of the sensor ( S1, S2); characterized in that, the output of a single sensor ( S1, S2) connected to a sensor connector (CN1, CN4) is used to selectively control one or more irrigation channels (C2, C3, C5) corresponding to consecutive sensor connectors (CN2, CN3, CN5) immediately preceding or following the sensor connector (CN1, CN4), the consecutive sensor connectors (CN2, CN3, CN5) being disconnected from the sensors or being connected to defective sensors. a controller for controlling multiple irrigation channels ( C1, C2,..., Cn); a sensor interface connected to the controller; multiple sensor connectors (CN1, CN2,..., CNn) corresponding to each of the multiple irrigation channels ( C1, C2,..., Cn) provided on the sensor interface; and one or more sensors ( S1, S2,..., Sm) connected to the sensor connectors (CN1, CN2,..., CNn), a single sensor ( S1, S2) being connected to a single sensor connector (CN1, CN4) and configured to provide an output to the controller such that the irrigation channel ( C1, C4) corresponding to the sensor connector (CN1, CN4) is controlled based on the output of the sensor ( S1, S2); characterized in that, the output of a single sensor ( S1, S2) connected to a sensor connector (CN1, CN4) is used to selectively control one or more irrigation channels (C2, C3, C5) corresponding to consecutive sensor connectors (CN2, CN3, CN5) immediately preceding or following the sensor connector (CN1, CN4), the consecutive sensor connectors (CN2, CN3, CN5) being disconnected from the sensors or being connected to defective sensors.
A method for controlling a handover from a first base station to a second base station of a user equipment that performs radio communication over a communication channel formed by aggregating a plurality of component carriers (CC1, CC2, CC3), wherein scheduling information on each component carrier (CC1, CC2, CC3) is transmitted by the first base station to the user equipment according to either of a straight scheduling method or a cross scheduling method, and the method includes at the first base station, commanding first the user equipment to perform a handover from the first base station to the second base station on a first component carrier (CC1, CC2, CC3) to be operated according to the straight scheduling method in the second base station, when it is determined that a handover on the first component carrier (CC1, CC2, CC3) following the cross scheduling method is to be executed, and, at the first base station, changing a scheduling information transmission method on the first component carrier (CC1, CC2, CC3) from the cross scheduling method to the straight scheduling method before the handover on the first component carrier (CC1, CC2, CC3) is executed.
A surgical closure apparatus for facilitating closure of a wound, comprising: an outer member dimensioned for positioning within a wound opening and defining a central longitudinal axis ("K"), the outer member having a first longitudinal passage, defining an axis which is radially spaced relative to the central longitudinal axis ("K"), and a second longitudinal passage; a needle assembly including a needle drive at least partially disposed within the first longitudinal passage of the outer member and a suture needle mounted to the needle drive, wherein the suture needle is curved and defines a needlepoint, and a suture configured for at least partially closing the wound opening within the tissue, the suture coupled to the suture needle and at least partially extending through the second longitudinal passage of the outer member, said surgical closure apparatus being characterized in that the suture needle is adapted for rotational movement around the axis of the first longitudinal passage between an unarmed condition and an armed condition through manipulation of the needle drive, wherein at least the needlepoint of the suture needle is disposed radial inwardly and outwardly relative to the outer member when the suture needle is in the unarmed condition and the armed condition respectively, the suture needle being positioned for passage through the tissue adjacent the wound openings when in the armed condition. an outer member dimensioned for positioning within a wound opening and defining a central longitudinal axis ("K"), the outer member having a first longitudinal passage, defining an axis which is radially spaced relative to the central longitudinal axis ("K"), and a second longitudinal passage; a needle assembly including a needle drive at least partially disposed within the first longitudinal passage of the outer member and a suture needle mounted to the needle drive, wherein the suture needle is curved and defines a needlepoint, and a suture configured for at least partially closing the wound opening within the tissue, the suture coupled to the suture needle and at least partially extending through the second longitudinal passage of the outer member, said surgical closure apparatus being characterized in that the suture needle is adapted for rotational movement around the axis of the first longitudinal passage between an unarmed condition and an armed condition through manipulation of the needle drive, wherein at least the needlepoint of the suture needle is disposed radial inwardly and outwardly relative to the outer member when the suture needle is in the unarmed condition and the armed condition respectively, the suture needle being positioned for passage through the tissue adjacent the wound openings when in the armed condition.
Device for extruding mixtures of elastomers comprising a rotary screw with helical flights which is arranged in a fixed barrel, the upstream end of the screw being able to be coupled to rotational-drive means and the downstream end thereof being able to propel a mixture towards an exit die, the screw having a tubular shape to allow a fluid from a hydraulic cooling circuit to flow, the outside diameter of the downstream end of the screw defining, with the inside diameter of the exit orifice of the barrel, an annular gap for the passage of the mixture, the said device comprising a working ring (20, 30) mounted directly removably with the aid of quick-fit means near the said downstream end so as to modify the annular gap by reducing its initial size according to the composition of the mixture used and to apply a shear stress to the mixture in the said gap, the said device being characterized in that the screw comprises a duct in which a coolant from the hydraulic cooling circuit flows, and which is closed, at the downstream end of the said screw, by a plug, and in that the quick-fit means allow the working ring (20, 30) to be fitted and removed without removing the hydraulic circuit closure plug.
A waveguide body having a longitudinal axis and a lateral axis perpendicular to the longitudinal axis, comprising: at least one plurality of light extraction features (60, 62), wherein at least two of the light extraction features are separated from one another along the longitudinal axis and wherein at least one of the extraction features (60, 62) has a lateral extent; and at least one light coupling cavity adapted to transmit light from a light source into the waveguide body; and wherein the waveguide body comprises a first portion comprising a first plurality of light extraction features of the at least one plurality of light extraction features with a linear shape and a second portion comprising a second plurality of light extraction features of the at least one plurality of light extraction features with at least one of a piecewise linear shape approximating a curve and a curved shape, characterized in that the first portion is spaced from the second portion by a transition portion along the longitudinal axis such that the first plurality of light extraction features are spaced from the second plurality of extraction features along the longitudinal axis, wherein the extraction features are configured to develop an asymmetric light distribution. at least one plurality of light extraction features (60, 62), wherein at least two of the light extraction features are separated from one another along the longitudinal axis and wherein at least one of the extraction features (60, 62) has a lateral extent; and at least one light coupling cavity adapted to transmit light from a light source into the waveguide body; and wherein the waveguide body comprises a first portion comprising a first plurality of light extraction features of the at least one plurality of light extraction features with a linear shape and a second portion comprising a second plurality of light extraction features of the at least one plurality of light extraction features with at least one of a piecewise linear shape approximating a curve and a curved shape, characterized in that the first portion is spaced from the second portion by a transition portion along the longitudinal axis such that the first plurality of light extraction features are spaced from the second plurality of extraction features along the longitudinal axis, wherein the extraction features are configured to develop an asymmetric light distribution.
A process for producing a shaped body (10, 20, 30) from a metallic infiltrated composite, based on tungsten copper or based on molybdenum copper, having the following steps: • producing a shaped body framework having a predominantly open-pore framework structure at least in some regions from a powder or a powder mixture having a primary component composed of molybdenum or tungsten, by construction of the shaped body framework layer by layer via superposed layers and formation of each layer by application of the powder or powder mixture without addition of organic binders or organic fluxes in a layer, at least partial local melting of the powder or powder mixture at predetermined sites by means of a selective beam melting method and solidification thereof, • infiltrating the shaped body framework with a melt of copper or a copper alloy. • producing a shaped body framework having a predominantly open-pore framework structure at least in some regions from a powder or a powder mixture having a primary component composed of molybdenum or tungsten, by construction of the shaped body framework layer by layer via superposed layers and formation of each layer by application of the powder or powder mixture without addition of organic binders or organic fluxes in a layer, at least partial local melting of the powder or powder mixture at predetermined sites by means of a selective beam melting method and solidification thereof, • infiltrating the shaped body framework with a melt of copper or a copper alloy.
A method of forming a non-volatile memory cell comprising: forming, in a substrate of a first conductivity type, spaced apart first and second regions (34, 60) of a second conductivity type, defining a channel region there between; forming a floating gate disposed over and insulated from a first portion of the channel region and over a portion of the first region, wherein the floating gate includes a sharp edge disposed over the first region; forming a tunnel oxide layer around the sharp edge; forming an erase gate over and insulated from the first region, wherein the erase gate includes a notch facing the sharp edge, and wherein the notch is insulated from the sharp edge by the tunnel oxide layer; and forming a word line gate disposed over and insulated from a second portion of the channel region which is adjacent to the second region, wherein the forming of the word line gate is performed after the forming of the tunnel oxide layer and the forming of the erase gate; wherein the forming of the floating gate includes: forming a conductive layer over and insulated from the substrate; forming a block of insulation material on the conductive layer; and oxidizing an upper surface of the conductive layer leaving the upper surface sloping upwardly as the upper surface reaches the block of insulation material. forming, in a substrate of a first conductivity type, spaced apart first and second regions (34, 60) of a second conductivity type, defining a channel region there between; forming a floating gate disposed over and insulated from a first portion of the channel region and over a portion of the first region, wherein the floating gate includes a sharp edge disposed over the first region; forming a tunnel oxide layer around the sharp edge; forming an erase gate over and insulated from the first region, wherein the erase gate includes a notch facing the sharp edge, and wherein the notch is insulated from the sharp edge by the tunnel oxide layer; and forming a word line gate disposed over and insulated from a second portion of the channel region which is adjacent to the second region, wherein the forming of the word line gate is performed after the forming of the tunnel oxide layer and the forming of the erase gate; wherein the forming of the floating gate includes: forming a conductive layer over and insulated from the substrate; forming a block of insulation material on the conductive layer; and oxidizing an upper surface of the conductive layer leaving the upper surface sloping upwardly as the upper surface reaches the block of insulation material. forming a conductive layer over and insulated from the substrate; forming a block of insulation material on the conductive layer; and oxidizing an upper surface of the conductive layer leaving the upper surface sloping upwardly as the upper surface reaches the block of insulation material.
Decoder for a race timing system, comprising: a reader interface for receiving detections of sports timing transponders passing an antenna; a cable connection interface for connecting a network cable and/or a computer interface cable; a user interface for providing configuration feedback to a user; a processing unit for determining passing times of participants in a sports event based on the detections; and a housing for protecting the processing unit from environmental impact, wherein the user interface is included in the decoder and is arranged on a top side of the housing and on an outside of the housing for providing user access and the cable connection interface is arranged under a protective flap that is configured to provide user access to the cable connection interface in an open state and to shield the cable connection interface from environmental impact in a closed state. a reader interface for receiving detections of sports timing transponders passing an antenna; a cable connection interface for connecting a network cable and/or a computer interface cable; a user interface for providing configuration feedback to a user; a processing unit for determining passing times of participants in a sports event based on the detections; and a housing for protecting the processing unit from environmental impact, wherein the user interface is included in the decoder and is arranged on a top side of the housing and on an outside of the housing for providing user access and the cable connection interface is arranged under a protective flap that is configured to provide user access to the cable connection interface in an open state and to shield the cable connection interface from environmental impact in a closed state.
A monitoring kit comprising an electronic monitoring bracelet, a recharging unit comprising one or more rechargeable batteries, and a base station or recharging station independent of the recharging unit and configured to be connected by wire to the electricity network, the monitoring bracelet comprising a ring-shaped body configured to be opened at least at one interface so as to be mounted around a limb or an object, and an electronic monitoring system positioned in the body, the electronic monitoring system comprising an integrity detection system and an internal source of energy, the recharging unit being configured to be mechanically coupled in a removable way with the monitoring bracelet in order to perform wireless recharging of the internal source of energy on the one hand, and on the other hand the recharging unit is configured to be connected to the base station or recharging station for recharging the batteries of the recharging unit while the recharging unit is not coupled to the bracelet.
An unloading apparatus that unloads cargo items from a cargo group on a cargo bed, the unloading apparatus characterized by comprising: a cargo bed lifting and lowering mechanism that lifts and lowers a cargo bed; a first detection unit that measures heights of cargos items forming an upper surface of a cargo group and positions, in plan view, of the cargo items forming the upper surface of the cargo group; a moving device that moves the cargo items to an unloading position by individually holding and lifting a cargo item based on a measurement by the first detection unit; a second detection unit that detects whether a lower end of a cargo item being held by the moving device is above a position that is higher than the highest position of the cargo items at the upper surface of the cargo group; and a controller configured to: control the cargo bed lifting and lowering mechanism to lower the cargo bed in conjunction with the lifting of cargo items by the moving device, and stop the lowering of the cargo bed based on a detection result of the second detection unit, control the moving device to move the cargo items to the unloading position, and a cargo bed rotating mechanism that rotates the cargo bed, wherein the controller controls rotation of the cargo bed in a direction in which the next cargo to be held by the moving device becomes close to the unloading position. a cargo bed lifting and lowering mechanism that lifts and lowers a cargo bed; a first detection unit that measures heights of cargos items forming an upper surface of a cargo group and positions, in plan view, of the cargo items forming the upper surface of the cargo group; a moving device that moves the cargo items to an unloading position by individually holding and lifting a cargo item based on a measurement by the first detection unit; a second detection unit that detects whether a lower end of a cargo item being held by the moving device is above a position that is higher than the highest position of the cargo items at the upper surface of the cargo group; and a controller configured to: control the cargo bed lifting and lowering mechanism to lower the cargo bed in conjunction with the lifting of cargo items by the moving device, and stop the lowering of the cargo bed based on a detection result of the second detection unit, control the moving device to move the cargo items to the unloading position, and control the cargo bed lifting and lowering mechanism to lower the cargo bed in conjunction with the lifting of cargo items by the moving device, and stop the lowering of the cargo bed based on a detection result of the second detection unit, control the moving device to move the cargo items to the unloading position, and a cargo bed rotating mechanism that rotates the cargo bed, wherein the controller controls rotation of the cargo bed in a direction in which the next cargo to be held by the moving device becomes close to the unloading position.