mhurhangee/ep-ind-claims huggingface dataset:
Induction cooking hob with a sensor apparatus with a first sensor (11, 14, 16) which is embodied for detecting measured values to determine a temperature of a cooking zone (21 to 24), on which a cooking container for accommodating a cooking item can be placed, and an IR sensor (12, 16) which is embodied for the detection of heat radiation of the cooking zone (21 to 24) and a bottom of the cooking container, and an evaluation unit which is electrically connected to the first sensor (11, 14, 16) and the IR sensor (12, 16) and with which the temperature of the bottom can be ascertained as a function of the information transmitted by the sensors (11, 12, 14, 16), characterised in that the two sensors (11, 12, 14, 16) are disposed such that their local detection regions (12a, 14a, 16a) are disposed so as to overlap at least in regions, in particular so as to essentially overlap completely, wherein the first sensor (11, 14, 16) is an NTC thermistor or a PTC thermistor or the first sensor is an IR sensor (11, 14, 16) and the two IR sensors are embodied as (11, 14, 16, 12) 2-channel pyrometers.
Power generation system comprising control means configured to manage a plurality of converters of a wind turbine, each of the plurality of converters further comprising first power electronics between a generator and a capacitor and second power electronics between the capacitor and an electric grid, characterized in that said control means are configured to switch the plurality of converters between at least: - a first standby state with no reactive power injection to the electric grid; - a second running state wherein reactive power injection into the electric grid is regulated by a commutation of the first power electronics and the second power electronics; - and a third state wherein reactive power injection into the electric grid is regulated by the commutation of the second power electronics; and characterized in that said control means are configured to switch at least a converter of the plurality of converters from the first standby state to the third state when a required reactive power is higher than a reactive power capability of converters on the second running state and the third state. - a first standby state with no reactive power injection to the electric grid; - a second running state wherein reactive power injection into the electric grid is regulated by a commutation of the first power electronics and the second power electronics; - and a third state wherein reactive power injection into the electric grid is regulated by the commutation of the second power electronics;
Oral dosage form comprising a granular phase and a non-granular phase, wherein said granular phase is comprised of magnesium oxide, a carbonate or bicarbonate salt and a hydrophilic polymer, wherein magnesium oxide is comprised in the granular phase, and wherein magnesium oxide is comprised in an amount of 10 to 50 wt.%, relative to the total weight of the dosage form, characterized in that an edible acid is included in the non-granular phase of the composition.
An x-ray inspection system comprising: a cabinet, the cabinet containing a sample support for supporting a semiconductor wafer to be inspected, an x-ray source configured to direct x-rays at the semiconductor wafer on the sample support and an x-ray detector for detecting x-rays that have passed through the semiconductor wafer to provide a two-dimensional image of the semiconductor wafer or a region of the semiconductor wafer; and a fan filter unit comprising: an air mover configured to force air into the cabinet through an air inlet in the cabinet above the sample support, a high performance air filter located above the sample support; and a baffle plate coupled to the air mover; wherein the baffle plate is an x-ray shield arranged to prevent the escape of x-rays from the cabinet through the air mover; and wherein the air mover and cabinet are configured to force air through the cabinet from the air inlet past the sample support to an air outlet in the cabinet below the sample support, wherein the air outlet comprises a shielding plate and a labyrinthine airflow path past the shielding plate to prevent the escape of x-rays through the air outlet, and wherein the x-ray source is located above the sample support and is fixed relative to the cabinet. a cabinet, the cabinet containing a sample support for supporting a semiconductor wafer to be inspected, an x-ray source configured to direct x-rays at the semiconductor wafer on the sample support and an x-ray detector for detecting x-rays that have passed through the semiconductor wafer to provide a two-dimensional image of the semiconductor wafer or a region of the semiconductor wafer; and a fan filter unit comprising: an air mover configured to force air into the cabinet through an air inlet in the cabinet above the sample support, a high performance air filter located above the sample support; and a baffle plate coupled to the air mover; an air mover configured to force air into the cabinet through an air inlet in the cabinet above the sample support, a high performance air filter located above the sample support; and a baffle plate coupled to the air mover; wherein the baffle plate is an x-ray shield arranged to prevent the escape of x-rays from the cabinet through the air mover; and wherein the air mover and cabinet are configured to force air through the cabinet from the air inlet past the sample support to an air outlet in the cabinet below the sample support, wherein the air outlet comprises a shielding plate and a labyrinthine airflow path past the shielding plate to prevent the escape of x-rays through the air outlet, and wherein the x-ray source is located above the sample support and is fixed relative to the cabinet.
Actuating device for a sanitary fitting for the purpose of activating a function, wherein the actuating device comprises a housing having a front side and a rear side and also a detection sensor having a transmitter and a receiver for detecting a user, wherein the detection sensor emits electromagnetic waves via the transmitter and receives them via the receiver, wherein the detection sensor is arranged in a cavity of the housing, wherein the cavity has a radiating region, which is transparent to said waves, in the direction of said electromagnetic waves, and wherein the housing has a lateral face, which extends in the direction of the surface normal of the front side at least partially between front side and rear side, wherein the radiating region is arranged in the region of the lateral face or in the lateral face, respectively, characterized in that the housing is formed in such a way that it is installable with a gap in relation to a predefined installation plane on the structure side, which gap is located in relation to said radiating region in such a way that the emitted waves and also the waves to be received are guided through the gap.
A cell culture article comprising: a frame having a plurality of chambers, the chambers comprising: a side wall; a top aperture; and a bottom surface adjacent to the sidewall comprising at least one concave round-bottomed surface comprising a low-adhesion or no-adhesion coating on the at least one concave round-bottomed surface, characterized in that the side wall is opaque; and in that the bottom surface is a gas-permeable, liquid impermeable transparent bottom surface. a side wall; a top aperture; and a bottom surface adjacent to the sidewall comprising at least one concave round-bottomed surface comprising a low-adhesion or no-adhesion coating on the at least one concave round-bottomed surface, characterized in that the side wall is opaque; and in that the bottom surface is a gas-permeable, liquid impermeable transparent bottom surface.
A fiber laser device comprising: a pumping light source configured to output pumping light having a wavelength λ; and a rare earth-doped fiber to which the pumping light is input and which has a core (41, 51, 61) doped with a rare earth element that absorbs the pumping light characterized in that when an intensity change rate of the pumping light output from the pumping light source with respect to a temperature is denoted by ΔP, given in dB/°C, a wavelength change rate of the pumping light output from the pumping light source with respect to the temperature is denoted by Δλp, given in nm/°C, a pumping light absorption change rate of the pumping light in the rare earth-doped fiber per unit wavelength change at the wavelength of λ, given in nm, when the wavelength of the pumping light changes is denoted by A' (λ), given in dB/nm, and a pumping light absorption change amount of the rare earth-doped fiber per unit temperature change at the wavelength of λ, given in nm, when the temperature of the rare earth-doped fiber changes is denoted by ΔA(λ), given in dB/°C, the wavelength λ of the pumping light is such a wavelength λ that ΔP, Δλp×A'(λ) and ΔA(λ) compensate with each other. a pumping light source configured to output pumping light having a wavelength λ; and a rare earth-doped fiber to which the pumping light is input and which has a core (41, 51, 61) doped with a rare earth element that absorbs the pumping light characterized in that when an intensity change rate of the pumping light output from the pumping light source with respect to a temperature is denoted by ΔP, given in dB/°C, a wavelength change rate of the pumping light output from the pumping light source with respect to the temperature is denoted by Δλp, given in nm/°C, a pumping light absorption change rate of the pumping light in the rare earth-doped fiber per unit wavelength change at the wavelength of λ, given in nm, when the wavelength of the pumping light changes is denoted by A' (λ), given in dB/nm, and a pumping light absorption change amount of the rare earth-doped fiber per unit temperature change at the wavelength of λ, given in nm, when the temperature of the rare earth-doped fiber changes is denoted by ΔA(λ), given in dB/°C, the wavelength λ of the pumping light is such a wavelength λ that ΔP, Δλp×A'(λ) and ΔA(λ) compensate with each other.
A device for automatic injection of a product into an injection site, the device having a longitudinal axis and comprising: a housing capable of receiving a container movable relative to the housing between an initial position, in which a tip of a needle provided on the container does not extend beyond a distal end of the housing, to an insertion position, distally spaced relative to the initial position and in which the tip of the needle extends beyond the distal end of the housing; a needle shield for receiving the needle and in which the needle is embedded prior to use of the device; a deshielder coupled to the needle shield by first connecting means and removably assembled to the distal part of the housing by second connecting means (44, 45a, 45b, 57), the deshielder being intended to be removed from the housing, thereby also removing the needle shield, prior to use of the device; the first and second connecting means being designed so that a rotational movement of the deshielder about the device axis with respect to the housing causes an axial displacement of the needle shield in the distal direction with substantially no rotational movement of the needle shield with respect to the needle, characterized in that: the second connecting means (44, 57) are designed to allow a rotational movement of the deshielder about the axis with no possible simultaneous axial translation of the deshielder. a housing capable of receiving a container movable relative to the housing between an initial position, in which a tip of a needle provided on the container does not extend beyond a distal end of the housing, to an insertion position, distally spaced relative to the initial position and in which the tip of the needle extends beyond the distal end of the housing; a needle shield for receiving the needle and in which the needle is embedded prior to use of the device; a deshielder coupled to the needle shield by first connecting means and removably assembled to the distal part of the housing by second connecting means (44, 45a, 45b, 57), the deshielder being intended to be removed from the housing, thereby also removing the needle shield, prior to use of the device; the first and second connecting means being designed so that a rotational movement of the deshielder about the device axis with respect to the housing causes an axial displacement of the needle shield in the distal direction with substantially no rotational movement of the needle shield with respect to the needle, characterized in that: the second connecting means (44, 57) are designed to allow a rotational movement of the deshielder about the axis with no possible simultaneous axial translation of the deshielder.
A process for manufacturing polyethylene-silane copolymer conducted in a plant comprising at least one compressor unit and at least one reactor being downstream of the compressor unit the process comprising the steps of a) Feeding a first feed stream comprising ethylene into the at least one compressor unit and subsequently to the at least one reactor, and b1) Feeding a second feed stream comprising at least one silane comonomer to the first feed stream only after the first feed stream comprising ethylene leaves the compressor unit and feeding the combined feed stream comprising ethylene and the at least one silane comonomer to the at least one reactor as front feed and/or b2) Feeding another second feed stream comprising at least one silane comonomer to the at least one reactor at at least one location along the reactor. a) Feeding a first feed stream comprising ethylene into the at least one compressor unit and subsequently to the at least one reactor, and b1) Feeding a second feed stream comprising at least one silane comonomer to the first feed stream only after the first feed stream comprising ethylene leaves the compressor unit and feeding the combined feed stream comprising ethylene and the at least one silane comonomer to the at least one reactor as front feed and/or b2) Feeding another second feed stream comprising at least one silane comonomer to the at least one reactor at at least one location along the reactor.
A separator for a lithium secondary battery, comprising a porous substrate, and a coating layer on at least one surface of the porous substrate, wherein the coating layer comprises a binder including a (meth)acrylic copolymer including a first structural unit derived from (meth)acrylamide which includes an amide functional group (-NH 2), and a second structural unit including at least one of a structural unit derived from (meth)acrylic acid or (meth)acrylate which includes a carboxyl functional group (-C(=O)O-), and a structural unit derived from (meth)acrylamidosulfonic acid or a salt thereof; first inorganic particles; and second inorganic particles, wherein the first inorganic particles have an average particle diameter of 400 to 600 nm, determined as described in the description and Figure 3, the average particle diameter of the second inorganic particles is smaller than the average particle diameter of the first inorganic particles and the first inorganic particles and the second inorganic particles are included in a weight ratio of 90:10 to 30:70. a porous substrate, and a coating layer on at least one surface of the porous substrate, wherein the coating layer comprises a binder including a (meth)acrylic copolymer including a first structural unit derived from (meth)acrylamide which includes an amide functional group (-NH 2), and a second structural unit including at least one of a structural unit derived from (meth)acrylic acid or (meth)acrylate which includes a carboxyl functional group (-C(=O)O-), and a structural unit derived from (meth)acrylamidosulfonic acid or a salt thereof; first inorganic particles; and second inorganic particles, wherein the first inorganic particles have an average particle diameter of 400 to 600 nm, determined as described in the description and Figure 3, the average particle diameter of the second inorganic particles is smaller than the average particle diameter of the first inorganic particles and the first inorganic particles and the second inorganic particles are included in a weight ratio of 90:10 to 30:70.
An aerosol generation device, comprising: - an aerosol generation chamber configured to receive and heat a substrate to generate aerosol, - a cover having a closed position covering the aerosol generation chamber, and an open position exposing the aerosol generation chamber, and - an ejection mechanism configured to be at least indirectly connected with the aerosol generation chamber and the cover, and having an ejected state, a holding-locked state, and a holding-unlocked state; wherein - in the ejected state, the cover is in the open position, and the ejection mechanism is configured to receive the substrate or make the received substrate at least partially protrude out of the aerosol generation chamber, and the ejection mechanism can be translated into the holding-locked state, - in the holding-locked state, the cover is in the open position, and the ejection mechanism is configured to hold the substrate in a predetermined position where the substrate is fully inserted in the aerosol generation chamber, and the ejection mechanism can be translated into the holding-unlocked state by moving the cover from the open position to the closed position, and - in the holding-unlocked state, the cover is in the closed position, and the ejection mechanism is configured to exert an ejection force on the substrate, which is held in the predetermined position by the cover, and the ejection mechanism can be translated into the ejected state by moving the cover from the closed position to the open position. - an aerosol generation chamber configured to receive and heat a substrate to generate aerosol, - a cover having a closed position covering the aerosol generation chamber, and an open position exposing the aerosol generation chamber, and - an ejection mechanism configured to be at least indirectly connected with the aerosol generation chamber and the cover, and having an ejected state, a holding-locked state, and a holding-unlocked state; - in the ejected state, the cover is in the open position, and the ejection mechanism is configured to receive the substrate or make the received substrate at least partially protrude out of the aerosol generation chamber, and the ejection mechanism can be translated into the holding-locked state, - in the holding-locked state, the cover is in the open position, and the ejection mechanism is configured to hold the substrate in a predetermined position where the substrate is fully inserted in the aerosol generation chamber, and the ejection mechanism can be translated into the holding-unlocked state by moving the cover from the open position to the closed position, and - in the holding-unlocked state, the cover is in the closed position, and the ejection mechanism is configured to exert an ejection force on the substrate, which is held in the predetermined position by the cover, and the ejection mechanism can be translated into the ejected state by moving the cover from the closed position to the open position.
A data of interest exchange architecture comprising a plurality of resource constrained connected objects (12-1,..., 12-3) and a security system for these connected objects (12-1,..., 12-3) during a complete life cycle of these objects consisting of a manufacturing phase, a deployment phase, an operating phase and a dismantling phase; each connected object (12-1,..., 12-3) comprising: - an access control microcontroller capable of providing a unique physical identifier of the connected object (12-1,..., 12-3); - a memory capable of storing software resources; - a processor adapted to generate data of interest using at least some of the software resources stored in the memory, the processor defining disabling means; - a communication module capable of communicating data of interest generated by the processor in encrypted form using at least one encryption key; the detection module being able to: - check the access control microcontroller and the integrity of the memory of each object (12-1,..., 12-3), during the manufacturing phase of this object (12-1,..., 12-3); - discover, identify and record each new object (12-1,..., 12-3) connected using the unique physical identifier of that object (12-1,..., 12-3), during the deployment phase of that object (12-1,..., 12-3); - update software resources stored in the memory of each connected object (12-1,..., 12-3), during the operation phase of this object (12-1,..., 12-3); - actuate the deactivation means of each connected object (12-1,..., 12-3) to deactivate the operation of this connected object (12-1,..., 12-3), during the dismantling phase of this object (12-1,..., 12-3). - an access control microcontroller capable of providing a unique physical identifier of the connected object (12-1,..., 12-3); - a memory capable of storing software resources; - a processor adapted to generate data of interest using at least some of the software resources stored in the memory, the processor defining disabling means; - a communication module capable of communicating data of interest generated by the processor in encrypted form using at least one encryption key; - check the access control microcontroller and the integrity of the memory of each object (12-1,..., 12-3), during the manufacturing phase of this object (12-1,..., 12-3); - discover, identify and record each new object (12-1,..., 12-3) connected using the unique physical identifier of that object (12-1,..., 12-3), during the deployment phase of that object (12-1,..., 12-3); - update software resources stored in the memory of each connected object (12-1,..., 12-3), during the operation phase of this object (12-1,..., 12-3); - actuate the deactivation means of each connected object (12-1,..., 12-3) to deactivate the operation of this connected object (12-1,..., 12-3), during the dismantling phase of this object (12-1,..., 12-3).