mhurhangee/patent-ind-claim-en huggingface dataset:
Dry batch for the production of a coarse ceramic, refractory, shaped, fired or unfired magnesia spinel product, in particular for a working casing or a backing of a large-volume industrial furnace, preferably a cement kiln, a lime shaft or lime rotary kiln, a magnesite or dolomite kiln, or a heating kiln or a kiln for energy generation or a steel production kiln or a kiln of the non-ferrous metal industry, comprising a dry substance mixture consisting of a) a granular magnesia component of at least one magnesia having an MgO content < 91.5 ma.-%, preferably < 90 ma.-%, particularly preferably < 89 ma.-%, as the main component in an amount of ≥ 70 ma.-%, preferably in an amount of ≥ 85 ma.-%, b) a granular elastifier component in an amount of 2 to 10 ma.-%, preferably of 3 to 8 ma.-%, particularly preferably of 4 to 6 ma.-%, of at least one sintered bauxite with an Al 2 O 3 content of 70 to 92 ma.-%, preferably of 78 to 91 ma.-%, the elastifier component having a grain size according to DIN 66165-2:2016-08 ≤ 2.5 mm, preferably of ≤ 2 mm, and the elastifier component having grains with a grain size according to DIN 66165-2:2016-08 of ≤ 0.5 mm at most in an amount of ≤ 25 ma.-%, preferably ≤ 20 ma.-%, especially ≤ 15 ma.-%, and c) optionally a further granular magnesia component of at least one magnesia with a higher MgO content than the main component, d) wherein the averaged MgO content of all magnesia grades of the dry substance mixture taken together is 85 to 91.5 ma.-%, preferably 87 to 90 ma.-%, particularly preferably 87 to 89 ma.-%. a) a granular magnesia component of at least one magnesia having an MgO content < 91.5 ma.-%, preferably < 90 ma.-%, particularly preferably < 89 ma.-%, as the main component in an amount of ≥ 70 ma.-%, preferably in an amount of ≥ 85 ma.-%, b) a granular elastifier component in an amount of 2 to 10 ma.-%, preferably of 3 to 8 ma.-%, particularly preferably of 4 to 6 ma.-%, of at least one sintered bauxite with an Al 2 O 3 content of 70 to 92 ma.-%, preferably of 78 to 91 ma.-%, the elastifier component having a grain size according to DIN 66165-2:2016-08 ≤ 2.5 mm, preferably of ≤ 2 mm, and the elastifier component having grains with a grain size according to DIN 66165-2:2016-08 of ≤ 0.5 mm at most in an amount of ≤ 25 ma.-%, preferably ≤ 20 ma.-%, especially ≤ 15 ma.-%, and c) optionally a further granular magnesia component of at least one magnesia with a higher MgO content than the main component, d) wherein the averaged MgO content of all magnesia grades of the dry substance mixture taken together is 85 to 91.5 ma.-%, preferably 87 to 90 ma.-%, particularly preferably 87 to 89 ma.-%.
A particulate fertilizer, where the particulate fertilizer has a coating, where the coating contains polylactic acid compound having a proportion of 70% to 99% of L-lactic acid monomer units and a proportion of 1% to 30% of D-lactic acid monomer units, characterized in that the polylactic acid compound comprises at least one first polylactic acid and at least one second polylactic acid, where the first polylactic acid has a proportion of 50% to 67% of L-lactic acid monomer units and a proportion of 33% to 50% of D-lactic acid monomer units and where the second polylactic acid has a proportion of 95% to 100% of L-lactic acid monomer units and a proportion of 0% to 5% of D-lactic acid monomer units. the polylactic acid compound comprises at least one first polylactic acid and at least one second polylactic acid, where the first polylactic acid has a proportion of 50% to 67% of L-lactic acid monomer units and a proportion of 33% to 50% of D-lactic acid monomer units and where the second polylactic acid has a proportion of 95% to 100% of L-lactic acid monomer units and a proportion of 0% to 5% of D-lactic acid monomer units.
A valve clack , comprising: a mounting column having a plurality of air slots for dispersing an airflow at least in a top surface of the mounting column ; a plurality of blades arranged outside the mounting column in a circumferential direction of the mounting column , each blade having a radial inner end connected to the mounting column and elastically swingable with respect to the mounting column ; characterized in that adjacent ones of the plurality of blades are separated by a rib , an end of the rib is connected to the mounting column , a buffer structure is provided in a position where the blade is connected to the rib , and the buffer structure is configured to provide a buffer space for a deformation of the blade . a mounting column having a plurality of air slots for dispersing an airflow at least in a top surface of the mounting column ; a plurality of blades arranged outside the mounting column in a circumferential direction of the mounting column , each blade having a radial inner end connected to the mounting column and elastically swingable with respect to the mounting column ; characterized in that adjacent ones of the plurality of blades are separated by a rib , an end of the rib is connected to the mounting column , a buffer structure is provided in a position where the blade is connected to the rib , and the buffer structure is configured to provide a buffer space for a deformation of the blade .
An ambulatory infusing device, comprising: a housing ; a reservoir defining an interior volume ; a divider wall associated with the housing and having an inner surface that faces into the reservoir interior volume ; and a filter assembly including: a filter assembly housing with a housing filter portion having a filter supporting volume, and a filter located within the filter supporting volume, wherein the device further includes a bubble guard , including a convex bubble guard wall and at least one bubble guard aperture that extends through the convex bubble guard wall , associated with the filter assembly housing such that the convex bubble guard wall is located in spaced relation to the filter and bubbles will tend to roll off the bubble guard instead of passing through any of the bubble guard apertures . a housing ; a reservoir defining an interior volume ; a divider wall associated with the housing and having an inner surface that faces into the reservoir interior volume ; and a filter assembly including: a filter assembly housing with a housing filter portion having a filter supporting volume, and a filter located within the filter supporting volume, wherein the device further includes a bubble guard , including a convex bubble guard wall and at least one bubble guard aperture that extends through the convex bubble guard wall , associated with the filter assembly housing such that the convex bubble guard wall is located in spaced relation to the filter and bubbles will tend to roll off the bubble guard instead of passing through any of the bubble guard apertures .
An electrical breaking appliance with separable contacts configured to interrupt an electric current, the electrical appliance having a first electric arc breaking chamber associated with a first switching gas filtering device and a second electric arc breaking chamber associated with a second switching gas filtering device, the first filtering device and the second filtering device being arranged on opposite faces of the casing of the electrical appliance, wherein the first filtering device has a first support part (22; 62), a first metallic braided mesh filter (24; 64) and a first metallic porous filter (26; 66), wherein the second filtering device has a second support part (30; 74), a second metallic braided mesh filter (32; 76) and a second metallic porous filter (34; 78), wherein the gas inlet section of the first filtering device is smaller than the gas inlet section of the second filtering device, wherein the first porous filter (26; 66) and the second porous filter (34; 74) each have a metallic foam, the porosity of the second filter close to or identical to the porosity of the first filter of the appliance, wherein the volume of foam used for the second porous filter (34; 74) is greater than the volume of foam used for the first porous filter (26; 66), and wherein the volume of foam per filter expressed in cm3 per megawatt of power is between 0.3 and 0.5 for the second porous filter (34; 74) and between 0.15 and 0.25 for the first porous filter (26; 66).
A droplet discharge apparatus comprising: a discharge head including a nozzle configured to discharge a droplet onto a discharge receiving medium; a nozzle surface observation device configured to observe a nozzle surface of the nozzle of the discharge head ; wherein the discharge receiving medium is formed of powder; wherein the droplet discharge apparatus further comprises: a calculating unit configured to calculate an adhesion amount of attached matter to the nozzle surface based on an observation result of the nozzle surface observation device ; and a determining unit configured to determine, based on a calculation result of the calculating unit , an operation on a control target that controls at least one of a mass and a discharge speed of the droplet. a discharge head including a nozzle configured to discharge a droplet onto a discharge receiving medium; a nozzle surface observation device configured to observe a nozzle surface of the nozzle of the discharge head ; wherein the discharge receiving medium is formed of powder; wherein the droplet discharge apparatus further comprises: a calculating unit configured to calculate an adhesion amount of attached matter to the nozzle surface based on an observation result of the nozzle surface observation device ; and a determining unit configured to determine, based on a calculation result of the calculating unit , an operation on a control target that controls at least one of a mass and a discharge speed of the droplet. a calculating unit configured to calculate an adhesion amount of attached matter to the nozzle surface based on an observation result of the nozzle surface observation device ; and a determining unit configured to determine, based on a calculation result of the calculating unit , an operation on a control target that controls at least one of a mass and a discharge speed of the droplet.
A hinge assembly comprising: a first hinge member including a first outer finger defining a first aperture , the first aperture including a first circumferential tapered surface ; a second hinge member including a second outer finger defining a second aperture , the second aperture including a second circumferential tapered surface ; and a fastener assembly including a first hub , a second hub , and a fastener , the first hub including a circumferential tapered surface that is complimentary to the first circumferential tapered surface , and the second hub including a circumferential tapered surface that is complimentary to the second circumferential tapered surface , wherein the first hub defines an opening and the second hub includes a projection that is received by the opening to interlock the first and second hubs , and wherein the fastener assembly is configured to connect the first hinge member to the second hinge member by the first hub being received by the first aperture such that the circumferential tapered surface of the first hub engages the first circumferential tapered surface of the first aperture , the second hub being received by the second aperture such that the circumferential tapered surface of the second hub engages the second circumferential tapered surface of the second aperture , and the fastener coupling the first hub to the second hub . a first hinge member including a first outer finger defining a first aperture , the first aperture including a first circumferential tapered surface ; a second hinge member including a second outer finger defining a second aperture , the second aperture including a second circumferential tapered surface ; and a fastener assembly including a first hub , a second hub , and a fastener , the first hub including a circumferential tapered surface that is complimentary to the first circumferential tapered surface , and the second hub including a circumferential tapered surface that is complimentary to the second circumferential tapered surface , wherein the first hub defines an opening and the second hub includes a projection that is received by the opening to interlock the first and second hubs , and wherein the fastener assembly is configured to connect the first hinge member to the second hinge member by the first hub being received by the first aperture such that the circumferential tapered surface of the first hub engages the first circumferential tapered surface of the first aperture , the second hub being received by the second aperture such that the circumferential tapered surface of the second hub engages the second circumferential tapered surface of the second aperture , and the fastener coupling the first hub to the second hub .
A dose tracking mechanism for use in a drug delivery device , comprising: an RFID device comprising: an electric circuit comprising an antenna , the electric circuit being in form of a label placed on a housing , on a surface of an injection button , or between the injection button and another inner component of the drug delivery device , and a switch operable to open and close the electric circuit , wherein the antenna is configured to transmit a wireless signal to a receiving device when the electric circuit is closed by the switch , wherein the switch is configured to open and close in response to operation of a dose setting mechanism of the drug delivery device to set a dose of a medicament and/or a dose dispensing mechanism of the drug delivery device to dispense a dose of medicament, wherein a closing and /or opening of the electric circuit generates a pulse of the wireless signal, and wherein the switch is configured to close and subsequently open the electric circuit periodically to cause generation of multiple pulses during the dose setting operation and/or during the dose dispensing operation, wherein the switch is arranged to be actuated by a clicker mechanism of the drug delivery device when the clicker mechanism is deflected during the dose setting operation and/or the dose dispensing operation, and wherein each pulse in the transmitted pulses corresponds to an amount of the medicament set by the dose setting mechanism and/or dispensed by the dose dispensing mechanism such that a total number of pulses indicates a total amount of medicament. an electric circuit comprising an antenna , the electric circuit being in form of a label placed on a housing , on a surface of an injection button , or between the injection button and another inner component of the drug delivery device , and a switch operable to open and close the electric circuit , wherein the antenna is configured to transmit a wireless signal to a receiving device when the electric circuit is closed by the switch , wherein the switch is configured to open and close in response to operation of a dose setting mechanism of the drug delivery device to set a dose of a medicament and/or a dose dispensing mechanism of the drug delivery device to dispense a dose of medicament, wherein a closing and /or opening of the electric circuit generates a pulse of the wireless signal, and wherein the switch is configured to close and subsequently open the electric circuit periodically to cause generation of multiple pulses during the dose setting operation and/or during the dose dispensing operation, wherein the switch is arranged to be actuated by a clicker mechanism of the drug delivery device when the clicker mechanism is deflected during the dose setting operation and/or the dose dispensing operation, and wherein each pulse in the transmitted pulses corresponds to an amount of the medicament set by the dose setting mechanism and/or dispensed by the dose dispensing mechanism such that a total number of pulses indicates a total amount of medicament.
A method for operating a base station , the method comprising: at the base station : establishing a wireless communication link with a user equipment device, UE, ; configuring a first Bandwidth Part, BWP, for the UE, wherein a configuration of the first BWP includes a configured first maximum number of multiple-input multiple-output, MIMO, layers specific to the first BWP; changing from the first BWP to a second BWP for the UE, wherein a configuration of the second BWP includes a configured second maximum number of MIMO layers specific to the second BWP, wherein the second maximum number of MIMO layers is different than the first maximum number of MIMO layers; indicating the change from the first BWP to the second BWP to the UE via downlink control information; and transmitting data to the UE on the second BWP using an actual number of MIMO layers less than or equal to the second maximum number of MIMO layers. establishing a wireless communication link with a user equipment device, UE, ; configuring a first Bandwidth Part, BWP, for the UE, wherein a configuration of the first BWP includes a configured first maximum number of multiple-input multiple-output, MIMO, layers specific to the first BWP; changing from the first BWP to a second BWP for the UE, wherein a configuration of the second BWP includes a configured second maximum number of MIMO layers specific to the second BWP, wherein the second maximum number of MIMO layers is different than the first maximum number of MIMO layers; indicating the change from the first BWP to the second BWP to the UE via downlink control information; and transmitting data to the UE on the second BWP using an actual number of MIMO layers less than or equal to the second maximum number of MIMO layers.
A method performed by a user equipment (UE) , comprising: selecting a first adaptive measurement period and a second adaptive measurement period, that is different than the first adaptive measurement period, to use for one or more measurements, based at least in part on an assessment of one or more conditions, wherein each of the first and second adaptive measurement periods is associated with at least one condition; maintaining concurrently a first sampling and filtering and a second filtering, where the first sampling and filtering corresponds to the first adaptive measurement period and the second filtering corresponds to the second adaptive measurement period; and using the first and second adaptive measurement period to perform the one or more measurements; performing sampling and filtering based on the first sampling and filtering concurrently with performing filtering based on the second filtering to determine respectively a first filtering result and a second filtering result; selecting a filtering result from the first filtering result and the second filtering result and creating a measurement report based on the selected filtering result, and reporting the measurement report to a higher layer, a network node or a second UE, wherein the measurements are radio measurements. selecting a first adaptive measurement period and a second adaptive measurement period, that is different than the first adaptive measurement period, to use for one or more measurements, based at least in part on an assessment of one or more conditions, wherein each of the first and second adaptive measurement periods is associated with at least one condition; maintaining concurrently a first sampling and filtering and a second filtering, where the first sampling and filtering corresponds to the first adaptive measurement period and the second filtering corresponds to the second adaptive measurement period; and using the first and second adaptive measurement period to perform the one or more measurements; performing sampling and filtering based on the first sampling and filtering concurrently with performing filtering based on the second filtering to determine respectively a first filtering result and a second filtering result; selecting a filtering result from the first filtering result and the second filtering result and creating a measurement report based on the selected filtering result, and reporting the measurement report to a higher layer, a network node or a second UE,
An ultrasonic motion generator comprising: a non-resonant inverter configured to invert direct current (DC) to alternating current (AC) having a first frequency; an ultrasonic transducer electrically coupled with the non-resonant inverter and configured to generate an ultrasonic motion based on the alternating current; a motional sensing circuit for sensing motional current passing through the ultrasonic transducer; and a comparator configured to automatically detect a deviation of the first frequency from a resonant frequency of the ultrasonic transducer based on the motional current passing through the ultrasonic transducer and to generate an output signal based on the deviation to drive the non-resonant inverter wherein the motional sensing circuit includes a capacitor having a capacitance value C3 in series with a resistor having a resistance value R3, which are in parallel with two resistors having resistance values R4 and R2, which ultrasonic transducer comprising a Band Pass Filter circuit comprising a motion resistor (Rm), a motion capacitor (Cm), a motion inductor (Lm) and a parasitic capacitor (Cp), the motion capacitor (Cm), the motion resistor (Rm) and the motion inductance (Lm) being in a series relationship and the parasitic capacitor being in parallel to the series relationship. a non-resonant inverter configured to invert direct current (DC) to alternating current (AC) having a first frequency; an ultrasonic transducer electrically coupled with the non-resonant inverter and configured to generate an ultrasonic motion based on the alternating current; a motional sensing circuit for sensing motional current passing through the ultrasonic transducer; and a comparator configured to automatically detect a deviation of the first frequency from a resonant frequency of the ultrasonic transducer based on the motional current passing through the ultrasonic transducer and to generate an output signal based on the deviation to drive the non-resonant inverter wherein the motional sensing circuit includes a capacitor having a capacitance value C3 in series with a resistor having a resistance value R3, which are in parallel with two resistors having resistance values R4 and R2, which ultrasonic transducer comprising a Band Pass Filter circuit comprising a motion resistor (Rm), a motion capacitor (Cm), a motion inductor (Lm) and a parasitic capacitor (Cp), the motion capacitor (Cm), the motion resistor (Rm) and the motion inductance (Lm) being in a series relationship and the parasitic capacitor being in parallel to the series relationship.