mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a diamond UV sensor element using a diamond single crystal as a light receiving portion and detecting a light based on the change of electric resistance caused by a light irradiated to the light receiving portion, including: a step of hydrogenating the surface of the diamond single crystal in an atmosphere substantially containing hydrogen, and a step of forming a light receiving portion by exposing the hydrogenated surface of the diamond single crystal into an atmosphere containing ozone or active oxygen, wherein the step is carried out in an atmosphere containing ozone or active oxygen formed by introducing an oxygen gas into a chamber containing a diamond single crystal hydrogenated at the surface and irradiating a UV-light thereto; characterised in that a UV/visible light blind ratio that is a ratio between the value of a photocurrent flowing under the irradiation of a UV light and the value of a photocurrent flowing under the irradiation of a visible light on the surface of diamond single crystal is controlled by controlling the concentration of bonded hydrogen at the surface of the diamond single crystal by controlling a UV light irradiation time. a step of hydrogenating the surface of the diamond single crystal in an atmosphere substantially containing hydrogen, and a step of forming a light receiving portion by exposing the hydrogenated surface of the diamond single crystal into an atmosphere containing ozone or active oxygen,
Epoxy resin composition comprising - a resin component comprising at least one epoxy resin, and - a hardener component comprising at least one amine of the formula, where n is 0 or 1 or 2 or 3, R is a hydrogen radical or is a hydrocarbon radical having 1 to 6 carbon atoms, and X is identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having in each case 1 to 18 carbon atoms, where, if n is 0, the hardener component additionally comprises at least one amine A having at least three amine hydrogens and a molecular weight of at least 200 g/mol which does not correspond to formula. - a resin component comprising at least one epoxy resin, and - a hardener component comprising at least one amine of the formula, where n is 0 or 1 or 2 or 3, R is a hydrogen radical or is a hydrocarbon radical having 1 to 6 carbon atoms, and X is identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having in each case 1 to 18 carbon atoms, where, if n is 0, the hardener component additionally comprises at least one amine A having at least three amine hydrogens and a molecular weight of at least 200 g/mol which does not correspond to formula. n is 0 or 1 or 2 or 3, R is a hydrogen radical or is a hydrocarbon radical having 1 to 6 carbon atoms, and X is identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having in each case 1 to 18 carbon atoms,
A power supply, the power supply supplying power to a load control device, the power supply having a normal mode of operation and a low-power mode of operation in which the power supply has decreased power 5 consumption, the load control device controlling the amount of power delivered from a power source to an electrical load, the load control device having an integrated circuit and a controller, the power supply characterized by: an efficient power supply (282; 582) operable to generate a first DC 10 supply voltage, the first DC supply voltage operable to power the integrated circuit of the load control device, the first DC supply voltage having a normal magnitude in the normal mode of operation; an inefficient power supply (284; 584) operable to receive the first DC supply voltage and to generate a second DC supply voltage, the second DC supply voltage operable to power the controller of the load control device; and a low-power mode adjustment circuit (286; 586) coupled to the efficient power supply, the low-power mode adjustment circuit configured to control the efficient power supply in the low-power mode of operation based on a low-power mode control signal when the electrical load is off, such that the magnitude of the first DC supply voltage decreases to a decreased magnitude that is less than the normal magnitude and greater than the magnitude of the second DC supply voltage, and the inefficient power supply is adapted to continue to generate the second DC supply voltage when the power supply is operating in the low-power mode of operation. an efficient power supply (282; 582) operable to generate a first DC 10 supply voltage, the first DC supply voltage operable to power the integrated circuit of the load control device, the first DC supply voltage having a normal magnitude in the normal mode of operation; an inefficient power supply (284; 584) operable to receive the first DC supply voltage and to generate a second DC supply voltage, the second DC supply voltage operable to power the controller of the load control device; and a low-power mode adjustment circuit (286; 586) coupled to the efficient power supply, the low-power mode adjustment circuit configured to control the efficient power supply in the low-power mode of operation based on a low-power mode control signal when the electrical load is off, such that the magnitude of the first DC supply voltage decreases to a decreased magnitude that is less than the normal magnitude and greater than the magnitude of the second DC supply voltage, and the inefficient power supply is adapted to continue to generate the second DC supply voltage when the power supply is operating in the low-power mode of operation.
Structure for a wind turbine tower comprising an elongated central body extending according to a first direction from ground level to a terminal end, the structure comprising at least three satellite bodies, each of which extends from ground level, separated from the central body, according to a direction parallel to the first direction, up to a height that is less than that of the terminal end of the central body, where said at least three satellite bodies are distributed radially around the central body with respect to the first direction, and where each satellite body is linked with the central body by means of an upper connection running between said central body and an upper end of said satellite body, wherein the cross section of each satellite body is smaller than the cross section of the central body, characterized in that the cross section of the central body decreases from the upper connection area with the upper ends of the satellite bodies both towards the terminal end and towards the ground level.
A stator assembly for a gas turbine engine, comprising: a plurality of stator vanes, each formed from a generally elongated airfoil having a leading edge, a trailing edge, a pressure side, a suction side, an inner endwall coupled to a first end and an outer endwall coupled to a second end opposite the first end, wherein: a first radially outer tie bar is coupled to each outer endwall of a portion of the stator vanes; at least one inner alignment pin is circumferentially extending between adjacent inner endwalls to couple adjacent inner endwalls together; at least one forward inner seal ring is attached to the inner endwall; and at least one deformable seal is coupled to at least one radially inner surface of the forward inner seal ring, wherein the at least one deformable seal includes an upstream facing contact surface and radially inward facing contact surface. a plurality of stator vanes, each formed from a generally elongated airfoil having a leading edge, a trailing edge, a pressure side, a suction side, an inner endwall coupled to a first end and an outer endwall coupled to a second end opposite the first end, wherein: a first radially outer tie bar is coupled to each outer endwall of a portion of the stator vanes; at least one inner alignment pin is circumferentially extending between adjacent inner endwalls to couple adjacent inner endwalls together; at least one forward inner seal ring is attached to the inner endwall; and at least one deformable seal is coupled to at least one radially inner surface of the forward inner seal ring, wherein the at least one deformable seal includes an upstream facing contact surface and radially inward facing contact surface.
Device for shredding material, comprising a baffle chamber with a discharge opening and a rotor shaft having a longitudinal axis and provided in said baffle chamber, where said baffle chamber is rotatable about said longitudinal axis of said rotor shaft from a first operating position (a), in which said material can be shredded, to a second operating position (b), which differs from said first operating position (a) and in which said material or further material can be shredded.
A screen for a head-up display device comprising: a main body layer sandwiched between a first concave optical surface located at an observation side and a second convex optical surface located at a side opposite to the observation side, characterized in that thickness of the main body layer becomes thinner from center toward periphery with regard to a lateral direction which is perpendicular to a reference plane, and variation of the thickness of the main body layer with regard to a vertical direction parallel to the reference plane is different between the central part and the peripheral part with regard to the lateral direction. a main body layer sandwiched between a first concave optical surface located at an observation side and a second convex optical surface located at a side opposite to the observation side, characterized in that thickness of the main body layer becomes thinner from center toward periphery with regard to a lateral direction which is perpendicular to a reference plane, and variation of the thickness of the main body layer with regard to a vertical direction parallel to the reference plane is different between the central part and the peripheral part with regard to the lateral direction.
A method comprising: logging, by a user device in a wireless network, information related to a multiple-event conditional handover execution, wherein the multiple-event conditional handover execution is based on a joint evaluation of multiple events by the user device; and sending, by the user device, a report including at least a portion of the information, wherein the logging comprises at least logging of an occurrence of an event-related condition, a number of occurrences of an event-related condition, or a time or timing of an occurrence of an event-related condition for one or more events of the plurality of events. logging, by a user device in a wireless network, information related to a multiple-event conditional handover execution, wherein the multiple-event conditional handover execution is based on a joint evaluation of multiple events by the user device; and sending, by the user device, a report including at least a portion of the information, wherein the logging comprises at least logging of an occurrence of an event-related condition, a number of occurrences of an event-related condition, or a time or timing of an occurrence of an event-related condition for one or more events of the plurality of events.
An open-circuit detector, comprising: a first current source configured to inject a current at an output of a closed-loop circuit a detector configured to monitor a voltage of the closed-loop circuit; wherein the detector is configured to indicate whether the voltage monitored exceeds a predetermined threshold voltage; a controller configured to regulate the current injected by the first current source; wherein the controller is configured to set an open-circuit flag if the current injected caused the voltage to exceed the predetermined threshold voltage; characterized in that the controller is configured to cause the first current source to inject the current while the closed-loop circuit is operating. a first current source configured to inject a current at an output of a closed-loop circuit a detector configured to monitor a voltage of the closed-loop circuit; wherein the detector is configured to indicate whether the voltage monitored exceeds a predetermined threshold voltage; a controller configured to regulate the current injected by the first current source; wherein the controller is configured to set an open-circuit flag if the current injected caused the voltage to exceed the predetermined threshold voltage; characterized in that the controller is configured to cause the first current source to inject the current while the closed-loop circuit is operating.
Device for monitoring a magnetic brake on rail vehicles, the magnetic brake being connected to a voltage source to be energized, the device comprising switching on and monitoring the brake magnet current, and the monitoring device comprising a determining device and an evaluating device, the determining device continuously monitoring the function of the circuit for energizing the magnetic brake and recording the current and/or voltage profile, characterized in that by using the recorded current and/or voltage profile, the evaluating device determines the placement of the magnetic brake on the rail by detecting two zero crossings of the first derivative of the current and/or voltage profile.
An intravaginal device comprising: a proximal base; a shaft; a tube; a covering; arms that pivot from the proximal base; struts, each of which has a first end coupled to the shaft, which is arranged to slide in the tube, and a second end coupled to one of said arms; and a string coupled to said shaft and arranged for pulling in a proximal direction, said arms having a stowed orientation in which said struts are folded inwards such that the second ends point towards a proximal end of said device, and said arms having a deployed orientation in which said struts point radially outwards and tautly hold said arms in an expanded position in which said arms define a distal open end, and wherein the covering surrounds said arms, and in the expanded position, fluid can flow into said distal open end and be held by said covering. a proximal base; a shaft; a tube; a covering; arms that pivot from the proximal base; struts, each of which has a first end coupled to the shaft, which is arranged to slide in the tube, and a second end coupled to one of said arms; and a string coupled to said shaft and arranged for pulling in a proximal direction, said arms having a stowed orientation in which said struts are folded inwards such that the second ends point towards a proximal end of said device, and said arms having a deployed orientation in which said struts point radially outwards and tautly hold said arms in an expanded position in which said arms define a distal open end, and wherein the covering surrounds said arms, and in the expanded position, fluid can flow into said distal open end and be held by said covering.
A mobile body, - comprising a reflection control layer that is formed on a surface of the mobile body - wherein the reflection control layer includes: - a reflection prevention layer that is configured to reduce surface reflection of light in a wavelength region from 0.3 micrometer to 0.75 micrometer, and - a wavelength control layer - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - comprising a reflection control layer that is formed on a surface of the mobile body - wherein the reflection control layer includes: - a reflection prevention layer that is configured to reduce surface reflection of light in a wavelength region from 0.3 micrometer to 0.75 micrometer, and - a wavelength control layer - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - a reflection prevention layer that is configured to reduce surface reflection of light in a wavelength region from 0.3 micrometer to 0.75 micrometer, and - a wavelength control layer - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers.
A method for detecting lens immersion in optical microscopy, the method comprising: providing an ultrasound circuit acoustically coupled to both an objective lens (104, 504) and a sample slide (108, 508) of an optical microscope (100, 500), the ultrasound circuit comprising an ultrasound transmitter (114, 514) and an ultrasound receiver (115, 515), where the ultrasound circuit is configured to provide a first acoustic path, through a body (102, 502) of the optical microscope, when the objective lens and the sample slide are not both in direct contact with an immersion fluid (110, 510), and a second, shorter, acoustic path through the immersion fluid, when the objective lens and the sample slide are both in direct contact with the immersion fluid; transmitting an ultrasound pulse from the ultrasound transmitter to the ultrasound receiver; determining with a pulse discriminator that a transit time of the ultrasound pulse is less than a threshold time, where the threshold time is selected to determine whether the pulse was transmitted along the first acoustic path or the second acoustic path; and providing an output signal from the pulse discriminator indicating that the transit time of the ultrasound pulse is less than the threshold time in order to indicate that the objective lens and the sample slide are both in direct contact with the immersion fluid. providing an ultrasound circuit acoustically coupled to both an objective lens (104, 504) and a sample slide (108, 508) of an optical microscope (100, 500), the ultrasound circuit comprising an ultrasound transmitter (114, 514) and an ultrasound receiver (115, 515), where the ultrasound circuit is configured to provide a first acoustic path, through a body (102, 502) of the optical microscope, when the objective lens and the sample slide are not both in direct contact with an immersion fluid (110, 510), and a second, shorter, acoustic path through the immersion fluid, when the objective lens and the sample slide are both in direct contact with the immersion fluid; transmitting an ultrasound pulse from the ultrasound transmitter to the ultrasound receiver; determining with a pulse discriminator that a transit time of the ultrasound pulse is less than a threshold time, where the threshold time is selected to determine whether the pulse was transmitted along the first acoustic path or the second acoustic path; and providing an output signal from the pulse discriminator indicating that the transit time of the ultrasound pulse is less than the threshold time in order to indicate that the objective lens and the sample slide are both in direct contact with the immersion fluid.
Device for placing and extracting socks from sock forms comprising a structure; a guide, attached to the structure, whereby a set of sock forms moves; characterized in that it comprises a system comprising a set of cylindrical cones; a set of conveyor belts and a set of suction elements and in that the sock forms can be positioned vertically along the guide and can be conveyed by the guide until they are positionable horizontally by means of a first cam; and in that a pair of the set of said cylindrical cones is positioned in an area corresponding to the centre of the sock heel and are closable against the sock form in order to obtain pressure on the fabric of the sock in that position by a vertical movement; in that each sock form is positionable between a pair of conveyor belts of the set of said conveyor belts and the pair of cones and that action is controlled by a pneumatic cylinder for opening and closing said pair of cones and a pneumatic cylinder for opening and closing the pair of belts respectively. a structure; a guide, attached to the structure, whereby a set of sock forms moves; a set of cylindrical cones; a set of conveyor belts and a set of suction elements and in that the sock forms can be positioned vertically along the guide and can be conveyed by the guide until they are positionable horizontally by means of a first cam; and in that a pair of the set of said cylindrical cones is positioned in an area corresponding to the centre of the sock heel and are closable against the sock form in order to obtain pressure on the fabric of the sock in that position by a vertical movement; in that each sock form is positionable between a pair of conveyor belts of the set of said conveyor belts and the pair of cones and that action is controlled by a pneumatic cylinder for opening and closing said pair of cones and a pneumatic cylinder for opening and closing the pair of belts respectively.
Chip arrangement for an optoelectronic component, comprising at least one semiconductor chip which emits electromagnetic radiation, and comprising a connection arrangement, wherein: - the connection arrangement has planes (3, 4) that are electrically insulated from one another, - at least two electrically insulated conductors (9, 10) are arranged in at least two planes (3, 4), - at least one plane (3, 4) has a cavity, - the semiconductor chip is arranged within the cavity and has at least two connection locations (7, 8), - each of the connection locations (7, 8) is electrically conductively connected to a respective one of the conductors (9, 10) and - at least one of the planes is a heat dissipating plane, - at least one second semiconductor chip is provided within the cavity, - the second semiconductor chip likewise has at least two connection locations (7, 8), - at least two further electrically insulated conductors are arranged in at least two planes (3, 4), - each of the connection locations (7, 8) of the second semiconductor chip is electrically conductively connected to a respective one of the further conductors and - at least one of the planes (3, 4) is configured in electrically insulated fashion. - the connection arrangement has planes (3, 4) that are electrically insulated from one another, - at least two electrically insulated conductors (9, 10) are arranged in at least two planes (3, 4), - at least one plane (3, 4) has a cavity, - the semiconductor chip is arranged within the cavity and has at least two connection locations (7, 8), - each of the connection locations (7, 8) is electrically conductively connected to a respective one of the conductors (9, 10) and - at least one of the planes is a heat dissipating plane, - at least one second semiconductor chip is provided within the cavity, - the second semiconductor chip likewise has at least two connection locations (7, 8), - at least two further electrically insulated conductors are arranged in at least two planes (3, 4), - each of the connection locations (7, 8) of the second semiconductor chip is electrically conductively connected to a respective one of the further conductors and - at least one of the planes (3, 4) is configured in electrically insulated fashion.