mhurhangee/patent-ind-claim-en huggingface dataset:
A method for measuring a turbine shape of a turbine including a casing having an upper half casing and a lower half casing with respective flange portions joined by bolts, a stationary body housed inside the casing, and a rotating body housed inside the casing and rotating with respect to the stationary body, characterized in that measuring (S150), along an axial direction, recesses and protrusions on respective contact surfaces of the flange portions (20, 21, 30 31) of the casing disassembled into the upper half casing and the lower half casing at an interval equal to or smaller than a measurement interval M between measuring points predetermined on a basis of an entire length L of the flange portions in the axial direction, the number N of bolts joining the flange portions, and, a minimum value Pmi and a maximum value Pma for intervals between the bolts in the axial direction of the flange portions, the measurement interval M between the measurement points is represented by: M = L / N × Pmi / Pma
An operational transconductance amplifier , OTA, , comprising: a first node and a second node (A + , A - ); a differential transistor pair for receiving an input, wherein the first node (A+) and the second node (A-) are respectively coupled to a corresponding drain of the differential transistor pair ; a pair of output nodes (VO + , VO - ) for outputting a response to the input, wherein the response at the pair of output nodes comprises a first frequency pole; a cascode transistor pair coupled to the pair of output nodes, wherein the pair of output nodes is coupled to the differential transistor pair via the cascode transistor pair ; a capacitive element (Cx) coupled between the first node and the second node, wherein the response includes a second frequency pole, the second frequency pole being introduced by the capacitive element, and wherein the second frequency pole is at a greater frequency (f 2 ) than the first frequency pole, and a gain at the second frequency pole is less than zero; at least one capacitive load (C L ) coupled to the pair of output nodes, wherein the first frequency pole is a function of the at least one capacitive load and wherein the second frequency pole is a function of the at least one capacitive load and the capacitive element, wherein the capacitive element and the at least one capacitive load comprise capacitors of a same type. a first node and a second node (A + , A - ); a differential transistor pair for receiving an input, wherein the first node (A+) and the second node (A-) are respectively coupled to a corresponding drain of the differential transistor pair ; a pair of output nodes (VO + , VO - ) for outputting a response to the input, wherein the response at the pair of output nodes comprises a first frequency pole; a cascode transistor pair coupled to the pair of output nodes, wherein the pair of output nodes is coupled to the differential transistor pair via the cascode transistor pair ; a capacitive element (Cx) coupled between the first node and the second node, wherein the response includes a second frequency pole, the second frequency pole being introduced by the capacitive element, and wherein the second frequency pole is at a greater frequency (f 2 ) than the first frequency pole, and a gain at the second frequency pole is less than zero; at least one capacitive load (C L ) coupled to the pair of output nodes, wherein the first frequency pole is a function of the at least one capacitive load and wherein the second frequency pole is a function of the at least one capacitive load and the capacitive element, wherein the capacitive element and the at least one capacitive load comprise capacitors of a same type.
An antibacterial composition, comprising: a silicate-based glass material being a fiber and having a composition of: 60-70 wt.% SiO 2 , 0-10 wt.% B 2 O 3 , 3-18 wt.% P 2 O 5 , 0-10 wt.% Al 2 O 3 , 0-5 wt.% Li 2 O, 20-30 wt.% Na 2 O, 0-15 wt.% K 2 O, 0-10 wt.% MgO, 1-15 wt.% CaO, 2-20 wt.% MO, and 20-35 wt.% R 2 O, wherein MO is the sum of MgO, CaO, SrO, and BaO, wherein R 2 O is the sum of Na 2 O, K 2 O, Li 2 O, and Rb 2 O, and wherein the silicate-based glass material is configured to achieve a 6-log kill rate of at least one of E. coli, P. gingivalis, or S. mutans bacteria. a silicate-based glass material being a fiber and having a composition of: 60-70 wt.% SiO 2 , 0-10 wt.% B 2 O 3 , 3-18 wt.% P 2 O 5 , 0-10 wt.% Al 2 O 3 , 0-5 wt.% Li 2 O, 20-30 wt.% Na 2 O, 0-15 wt.% K 2 O, 0-10 wt.% MgO, 1-15 wt.% CaO, 2-20 wt.% MO, and 20-35 wt.% R 2 O, 60-70 wt.% SiO 2 , 0-10 wt.% B 2 O 3 , 3-18 wt.% P 2 O 5 , 0-10 wt.% Al 2 O 3 , 0-5 wt.% Li 2 O, 20-30 wt.% Na 2 O, 0-15 wt.% K 2 O, 0-10 wt.% MgO, 1-15 wt.% CaO, 2-20 wt.% MO, and 20-35 wt.% R 2 O, wherein MO is the sum of MgO, CaO, SrO, and BaO, wherein R 2 O is the sum of Na 2 O, K 2 O, Li 2 O, and Rb 2 O, and wherein the silicate-based glass material is configured to achieve a 6-log kill rate of at least one of E. coli, P. gingivalis, or S. mutans bacteria.
Motor vehicle latch having a latch housing , an electrical power supply, and at least one lamp , it being possible to connect the lamp to the electrical power supply, and the lamp emitting light (L) into a light-conducting element , it being possible to arrange the lamp directly on a circuit board arranged inside the latch housing , the light-conducting element ending with an end opposite the lamp in a region that allows light (L) to be emitted into the surroundings of the motor vehicle when the motor vehicle latch is installed, the circuit board having means for control, in particular control electronics , for the lamp , characterized in that when a door is opened, a signal can be generated by a switching element that queries, for example, the position of a catch, so that the electronic components in the motor vehicle door latch generate a signal that supplies the lamp with voltage.
A control apparatus for an electric vehicle comprising: - a first inverter that supplies electric power to a motor that drives a vehicle; - a second inverter that supplies electric power to a load mounted in the vehicle; - a power storage unit that supplies electric power to the first and second inverters ; and - a load control unit that is adapted to selectively operates an air conditioner , a ventilator , and an air blower that are included in the load so as to maintain an in-vehicle temperature environment, in accordance with a power storage amount in the power storage unit or a condition amount and a predetermined setting value (LVO, LV1, LV2) thereof, and wherein the setting value (LV0, LV1, LV2) consists of a first setting value (LV0) and a second setting value (LV1) that is smaller than the first setting value (LV0); characterized in that : in the case where the power storage amount becomes smaller than the first setting value (LV0), the air conditioner is slightly operated, and in the case where the power storage amount becomes smaller than the second setting value (LV1), the air conditioner is stopped, and at least one of the ventilator and the air blower is operated. - a first inverter that supplies electric power to a motor that drives a vehicle; - a second inverter that supplies electric power to a load mounted in the vehicle; - a power storage unit that supplies electric power to the first and second inverters ; and - a load control unit that is adapted to selectively operates an air conditioner , a ventilator , and an air blower that are included in the load so as to maintain an in-vehicle temperature environment, in accordance with a power storage amount in the power storage unit or a condition amount and a predetermined setting value (LVO, LV1, LV2) thereof, and wherein the setting value (LV0, LV1, LV2) consists of a first setting value (LV0) and a second setting value (LV1) that is smaller than the first setting value (LV0);
A display device comprising: a substrate ; a transfer guiding mold provided on the substrate and comprising a plurality of openings ; and a plurality of micro light emitting diodes , micro LEDs, provided on the substrate in the plurality of openings; characterized in that a height (H2) of the transfer guiding mold is less than twice a height (H1) of each of the plurality of micro LEDs, but greater than or equal to 1.5 times said height (H1). a substrate ; a transfer guiding mold provided on the substrate and comprising a plurality of openings ; and a plurality of micro light emitting diodes , micro LEDs, provided on the substrate in the plurality of openings; characterized in that a height (H2) of the transfer guiding mold is less than twice a height (H1) of each of the plurality of micro LEDs, but greater than or equal to 1.5 times said height (H1).
A process for catalytic dehydrogenation comprising: catalytically dehydrogenating a hydrocarbon feed in the presence of a dehydrogenation catalyst in a fluidized bed catalytic dehydrogenation reactor to produce a product stream comprising used catalyst and at least one dehydrogenated hydrocarbon; separating the used catalyst from gaseous components of the product stream; passing used catalyst to a reactor recycle catalyst fluidization section and to a stripping section separate from the catalyst fluidization section; in the catalyst fluidization section, mixing a fluidization gas comprising methane, natural gas, ethane, hydrogen, nitrogen, or any combination thereof with the used catalyst stream passed to the catalyst fluidization section to form a catalyst recycle stream; in the stripping section, contacting a stripping gas with the used catalyst passed to the stripping section to produce a stripped used catalyst; recycling the catalyst recycle stream either directly or indirectly into the fluidized bed catalytic dehydrogenation reactor; and passing at least a portion of the stripped used catalyst to a catalyst regeneration process. catalytically dehydrogenating a hydrocarbon feed in the presence of a dehydrogenation catalyst in a fluidized bed catalytic dehydrogenation reactor to produce a product stream comprising used catalyst and at least one dehydrogenated hydrocarbon; separating the used catalyst from gaseous components of the product stream; passing used catalyst to a reactor recycle catalyst fluidization section and to a stripping section separate from the catalyst fluidization section; in the catalyst fluidization section, mixing a fluidization gas comprising methane, natural gas, ethane, hydrogen, nitrogen, or any combination thereof with the used catalyst stream passed to the catalyst fluidization section to form a catalyst recycle stream; in the stripping section, contacting a stripping gas with the used catalyst passed to the stripping section to produce a stripped used catalyst; recycling the catalyst recycle stream either directly or indirectly into the fluidized bed catalytic dehydrogenation reactor; and passing at least a portion of the stripped used catalyst to a catalyst regeneration process.
Universal device for the automation of solid fuel barbecues and ovens that comprises an automated draft valve that can be installed at the smoke exhaust of the oven or barbecue to be controlled and an electronic board housed in a control module linked to a motor that rotates the valve and that drives the exit of the gas flow by means of the exit signal that the control module supplies to the motor of the valve , the electronic board being provided with connection with at least a room temperature probe located within the chamber of the oven or barbecue , the said control module possessing control means and power supply characterized in that the valve is a butterfly type valve housed in a chimney module and in that the control module comprises a remote control, by means of application for mobile devices app or by means of web service, for handling it.
A carrier for holding a plurality of containers (C), comprising: a plurality of panels extending around an interior space (110a, 110b of the carrier , the plurality of panels comprising a front panel , a back panel , at least one side panel , at least one bottom panel , and at least one central panel ; and a divider flap extending from the at least one central panel to one of the front panel and the back panel in the interior space of the carrier , characterised in that the divider flap comprises a portion curved away from the at least one central panel and at least one line of weakening such that the divider flap is generally curved. a plurality of panels extending around an interior space (110a, 110b of the carrier , the plurality of panels comprising a front panel , a back panel , at least one side panel , at least one bottom panel , and at least one central panel ; and a divider flap extending from the at least one central panel to one of the front panel and the back panel in the interior space of the carrier , characterised in that the divider flap comprises a portion curved away from the at least one central panel and at least one line of weakening such that the divider flap is generally curved.
Assistance device for assisting in the use of an axially activated dispensing device for dispensing a product contained in a tank , the dispensing being activated by the user following a pressure exerted by the user on a bearing area carried by the assistance device and/or the dispensing device , the bearing area being mounted so as to be able to move with respect to the tank between a rest position and an activated product dispensing position, the assistance device comprising: - means for connection to the dispensing device , - means for quantifying a physical value linked to the force exerted by the user on the bearing area between the rest position and the activated position, - an information processing system for processing the quantified physical value and providing information on the dispensed product dose, characterized in that the means for quantifying a physical value comprise: - means for measuring the pressure exerted on the bearing area , in order to provide information on the magnitude and/or the duration of the pressure exerted by the user on the bearing area and - means for measuring the acceleration of the bearing area . - means for connection to the dispensing device , - means for quantifying a physical value linked to the force exerted by the user on the bearing area between the rest position and the activated position, - an information processing system for processing the quantified physical value and providing information on the dispensed product dose, - means for measuring the pressure exerted on the bearing area , in order to provide information on the magnitude and/or the duration of the pressure exerted by the user on the bearing area and - means for measuring the acceleration of the bearing area .
A dielectric resonator , comprising: a solid dielectric resonator body ; a blind hole located on one side of the solid dielectric resonator body ; a metalized layer covering both a surface of the solid dielectric resonator body and a surface of the blind hole ; at least one demetallized notch located at the metalized layer on the surface of the blind hole ; characterized in that the dielectric resonator further comprises a metalized sealing part that is configured to seal the demetallized notch and that keeps away from the demetallized notch at a specific spacing wherein the specific spacing is suitable for reducing impact of the metalized sealing part on a frequency of the dielectric resonator and a width of the specific spacing depends on a dielectric constant of a dielectric of the dielectric resonator and the resonance frequency of the dielectric resonator and the metalized sealing part is located outside the blind hole and connected to a metalized layer surrounding an opening side of the blind hole , and a surface, connecting to the metalized layer surrounding the opening side of the blind hole, of the metalized sealing part is a metalized surface. a solid dielectric resonator body ; a blind hole located on one side of the solid dielectric resonator body ; a metalized layer covering both a surface of the solid dielectric resonator body and a surface of the blind hole ; at least one demetallized notch located at the metalized layer on the surface of the blind hole ; characterized in that the dielectric resonator further comprises a metalized sealing part that is configured to seal the demetallized notch and that keeps away from the demetallized notch at a specific spacing wherein the specific spacing is suitable for reducing impact of the metalized sealing part on a frequency of the dielectric resonator and a width of the specific spacing depends on a dielectric constant of a dielectric of the dielectric resonator and the resonance frequency of the dielectric resonator and the metalized sealing part is located outside the blind hole and connected to a metalized layer surrounding an opening side of the blind hole , and a surface, connecting to the metalized layer surrounding the opening side of the blind hole, of the metalized sealing part is a metalized surface.
A method for producing a layer structure in an electronic device, the method comprising a step of producing the layer structure as a composite layer structure with a first material and a second material, wherein - the composite layer structure is provided as a stack of at least three non-mixed sub-layers made of the first material and the second material, respectively, - within the stack of the at least three non-mixed sub-layers each first material sub-layer is followed by an adjacent second material sub-layer and each second material sub-layer is followed by an adjacent first material sub-layer, and - the first material and the second material is an organic material, characterized in that - the first material and the second material are selected to form a host-dopant material system for electrical doping so that free charge carriers are generated by charge transfer between the first material and the second material, - the energetic difference between the HOMO level of the first material providing a matrix material and the LUMO level of the second material is smaller than 0,5 eV, and - the host-dopant material system is formed as one of the following: a) the first material is an electron transport material with a reduction potential that is lower than -1,5 V vs. Fc/Fc+ and the second material is a donor material or b) the first material is a hole transport material with an oxidation potential that is higher than -0,2 V vs. Fc/Fc+ and the second material is an acceptor material. - the composite layer structure is provided as a stack of at least three non-mixed sub-layers made of the first material and the second material, respectively, - within the stack of the at least three non-mixed sub-layers each first material sub-layer is followed by an adjacent second material sub-layer and each second material sub-layer is followed by an adjacent first material sub-layer, and - the first material and the second material is an organic material, characterized in that - the first material and the second material are selected to form a host-dopant material system for electrical doping so that free charge carriers are generated by charge transfer between the first material and the second material, - the energetic difference between the HOMO level of the first material providing a matrix material and the LUMO level of the second material is smaller than 0,5 eV, and - the host-dopant material system is formed as one of the following: a) the first material is an electron transport material with a reduction potential that is lower than -1,5 V vs. Fc/Fc+ and the second material is a donor material or b) the first material is a hole transport material with an oxidation potential that is higher than -0,2 V vs. Fc/Fc+ and the second material is an acceptor material. a) the first material is an electron transport material with a reduction potential that is lower than -1,5 V vs. Fc/Fc+ and the second material is a donor material or b) the first material is a hole transport material with an oxidation potential that is higher than -0,2 V vs. Fc/Fc+ and the second material is an acceptor material.
A face shield to be mounted to a hockey helmet having an outer shell with a front for at least partially covering a forehead of a wearer's head, the face shield having a longitudinal axis, a transversal axis and a height axis, the face shield comprising: a transparent visor portion for at least partially covering the wearer's forehead, a nose and eyes of the wearer and right and left sides of a face of the wearer, wherein the visor portion has top and bottom edges , an inner surface that is concave and an outer surface that is convex; a bottom portion for at least partially covering and encircling a mouth and a chin of the wearer; right and left side portions for at least partially covering the right and left sides of the wearer's face; and a top portion extending upwardly and rearwardly from the top edge of the visor portion, wherein the top portion comprises: a top edge portion having a curvature for generally following a curvature of the front of the outer shell, the top edge portion comprising a central bar extending along the transversal axis and being located on right and left sides with respect to the height axis; right and left bars extending upwardly and rearwardly on the right and left sides from the top edge of the visor portion and being each connected to the top edge portion; and a central projection between the right and left bars projecting upwardly and rearwardly from the top edge of the visor portion; the face shield being characterized in that the central bar and the central projection define a transversal gap therebetween; the central bar, the right and left bars and the central projection define right and left hollow spaces therebetween; and the transversal gap and the right and left hollow spaces together define a central aeration aperture being sized to prevent a hockey stick blade or puck from impacting the wearer's face.