mhurhangee/ep-ind-claims huggingface dataset:
A light emitting package, comprising: a light emitting unit emitting an excited beam; and a light conversion substrate disposed on the light emitting unit wherein the light conversion substrate comprises: a first side part having a first taper; and a second side part formed in one region of the light conversion substrate and having a second taper different from the first taper, wherein a position where the second side part provided at an edge portion of the light conversion substrate is inwardly curved, corresponds to a connection terminal of the light emitting unit, characterised in that the second taper has a curved line connecting an upper end and a lower end of the second side part, and wherein the first taper and second taper are inclined so that an area of a cross section of the light conversion substrate decreases in the direction away from the light emitting unit, and wherein the light conversion substrate is a ceramic substrate containing a metal oxide and a phosphor. a light emitting unit emitting an excited beam; and a light conversion substrate disposed on the light emitting unit wherein the light conversion substrate comprises: a first side part having a first taper; and a second side part formed in one region of the light conversion substrate and having a second taper different from the first taper, wherein a position where the second side part provided at an edge portion of the light conversion substrate is inwardly curved, corresponds to a connection terminal of the light emitting unit, a first side part having a first taper; and a second side part formed in one region of the light conversion substrate and having a second taper different from the first taper, wherein a position where the second side part provided at an edge portion of the light conversion substrate is inwardly curved, corresponds to a connection terminal of the light emitting unit,
A temperature measuring method using a vibrating-type level sensor measuring a temperature by utilizing characteristics of a coil of an electromagnet placed opposite to a magnet with a slight gap therebetween, the magnet being provided to a vibrating plate within a detection pipe unit, wherein an alternating current voltage at a frequency which is swept over a predetermined range centered at a resonance frequency of said vibrating plate is applied to said coil, and the temperature is measured based on a change in phase angle of a flowing current through said coil with respect to the alternating current voltage, said change in phase angle being caused by a change in resistance value of said coil due to a change in temperature of said coil.
A board work machine comprising: a holding device configured to hold a leaded component having a lead and insert the lead into a through-hole formed in a board; an applying device configured to apply molten solder to the lead inserted into the through-hole; and a control device, the control device being provided with an insertion section configured to cause the holding device to insert the lead into the through-hole; an application section configured to cause the applying device to apply molten solder to the lead of the leaded component while the leaded component is being held by the holding device; and a holding release section configured to set a setting time for the leaded component to be held by the holding device after the applying device has completed applying molten solder to the lead and to cause the holding device to release the leaded component after the setting time has elapsed, characterized in that the holding release section is configured to set the setting time in accordance with at least one of a size of the leaded component, a shape of the leaded component, a thermal capacity of the leaded component, a heat dissipation ratio of the leaded component, a length of the lead, a diameter of the lead, an insertion amount of the lead into the through-hole, a mounting orientation of the leaded component, a mounting position of leaded component, and a required mounting accuracy of leaded component. a holding device configured to hold a leaded component having a lead and insert the lead into a through-hole formed in a board; an applying device configured to apply molten solder to the lead inserted into the through-hole; and a control device, the control device being provided with an insertion section configured to cause the holding device to insert the lead into the through-hole; an application section configured to cause the applying device to apply molten solder to the lead of the leaded component while the leaded component is being held by the holding device; and a holding release section configured to set a setting time for the leaded component to be held by the holding device after the applying device has completed applying molten solder to the lead and to cause the holding device to release the leaded component after the setting time has elapsed, characterized in that the holding release section is configured to set the setting time in accordance with at least one of a size of the leaded component, a shape of the leaded component, a thermal capacity of the leaded component, a heat dissipation ratio of the leaded component, a length of the lead, a diameter of the lead, an insertion amount of the lead into the through-hole, a mounting orientation of the leaded component, a mounting position of leaded component, and a required mounting accuracy of leaded component.
System, in particular installation, having a vehicle movable on a floor, wherein the vehicle has an RFID reading device which is connected to an antenna, wherein when the antenna enters the coupling region of a floor-installed antenna, which is connected to a stationarily arranged RFID transponder, in particular RFID tag, data stored in the transponder is able to be read out by the reading device, wherein one or a plurality of permanent magnets are arranged on the floor, in particular are fixedly connected in the floor, the vehicle has a sensor for detecting the direction of the magnetic field, wherein a further transponder has an antenna, the coupling region of which comprises or at least partially comprises the coupling regions of a plurality of transponders (T1, T2, T3, T4, T5), wherein in the respective transponder (T1, T2, T3, T4, T5) not only information regarding the position but also information regarding the magnetic field direction associated with the coupling region of the antenna (S1, S2, S3, S4, S5) of the transponder is stored and is able to be read out by the reading device, wherein information which does not relate to the position of the transponder is stored, able to be stored and able to be read out in the further transponder, wherein the information comprises instructions for following vehicles.
Optical system for detecting and tracking the eye movements of an individual, comprising: - a frame, intended to be worn on the face of the individual, comprising: • a plurality of illumination sources, - at least one contact lens, intended to be worn by an eye of the individual facing the frame, in which are encapsulated: • an autonomous integrated circuit, incorporating a processor for processing the signals, • a plurality of photoreceptors, suitable for being illuminated individually or not by the sources of the frame, the photoreceptors being electrically connected individually to the integrated circuit, the photoreceptors being arranged in the contact lens such that the processing by the processor of the signals transmitted by the photoreceptors makes it possible to know the relative positions and speeds of rotation of the eye and the blinking of the eyelid of the eye, • a wireless communication transmitter, connected to the processor of the integrated circuit, for transmitting the signals processed by the processor of the integrated circuit and transferred to an external processor. - a frame, intended to be worn on the face of the individual, comprising: • a plurality of illumination sources, • a plurality of illumination sources, - at least one contact lens, intended to be worn by an eye of the individual facing the frame, in which are encapsulated: • an autonomous integrated circuit, incorporating a processor for processing the signals, • a plurality of photoreceptors, suitable for being illuminated individually or not by the sources of the frame, the photoreceptors being electrically connected individually to the integrated circuit, the photoreceptors being arranged in the contact lens such that the processing by the processor of the signals transmitted by the photoreceptors makes it possible to know the relative positions and speeds of rotation of the eye and the blinking of the eyelid of the eye, • a wireless communication transmitter, connected to the processor of the integrated circuit, for transmitting the signals processed by the processor of the integrated circuit and transferred to an external processor. • an autonomous integrated circuit, incorporating a processor for processing the signals, • a plurality of photoreceptors, suitable for being illuminated individually or not by the sources of the frame, the photoreceptors being electrically connected individually to the integrated circuit, the photoreceptors being arranged in the contact lens such that the processing by the processor of the signals transmitted by the photoreceptors makes it possible to know the relative positions and speeds of rotation of the eye and the blinking of the eyelid of the eye, • a wireless communication transmitter, connected to the processor of the integrated circuit, for transmitting the signals processed by the processor of the integrated circuit and transferred to an external processor.
A winding mandrel (10,30) for forming at least a portion of a vasoocclusive coil, comprising: first and second main bodies (22,24;42,44), each of said first and second main bodies (22,24;42,44) having a plurality of cylindrical posts (12,32) disposed on the first and second main bodies (22,24;42,44), the plurality of cylindrical posts disposed on the first main body (16a-16d, 36a-36d) being aligned with orthogonal x and y axes through the first main body (22,42), and the axes of the plurality of cylindrical posts disposed on the second main body (18a-18d; 38a-38d) being disposed orthogonally, in a plane parallel to the plane defined by the axes x and y, through the second main body (24,44); a front cylindrical post (14,34) disposed on one of said first and second main bodies (22,24;42,44); and a back cylindrical post (20,40) disposed on the other of said first and second main bodies (22,24;42,44), the winding mandrel characterized in that: said plurality of cylindrical posts of said first and second main bodies (16a-16d; 36a-36d; 18a-18d; 38a-38d) are angularly offset with respect to each other. first and second main bodies (22,24;42,44), each of said first and second main bodies (22,24;42,44) having a plurality of cylindrical posts (12,32) disposed on the first and second main bodies (22,24;42,44), the plurality of cylindrical posts disposed on the first main body (16a-16d, 36a-36d) being aligned with orthogonal x and y axes through the first main body (22,42), and the axes of the plurality of cylindrical posts disposed on the second main body (18a-18d; 38a-38d) being disposed orthogonally, in a plane parallel to the plane defined by the axes x and y, through the second main body (24,44); a front cylindrical post (14,34) disposed on one of said first and second main bodies (22,24;42,44); and a back cylindrical post (20,40) disposed on the other of said first and second main bodies (22,24;42,44), the winding mandrel characterized in that: said plurality of cylindrical posts of said first and second main bodies (16a-16d; 36a-36d; 18a-18d; 38a-38d) are angularly offset with respect to each other. said plurality of cylindrical posts of said first and second main bodies (16a-16d; 36a-36d; 18a-18d; 38a-38d) are angularly offset with respect to each other.
An electronic inhalation device comprising a mouthpiece and a control unit, the control unit comprising a power cell and a computer, where the computer comprises a computer processor, a memory and an input-output means; wherein the device further comprises a transmitter connected to the computer and the computer is configured in use to collect and store use data relating to a user's use of the device in the computer memory and to transmit the use data, wherein the computer is further configured to automatically clear the use data from the memory after transmission.
A pole for the transmission of electric power and/or telecommunication signals, which pole is hollow at least along a part of its length extension with a cavity enclosed by a layer of reinforced concrete, which pole includes electric power transmission components and/or telecommunication components arranged in said cavity, the electric power transmission components including at least one component selected from the group of components consisting of transformer, energy storage, regulation equipment and inverter/converter, and the telecommunication components consisting of at least one component selected from the group of components consisting of ICT-equipment, transmitter and receiver, characterized in that the pole has a length in the range of 2 to 25 meters and a maximum cross section dimension less than 0,5 m, in that the material of the pole includes the said reinforced concrete with a reinforcement made of non-magnetic material including basalt fibres, and in that the pole comprises an antenna arranged in said cavity.
An AlN substrate having a bonding surface to be bonded to another member, composed of a sintered body of AlN including a group 2A element at a rate of 0.009 mass% or more and 0.28 mass% or less in oxide equivalent and a group 3A element at a rate of 0.02 mass% or more and 4.5 mass% or less in oxide equivalent, a surface roughness Ra of the bonding surface is 15 nm or less, voids being exposed on the bonding surface and having long diameters of 0.25 μm or more, a mean value of the long diameters is 1.5 μm or less, and a maximum value of the long diameters is 1.8 μm or less.
Process for treating a gas containing from 10 ppm by volume to 0.5 volume % of at least one of the compounds COS and CS 2 and from 30 ppm by volume to 5 volume % of unsaturated hydrocarbon compounds, the said process comprising the following stages: a) a hydrogenation of the unsaturated hydrocarbon compounds to paraffins is carried out by contacting the said gas with a hydrogenation catalyst in the presence of hydrogen at a temperature between 100 and 400°C, so as to provide a gaseous effluent depleted in unsaturated hydrocarbon compounds, the hydrogenation catalyst comprising at least one metal selected from palladium, platinum, nickel and cobalt deposited on a porous support, b) a catalytic hydrolysis of COS and/or CS 2 present in the gaseous effluent from stage a) is carried out in the presence of water so as to provide a gaseous effluent rich in H 2 S by contacting the said gaseous effluent from stage a) with a hydrolysis catalyst, the hydrolysis catalyst comprising alumina or titanium oxide. a) a hydrogenation of the unsaturated hydrocarbon compounds to paraffins is carried out by contacting the said gas with a hydrogenation catalyst in the presence of hydrogen at a temperature between 100 and 400°C, so as to provide a gaseous effluent depleted in unsaturated hydrocarbon compounds, the hydrogenation catalyst comprising at least one metal selected from palladium, platinum, nickel and cobalt deposited on a porous support, b) a catalytic hydrolysis of COS and/or CS 2 present in the gaseous effluent from stage a) is carried out in the presence of water so as to provide a gaseous effluent rich in H 2 S by contacting the said gaseous effluent from stage a) with a hydrolysis catalyst, the hydrolysis catalyst comprising alumina or titanium oxide.
A computer-implemented method for minimising thermoacoustic, aeroacoustic, and/or aeroelastic instability states of a combustion process in a gas turbine, wherein the gas turbine has a combustion volume comprising a fluid, comprising the following steps: - generation of a digital image of the combustion volume in the form of a grid by spatially dividing the combustion volume into volume regions and digitally mapping these volume regions by grid cells; - generation of a time series of at least one state variable of the fluid comprised per volume range during a combustion process, by digital simulation of the combustion process and/or measurement of the state variable during the combustion process by at least one sensor; - assignment of the time series to the respective grid cell; - formation of a spatial and/or temporal network by representing each grid cell by a node and connecting pairs of nodes correlated with respect to the time series by a link; - performing a network analysis to determine at least one statistical network measure of the network, - performing a network measure analysis, wherein the network measure analysis is configured for minimising thermoacoustic, aeroacoustic and/or aeroelastic instability states of a combustion process by a controlled disturbance of the combustion process by at least one control element. - generation of a digital image of the combustion volume in the form of a grid by spatially dividing the combustion volume into volume regions and digitally mapping these volume regions by grid cells; - generation of a time series of at least one state variable of the fluid comprised per volume range during a combustion process, by digital simulation of the combustion process and/or measurement of the state variable during the combustion process by at least one sensor; - assignment of the time series to the respective grid cell; - formation of a spatial and/or temporal network by representing each grid cell by a node and connecting pairs of nodes correlated with respect to the time series by a link; - performing a network analysis to determine at least one statistical network measure of the network, - performing a network measure analysis, wherein the network measure analysis is configured for minimising thermoacoustic, aeroacoustic and/or aeroelastic instability states of a combustion process by a controlled disturbance of the combustion process by at least one control element.
A water bottle cap, comprising: at least one port, extending outwardly from a exterior surface of the cap, wherein the port extends a predetermined length and is configured to engage a passage member for providing or receiving a fluid to an endoscopic device, interior threads, configured to engage external threads on a water bottle, and an annular sealing platform, extending outwardly from a interior side wall of the cap, wherein the annular sealing platform comprises a substantial horizontal contact area, configured to provide a water-tight seal to a neck of a water bottle when the cap is engaging the water bottle, characterized in that at least the annular sealing platform, the interior top surface of the cap, an interior side wall of the cap, and inside and outside surfaces of the port are made of a second material softer than other parts of the cap made of a first material. at least one port, extending outwardly from a exterior surface of the cap, wherein the port extends a predetermined length and is configured to engage a passage member for providing or receiving a fluid to an endoscopic device, interior threads, configured to engage external threads on a water bottle, and an annular sealing platform, extending outwardly from a interior side wall of the cap, wherein the annular sealing platform comprises a substantial horizontal contact area, configured to provide a water-tight seal to a neck of a water bottle when the cap is engaging the water bottle, characterized in that at least the annular sealing platform, the interior top surface of the cap, an interior side wall of the cap, and inside and outside surfaces of the port are made of a second material softer than other parts of the cap made of a first material.
A device for alternating between different specific shapes of a coherent light beam generated by a light source, the device comprising a multi-plane conversion device (MPLC) for applying a unitary transformation to a coherent light beam by a succession of elementary transformations of its spatial phase imparted by at least one optical part, the multi-plane conversion device (MPLC) being arranged facing the light source so that the coherent light beam is emitted in the multi-plane conversion device (MPLC) along a reference axis, the device for alternating between different specific shapes comprising automated means which are arranged upstream of the multi-plane conversion device (MPLC) and are able to vary the transverse position and/or the angle of incidence of the beam relative to the reference axis and/or to vary the angle of rotation of the beam about the reference axis; the multi-plane conversion device (MPLC) being configured to transform a variation in the transverse position and/or the angle of incidence and/or the angle of rotation of the coherent light beam into a change in the specific shape of the coherent light beam, characterized in that the optical part has a micro-structured surface.
A polycrystalline diamond body comprising diamond particles, the diamond particles having a mean particle size of 50 nm or less, the diamond particles having a ratio of an X-ray diffraction intensity I in a plane with respect to an X-ray diffraction intensity I in a plane according to X-ray diffraction, expressed as a ratio I /I, of not less than 0.1 and not more than 0.3, and a crack initiation load being 10 N or more as measured in a fracture strength test by pressing a diamond indenter with a tip radius of 50 μm against a surface of the polycrystalline diamond body at a load rate of 100 N/min.
An air treatment unit for reducing the levels of one or more target gas species or particulates produced by fire in contaminated air, the unit comprising: an air inlet to receive a flow of input air for treatment; a reaction reservoir configured to hold an aqueous air treatment solution for reducing the levels or one or more target gas species and/or particulates in the contaminated air; an air dispersing element flow connected with the air inlet, wherein the air dispersing element includes a plurality of holes configured to convert at least a portion of the flow of input air into a plurality of microbubbles for introduction into the aqueous air treatment solution; and an air outlet configured to output treated air from the reaction reservoir characterized in that: the plurality of holes of the air dispersing element have an average diameter of between 0.5 microns and 500 microns, are separated from one another by an average distance that is between two times and 30 times an average diameter of the plurality of holes and are distributed across at least a portion of the air dispersing element with a distribution density of between one and 100 holes per square centimeter. an air inlet to receive a flow of input air for treatment; a reaction reservoir configured to hold an aqueous air treatment solution for reducing the levels or one or more target gas species and/or particulates in the contaminated air; an air dispersing element flow connected with the air inlet, wherein the air dispersing element includes a plurality of holes configured to convert at least a portion of the flow of input air into a plurality of microbubbles for introduction into the aqueous air treatment solution; and an air outlet configured to output treated air from the reaction reservoir characterized in that: the plurality of holes of the air dispersing element have an average diameter of between 0.5 microns and 500 microns, are separated from one another by an average distance that is between two times and 30 times an average diameter of the plurality of holes and are distributed across at least a portion of the air dispersing element with a distribution density of between one and 100 holes per square centimeter.