mhurhangee/ep-ind-claims huggingface dataset:
A light source device comprising: a sapphire plate having a first surface and a second surface which oppose each other; a wavelength conversion material located opposite to the first surface of the sapphire plate; and a first excitation light source which emits first excitation light having directivity to the wavelength conversion material through the second surface, characterized in that an angle between the first surface and the second surface, and a c-axis of sapphire is larger than 89° and smaller than 91°, and an angle between the c-axis and an optical axis of the first excitation light is 1° or larger. a sapphire plate having a first surface and a second surface which oppose each other; a wavelength conversion material located opposite to the first surface of the sapphire plate; and a first excitation light source which emits first excitation light having directivity to the wavelength conversion material through the second surface, characterized in that an angle between the first surface and the second surface, and a c-axis of sapphire is larger than 89° and smaller than 91°, and an angle between the c-axis and an optical axis of the first excitation light is 1° or larger.
A mounting system for mounting an element to a surface comprising a mounting post having a base configured for mounting to a surface, the mounting post being threaded on an outer surface thereof, and a mounting plate (270, 300) configured for being secured to the element to be mounted, characterized in that the mounting plate (270, 300) has a center opening (272, 302) for receiving the mounting post, the mounting post extending through the center opening (272, 302) of the mounting plate (270, 300) and the mounting plate (270, 300) being freely movable along the mounting post, and in that the system further comprises an adjustment plate including a threaded opening to receive the mounting post, the adjustment plate located above the mounting plate (270, 300) and configured to rotate on the threaded mounting post for adjusting the position of the adjustment plate along the mounting post, and the adjustment plate configured for being fixed to the mounting plate (270, 300) to secure the mounting plate (270, 300) at a selected position along the mounting post for adjusting the distance between the surface and an element to be mounted.
Control device for cooking food in a cooking container with a lid, wherein temperature and especially boiling point in the cooking container are directly determined with the help of at least one temperature sensor, comprising an handle adapted to be installed over an opening on the lid and having a buil-in temperature sensor, characterized In that the handle has a special steam channel, which is in the handle and directs steam from the container to the temperature sensor and back onto the lid, such that the steam does not heat the handle.
Process for making a coated oxide material, said process comprising the following steps: (a) providing a particulate material selected from lithiated nickel-cobalt aluminum oxides and lithiated layered nickel-cobalt-manganese oxides with a nickel content in the range of from 10 to 95 mole-% nickel, percentages referring to the metals other than lithium in such particulate material, (b) optionally, treating said particulate material with an aqueous medium, followed by removing said aqueous medium, (c) treating said particulate material from step (a) or (b) with a metal amide or alkyl metal compound dissolved or slurried in an organic solvent, (d) removal of organic solvent employed in step (c). (a) providing a particulate material selected from lithiated nickel-cobalt aluminum oxides and lithiated layered nickel-cobalt-manganese oxides with a nickel content in the range of from 10 to 95 mole-% nickel, percentages referring to the metals other than lithium in such particulate material, (b) optionally, treating said particulate material with an aqueous medium, followed by removing said aqueous medium, (c) treating said particulate material from step (a) or (b) with a metal amide or alkyl metal compound dissolved or slurried in an organic solvent, (d) removal of organic solvent employed in step (c).
Inhaler for powdery, in particular medical, substances, with: - a mouthpiece, and a suction air channel leading to the mouthpiece; - a storage chamber for the substance; - a linearly movable dosing chamber for apportioning a defined amount of substance from the storage chamber into the area of a transfer point to the suction air stream, wherein a component of the suction air stream lying in the direction of extent of the dosing chamber empties the dosing chamber; - a cup-shaped rotary part which, with its cup base, forms the top of the storage chamber; and - a closure cap which is designed as a screw cap and interacts with the mouthpiece via co-rotating means (45/46), wherein - the dosing chamber is assigned an air passage which adjoins the suction air channel and which is formed in a cup wall of the rotary part, - the mouthpiece and the rotary part are configured such that the rotary part is also entrained in the rotation of the mouthpiece, - the rotary part has a rotor acting in the upper area of the storage chamber, and - the rotor is assigned a stator (St), with a scooping effect acting so as to carry substance into the dosing chamber when the rotary part is reversed in its rotation. - a mouthpiece, and a suction air channel leading to the mouthpiece; - a storage chamber for the substance; - a linearly movable dosing chamber for apportioning a defined amount of substance from the storage chamber into the area of a transfer point to the suction air stream, wherein a component of the suction air stream lying in the direction of extent of the dosing chamber empties the dosing chamber; - a cup-shaped rotary part which, with its cup base, forms the top of the storage chamber; and - a closure cap which is designed as a screw cap and interacts with the mouthpiece via co-rotating means (45/46), wherein - the dosing chamber is assigned an air passage which adjoins the suction air channel and which is formed in a cup wall of the rotary part, - the mouthpiece and the rotary part are configured such that the rotary part is also entrained in the rotation of the mouthpiece, - the rotary part has a rotor acting in the upper area of the storage chamber, and - the rotor is assigned a stator (St), with a scooping effect acting so as to carry substance into the dosing chamber when the rotary part is reversed in its rotation.
A method comprising: forming a first wafer comprising a first substrate of a group IV semiconductor, and a group III-V semiconductor device structure formed by selective area epitaxial growth on a surface portion of a front side of the first substrate, forming a second wafer comprising a second substrate of a group IV semiconductor, and a group IV semiconductor device structure formed on a front side of the second substrate, and bonding the first wafer to the second wafer with the front side of the first substrate facing the front side of the second wafer, wherein forming the first wafer comprises: forming an insulating layer on the front side of the first substrate, the surface portion of the first substrate being exposed by a trench in the insulating layer, and thereafter epitaxially growing the group III-V semiconductor device structure on the surface portion exposed by the trench, and wherein forming the group III-V semiconductor device structure comprises growing a lower narrow portion in the trench and an upper wider portion protruding above the trench. forming a first wafer comprising a first substrate of a group IV semiconductor, and a group III-V semiconductor device structure formed by selective area epitaxial growth on a surface portion of a front side of the first substrate, forming a second wafer comprising a second substrate of a group IV semiconductor, and a group IV semiconductor device structure formed on a front side of the second substrate, and bonding the first wafer to the second wafer with the front side of the first substrate facing the front side of the second wafer, wherein forming the first wafer comprises: forming an insulating layer on the front side of the first substrate, the surface portion of the first substrate being exposed by a trench in the insulating layer, and thereafter epitaxially growing the group III-V semiconductor device structure on the surface portion exposed by the trench, and wherein forming the group III-V semiconductor device structure comprises growing a lower narrow portion in the trench and an upper wider portion protruding above the trench. forming an insulating layer on the front side of the first substrate, the surface portion of the first substrate being exposed by a trench in the insulating layer, and thereafter epitaxially growing the group III-V semiconductor device structure on the surface portion exposed by the trench, and wherein forming the group III-V semiconductor device structure comprises growing a lower narrow portion in the trench and an upper wider portion protruding above the trench.
A conductive material dispersion comprising a carbon-based conductive material; a dispersant; and a dispersion medium; wherein the dispersant includes a main dispersant and an auxiliary dispersant, wherein the main dispersant is a nitrile-based copolymer including an α,β-unsaturated nitrile-derived unit and a conjugated diene-derived unit; and the auxiliary dispersant is a copolymer including an oxyalkylene unit and at least one of a styrene unit and an alkylene unit. a carbon-based conductive material; a dispersant; and a dispersion medium; wherein the dispersant includes a main dispersant and an auxiliary dispersant, wherein the main dispersant is a nitrile-based copolymer including an α,β-unsaturated nitrile-derived unit and a conjugated diene-derived unit; and the auxiliary dispersant is a copolymer including an oxyalkylene unit and at least one of a styrene unit and an alkylene unit. the main dispersant is a nitrile-based copolymer including an α,β-unsaturated nitrile-derived unit and a conjugated diene-derived unit; and the auxiliary dispersant is a copolymer including an oxyalkylene unit and at least one of a styrene unit and an alkylene unit.
Method for catalytic spontaneous decomposition of hydrogen peroxide through the use of a solid catalyst, characterised in that the solid catalyst was produced through the use of at least one platinum precursor that can be decomposed exothermically, whereby the at least one platinum precursor that can be decomposed exothermically is selected from the group consisting of platinum oxalate complexes and platinum ethanolamine.
A level measuring device, configured to monitor the surface topology of a bulk material or liquid, comprising: a sensor unit configured to scan a first area of the surface of the bulk material and a second area of the surface of the bulk material; and characterized in that it comprises the following: an evaluation unit configured to calculate a first volume and/or a first mass and/or a first average filling height of the bulk material located below the first area of the surface of the bulk material, and a second volume and/or a second mass and/or a second average filling height of the bulk material located below the second area of the surface of the bulk material; a communication unit, configured to transmit the calculated volumes or fill levels to an external control and evaluation unit. an evaluation unit configured to calculate a first volume and/or a first mass and/or a first average filling height of the bulk material located below the first area of the surface of the bulk material, and a second volume and/or a second mass and/or a second average filling height of the bulk material located below the second area of the surface of the bulk material; a communication unit, configured to transmit the calculated volumes or fill levels to an external control and evaluation unit.
A process for producing a printed material, comprising the following steps 1 and 2: Step 1: subjecting an image-bearing surface of a printed recording medium 1' on which characters or images are formed by analog printing to discharge treatment under the following conditions to obtain a printed recording medium 1, Discharge treatment conditions: Discharge treatment quantity in terms of an integrated irradiation quantity of electric energy: not less than 0.5 kW · min/m 2 and not more than 5.5 kW • min/m 2, and Discharge treatment rate in terms of a transportation speed of the printed recording medium: not less than 1 m/min and not more than 100 m/min; and Step 2: further forming characters or images on the image-bearing surface of the printed recording medium 1 obtained in the step 1 by ink-jet printing using a water-based ink to obtain the printed material. Discharge treatment quantity in terms of an integrated irradiation quantity of electric energy: not less than 0.5 kW · min/m 2 and not more than 5.5 kW • min/m 2, and Discharge treatment rate in terms of a transportation speed of the printed recording medium: not less than 1 m/min and not more than 100 m/min; and Step 2: further forming characters or images on the image-bearing surface of the printed recording medium 1 obtained in the step 1 by ink-jet printing using a water-based ink to obtain the printed material.
An ion detector comprising: a first microchannel plate device; a second microchannel plate device; and at least a first collection anode having a first active electron detecting area or size and a second separate collection anode having a second, different, active electron detecting area or size arranged downstream of said second microchannel plate device; wherein the separation between said first microchannel plate device and said second microchannel plate device is ≤ 50μm; characterised in that a mask or shield is provided intermediate between said first microchannel plate device and second microchannel plate device. a first microchannel plate device; a second microchannel plate device; and at least a first collection anode having a first active electron detecting area or size and a second separate collection anode having a second, different, active electron detecting area or size arranged downstream of said second microchannel plate device; wherein the separation between said first microchannel plate device and said second microchannel plate device is ≤ 50μm; characterised in that a mask or shield is provided intermediate between said first microchannel plate device and second microchannel plate device.
A control device for a clock movement, comprising: - a crown tube mounted on a middle part, - a control crown mounted so as to be movable in rotation on the crown tube using mounting means (5, 7, 8), - a control stem mounted so as to be movable in rotation through the crown tube, with said stem cinematically linking the control crown with the movement, and - adjustment means for automatically adjusting the length of the sub-assembly consisting of the control crown and the control stem, with the adjusting means comprising: - a housing provided in the control crown, wherein an axial portion of the crown tube is engaged, - an end portion of the control stem, of the cylindrical portion type, movable in translation in the crown tube, - and a spring positioned in the housing between the end portion and a support located within said housing so as to axially constrain the control stem towards the movement, characterized in that the mounting means (5, 7, 8) is adapted to rigidly hold the control crown in a unique axial position relative to the crown tube. - a crown tube mounted on a middle part, - a control crown mounted so as to be movable in rotation on the crown tube using mounting means (5, 7, 8), - a control stem mounted so as to be movable in rotation through the crown tube, with said stem cinematically linking the control crown with the movement, and - adjustment means for automatically adjusting the length of the sub-assembly consisting of the control crown and the control stem, - a housing provided in the control crown, wherein an axial portion of the crown tube is engaged, - an end portion of the control stem, of the cylindrical portion type, movable in translation in the crown tube, - and a spring positioned in the housing between the end portion and a support located within said housing so as to axially constrain the control stem towards the movement, characterized in that the mounting means (5, 7, 8) is adapted to rigidly hold the control crown in a unique axial position relative to the crown tube.
A process for producing calcium sulfate β-hemihydrate, comprising the steps of: - placing defined quantities of gypsum and optionally water into a stationary pressure-resistant gypsum kettle to form a material column of fluidized gypsum; - supplying energy until the gypsum temperature is higher than 110 °C and a subsequent conversion of gypsum to calcium sulfate β-hemihydrate has been effected; - drying said calcium sulfate β-hemihydrate; wherein a maximum overpressure within a range of from 100 to 5000 hPa is maintained during the conversion. - placing defined quantities of gypsum and optionally water into a stationary pressure-resistant gypsum kettle to form a material column of fluidized gypsum; - supplying energy until the gypsum temperature is higher than 110 °C and a subsequent conversion of gypsum to calcium sulfate β-hemihydrate has been effected; - drying said calcium sulfate β-hemihydrate;
Device for a vehicle seat with a rotating unit and a sliding unit, wherein the rotating unit can be adjusted into various rotational positions, wherein the sliding unit can be adjusted into various sliding positions, wherein the device has a locking mechanism, so that the adjustability of a rotational range of the rotating unit is dependent on a sliding position of the sliding unit, characterised in that the locking mechanism has a locking element, wherein the locking element is displaceable and/or pivotable perpendicular to a rotational axis D of the rotating unit.
A vehicular glass antenna comprising an antenna element, wherein the antenna element is constituted by a positive pole side conductor section and a negative pole side conductor section; a part of the positive pole side conductor section and a part of the negative pole side conductor section are separated from each other and overlapped on each other with an overlap gap g in a vertical direction with respect to a glass surface, when mounted at the glass surface, to constitute an overlap part, wherein the positive pole side conductor section includes a positive pole side feeding section and a positive pole side element; the negative pole side conductor section includes a negative pole side feeding section, the antenna element further includes a feeding terminal for connecting a coaxial cable to a receiver, characterized in that the feeding terminal comprises a positive pole purpose metal fitting and a negative pole purpose metal fitting, wherein the positive pole side conductor section includes the positive pole purpose metal fitting of the feeding terminal and the negative pole side conductor section further includes the negative pole purpose metal fitting of the feeding terminal, wherein the positive pole purpose metal fitting is separated from the negative pole side feeding section, or the negative pole purpose metal fitting is separated from the positive pole side feeding section, with an overlap gap g to form an overlap part between the positive pole side conductor section and the negative pole side conductor section.
A control method for an image forming apparatus, the method comprising: applying a current detection bias to a developer roller blade of a developer cartridge; detecting the magnitude of current flowing through the developer roller blade when the current detection bias is applied to the developer roller blade; and variably controlling a developer cartridge bias to be applied to the developer cartridge for image formation based on the detected magnitude of current of the developer roller blade, so as to allow a target magnitude of constant current to flow through the developer roller blade during image formation; characterized in that the magnitude of current flowing through the developer roller blade is detected while the current detection bias is applied to the developer roller blade for a preset time; the current detection is performed at a plurality of trigger times to acquire a plurality of current values, and the average of the plurality of current values is utilized as a representative value of the magnitude of current of the developer roller blade, and the magnitude of current detection bias is determined with reference to a previously stored current detection bias table that defines a relationship between a Pulse Width Modulation index which represents a current detection bias level, an Analog-to-Digital Conversion index which provides a representative current value corresponding to the current detection bias level, and a determination index. applying a current detection bias to a developer roller blade of a developer cartridge; detecting the magnitude of current flowing through the developer roller blade when the current detection bias is applied to the developer roller blade; and variably controlling a developer cartridge bias to be applied to the developer cartridge for image formation based on the detected magnitude of current of the developer roller blade, so as to allow a target magnitude of constant current to flow through the developer roller blade during image formation; characterized in that the magnitude of current flowing through the developer roller blade is detected while the current detection bias is applied to the developer roller blade for a preset time; the current detection is performed at a plurality of trigger times to acquire a plurality of current values, and the average of the plurality of current values is utilized as a representative value of the magnitude of current of the developer roller blade, and the magnitude of current detection bias is determined with reference to a previously stored current detection bias table that defines a relationship between a Pulse Width Modulation index which represents a current detection bias level, an Analog-to-Digital Conversion index which provides a representative current value corresponding to the current detection bias level, and a determination index.
A method of coordinating the downlink transmissions from a plurality of base stations to at least one mobile unit, the method being implemented in a control plane entity and comprising: receiving, at the control plane entity and from each of the plurality of base stations, channel state information for a plurality of wireless communication channels between the plurality of base stations and said at least one mobile unit; determining, at the control plane entity and based on the channel state information, transmission formats for downlink transmissions from the plurality of base stations to said at least one mobile unit; the method further characterised by the step of: providing the transmission formats to the plurality of base stations so that downlink transmissions from the plurality of base stations combine coherently at said at least one mobile unit when said transmission formats are used. receiving, at the control plane entity and from each of the plurality of base stations, channel state information for a plurality of wireless communication channels between the plurality of base stations and said at least one mobile unit; determining, at the control plane entity and based on the channel state information, transmission formats for downlink transmissions from the plurality of base stations to said at least one mobile unit; the method further characterised by the step of: providing the transmission formats to the plurality of base stations so that downlink transmissions from the plurality of base stations combine coherently at said at least one mobile unit when said transmission formats are used. providing the transmission formats to the plurality of base stations so that downlink transmissions from the plurality of base stations combine coherently at said at least one mobile unit when said transmission formats are used.