mhurhangee/patent-ind-claim-en huggingface dataset:
A resonator circuit , comprising: a transformer comprising a primary winding and a secondary winding , wherein the primary winding is inductively coupled with the secondary winding ; a primary capacitor being connected to the primary winding , the primary capacitor and the primary winding forming a primary circuit; and a secondary capacitor being connected to the secondary winding , the secondary capacitor and the secondary winding forming a secondary circuit; wherein the resonator circuit has a common mode resonance frequency at an excitation of the primary circuit in a common mode, wherein the resonator circuit has a differential mode resonance frequency at an excitation of the primary circuit in a differential mode, and wherein the common mode resonance frequency is different from the differential mode resonance frequency, characterized in that a ratio of turns of the primary winding and the secondary winding is 1:2, with the primary winding of the transformer or the secondary winding of the transformer being planar and arranged on the same plane, wherein the common mode resonance frequency is twice the differential mode resonance frequency. a transformer comprising a primary winding and a secondary winding , wherein the primary winding is inductively coupled with the secondary winding ; a primary capacitor being connected to the primary winding , the primary capacitor and the primary winding forming a primary circuit; and a secondary capacitor being connected to the secondary winding , the secondary capacitor and the secondary winding forming a secondary circuit; wherein the resonator circuit has a common mode resonance frequency at an excitation of the primary circuit in a common mode, wherein the resonator circuit has a differential mode resonance frequency at an excitation of the primary circuit in a differential mode, and wherein the common mode resonance frequency is different from the differential mode resonance frequency, characterized in that a ratio of turns of the primary winding and the secondary winding is 1:2, with the primary winding of the transformer or the secondary winding of the transformer being planar and arranged on the same plane, wherein the common mode resonance frequency is twice the differential mode resonance frequency.
Use of a composition comprising A) 10 to 50 wt.% of at least one polyisocyanate a-1) based on hexamethylene diisocyanate, containing at least one oligomeric polyisocyanate based on hexamethylene diisocyanate and optionally monomeric hexamethylene diisocyanate and 50 to 90 wt.% of at least one polyisocyanate a-2) based on isophorone diisocyanate, containing at least one oligomeric polyisocyanate based on isophorone diisocyanate and optionally monomeric isophorone diisocyanate, provided that the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate, or the polyisocyanate a-2) contains monomeric isophorone diisocyanate, or the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate and the polyisocyanate a-2) contains monomeric isophorone diisocyanate, wherein the %-values relate to the sum of the components a-1) and a-2), B) at least one sulphur-containing component and optionally C) one or more auxiliaries and/or additives for the manufacture of an optical lens. A) 10 to 50 wt.% of at least one polyisocyanate a-1) based on hexamethylene diisocyanate, containing at least one oligomeric polyisocyanate based on hexamethylene diisocyanate and optionally monomeric hexamethylene diisocyanate and 50 to 90 wt.% of at least one polyisocyanate a-2) based on isophorone diisocyanate, containing at least one oligomeric polyisocyanate based on isophorone diisocyanate and optionally monomeric isophorone diisocyanate, provided that the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate, or the polyisocyanate a-2) contains monomeric isophorone diisocyanate, or the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate and the polyisocyanate a-2) contains monomeric isophorone diisocyanate, wherein the %-values relate to the sum of the components a-1) and a-2), B) at least one sulphur-containing component and optionally C) one or more auxiliaries and/or additives for the manufacture of an optical lens.
A particle-sizing instrument comprising: a sample cell for receiving a sample comprising a plurality of particles; a light source configured to illuminate the sample with a light beam to produce scattered light by the interaction of the light beam with the particles; a first optical system comprising a first and second optical element respectively configured to split a portion of the scattered light into a first and second portion of scattered light: a second optical system configured to receive the first and second portion of scattered light from the first optical system , and to recombine the first and second portion of scattered light to produce an interference signal at a detection location, a detector configured to detect the interference signal at the detection location; and a processor configured to receive measurement data from the detector indicative of the interference signal at the detection location, and to determine a particle size and/or a particle size distribution from the measurement data. a sample cell for receiving a sample comprising a plurality of particles; a light source configured to illuminate the sample with a light beam to produce scattered light by the interaction of the light beam with the particles; a first optical system comprising a first and second optical element respectively configured to split a portion of the scattered light into a first and second portion of scattered light: a second optical system configured to receive the first and second portion of scattered light from the first optical system , and to recombine the first and second portion of scattered light to produce an interference signal at a detection location, a detector configured to detect the interference signal at the detection location; and a processor configured to receive measurement data from the detector indicative of the interference signal at the detection location, and to determine a particle size and/or a particle size distribution from the measurement data. a second optical system configured to receive the first and second portion of scattered light from the first optical system , and to recombine the first and second portion of scattered light to produce an interference signal at a detection location, a detector configured to detect the interference signal at the detection location; and a processor configured to receive measurement data from the detector indicative of the interference signal at the detection location, and to determine a particle size and/or a particle size distribution from the measurement data.
A circuit device, comprising: a multitier stack of memory cells, each tier of the stack including a memory cell device; a source gate select polycrystalline, SGS poly, layer adjacent the multitier stack of memory cells, the SGS poly layer to provide a gate select signal for the memory cells of the multitier stack; a conductive source layer in or on a substrate below the SGS poly layer to provide a source conductor for the memory cells of the multitier stack; an aluminum oxide, AlO x , layer between the source layer and the SGS poly layer , the AlO x layer suitable to act as an etch stop layer to separate the SGS poly layer from the source layer, wherein the AlO x layer provides both dry etch selectivity and wet etch selectivity, a channel pillar through the multitier stack of memory cells, the SGS poly layer , and the AlO x layer ; recesses off the channel pillar in each tier of the stack and in the AlO x layer , wherein each tier of the multitier stack comprises a floating gate formed in the recess off the channel pillar , and wherein the recess off the channel pillar in the AlO x layer comprises a dummy gate ; and a channel conductor extending along the channel pillar and inside each recess around the floating gate and the dummy gate . a multitier stack of memory cells, each tier of the stack including a memory cell device; a source gate select polycrystalline, SGS poly, layer adjacent the multitier stack of memory cells, the SGS poly layer to provide a gate select signal for the memory cells of the multitier stack; a conductive source layer in or on a substrate below the SGS poly layer to provide a source conductor for the memory cells of the multitier stack; an aluminum oxide, AlO x , layer between the source layer and the SGS poly layer , the AlO x layer suitable to act as an etch stop layer to separate the SGS poly layer from the source layer, wherein the AlO x layer provides both dry etch selectivity and wet etch selectivity, a channel pillar through the multitier stack of memory cells, the SGS poly layer , and the AlO x layer ; recesses off the channel pillar in each tier of the stack and in the AlO x layer , wherein each tier of the multitier stack comprises a floating gate formed in the recess off the channel pillar , and wherein the recess off the channel pillar in the AlO x layer comprises a dummy gate ; and a channel conductor extending along the channel pillar and inside each recess around the floating gate and the dummy gate .
A camera shutter device comprising an optical opening , an electromagnetic drive fixedly arranged relative to the optical opening and having a linearly guided movable part, a first shutter blade movable to an open position exposing the optical opening and to a closed position covering the optical opening , and a two-armed lever divided by a pivot point (P) into an input end (4.1) and an output end (4.2) and pivotable about the pivot point (P) over a pivot angle range (α), wherein the pivot point (P) is arranged on an axis of rotation (4.0) fixedly arranged relative to the optical opening and the input end (4.1) is connected to the movable part, the first shutter blade forming a unit fixedly connected to the movable part, and a counterweight is present at the output end (4.2) of the two-armed lever , wherein a second weight force (F 2 ) acting on the counterweight causes a second torque (M 2 ) about the axis of rotation (4.0) which counteracts a first torque (M 1 ) caused by a first weight force (F 1 ) acting on the unit , characterized in that a first permanent magnet (6.1), having at least one magnetic face , is fixedly arranged within the pivot angle range (α) in association with the counterweight in such a way that the counterweight is held in the open position and the closed position by the magnetic force of the first permanent magnet (6.1), or a first and a second permanent magnet (6.1, 6.2), each having at least one magnetic face , are provided, which are arranged in association with the counterweight in such a way that the counterweight is held in the open position by the magnetic force of the first permanent magnet (6.1) and in the closed position by the magnetic force of the second permanent magnet (6.2).
An information transmission method, comprising: generating , by a terminal device, indication information, the indication information being used to indicate device information of the terminal device, wherein the device information of the terminal device comprises at least one of a device type or a receiving-antenna quantity of the terminal device; wherein the device type of the terminal device comprises a RedCap terminal or a non-RedCap terminal; and sending , by the terminal device, the indication information to a network device to enable the network device to determine the device information of the terminal device according to the indication information, the indication information being carried by a physical uplink shared channel, PUSCH; wherein the PUSCH is a PUSCH in a Msg3 or a PUSCH in a MsgA; wherein the indication information is carried in a MAC header of a MAC subPDU. generating , by a terminal device, indication information, the indication information being used to indicate device information of the terminal device, wherein the device information of the terminal device comprises at least one of a device type or a receiving-antenna quantity of the terminal device; wherein the device type of the terminal device comprises a RedCap terminal or a non-RedCap terminal; and sending , by the terminal device, the indication information to a network device to enable the network device to determine the device information of the terminal device according to the indication information, the indication information being carried by a physical uplink shared channel, PUSCH; wherein the PUSCH is a PUSCH in a Msg3 or a PUSCH in a MsgA; wherein the indication information is carried in a MAC header of a MAC subPDU.
A self-righting and self-fronting base assembly for supporting an item of street furniture or a barrier, the base assembly comprising a base mounting portion and a street furniture receiving portion projecting from the base mounting portion, wherein the base assembly is formed as a monolithic component from a polyurethane polymer, and the base mounting portion comprises one or more fixing elements , characterised in that the street furniture receiving portion is formed as an upstanding elongate post; the base assembly further includes an intermediate portion located between the street furniture receiving portion and the base mounting portion, wherein the intermediate portion has a substantially constant diameter which is greater than the corresponding width of the street furniture receiving portion; and the base mounting portion extends radially outwards from the intermediate portion.
System for polishing treating internal walls of aquatic enclosures comprising at least one abrasive mixture tank and at least one surface treatment head in fluid communication with the abrasive mixture tank , means for moving the treatment head along the internal wall to be polished, and a supply for supplying an abrasive mixture to the treatment head with a substantially continuous flow, wherein the treatment head comprises a containment chamber in which a treatment disc is rotatably arranged, the treatment disc comprising a hollow rotating and feeding shaft connected to the supply, wherein the treatment disc is connected to a treatment disc motor , and wherein the treatment disc carries a friction foam, said disc, carrying its foam, being impregnated with abrasive particles in a continuous flow, thereby making said disc abrasive, characterized in that at least one treatment head thrust propeller is provided on the treatment head substantially opposite said containment chamber, and in that in operation, a thrust exerted by the treatment head propeller added to an external pressure of an ambient medium is slightly greater than an opposite force resulting from an internal pressure in the containment chamber , thereby enabling a layer of the abrasive mixture to be held between the foam and the internal wall .
A device (D), suitable for a V2X, Vehicle-to-everything, system , comprising: a wireless transceiver , configured to receive a first collective perception message (M1) from a transmitting device (E) of the V2X system , wherein the first collective perception message (M1) comprises a first object age (A1) of a perceived object of the first collective perception message (M1) calculated by the transmitting device (E); and a processor , coupled to the wireless transceiver , and characterized by being configured to calculate a second object age (A2) of the perceived object for a second collective perception message (M2), wherein the second collective perception message (M2) is generated by the device (D) according to the first collective perception message (M1), and wherein the second object age (A2) comprises a processing delay (P2) of the device (D) and the first object age (A1). a wireless transceiver , configured to receive a first collective perception message (M1) from a transmitting device (E) of the V2X system , wherein the first collective perception message (M1) comprises a first object age (A1) of a perceived object of the first collective perception message (M1) calculated by the transmitting device (E); and a processor , coupled to the wireless transceiver , and characterized by being configured to calculate a second object age (A2) of the perceived object for a second collective perception message (M2), wherein the second collective perception message (M2) is generated by the device (D) according to the first collective perception message (M1), and wherein the second object age (A2) comprises a processing delay (P2) of the device (D) and the first object age (A1).
A camera body comprising: a mount unit on which an interchangeable lens including a driven member and a storage medium storing lens data related to driving of the driven member can be mounted; a transmitter that is arranged to send a driving amount data and a drive speed data regarding the driven member to the interchangeable lens; a receiver that is arranged to receive lens-side judgment data, based on which whether the lens data is properly stored in the storage medium or not can be judged, from the interchangeable lens; and a judgment unit that is arranged to judge whether the lens data is properly stored in the storage medium or not, based on the lens-side judgment data received from the receiver, wherein: the receiver receives a drive time of the driven member as the lens-side judgment data, the drive time being obtained based on the driving amount data, the drive speed data, and the lens data stored in the storage medium, and the receiver receives the lens-side judgment data after the transmitter sends the driving amount data and the drive speed data to the interchangeable lens. a mount unit on which an interchangeable lens including a driven member and a storage medium storing lens data related to driving of the driven member can be mounted; a transmitter that is arranged to send a driving amount data and a drive speed data regarding the driven member to the interchangeable lens; a receiver that is arranged to receive lens-side judgment data, based on which whether the lens data is properly stored in the storage medium or not can be judged, from the interchangeable lens; and a judgment unit that is arranged to judge whether the lens data is properly stored in the storage medium or not, based on the lens-side judgment data received from the receiver, wherein: the receiver receives a drive time of the driven member as the lens-side judgment data, the drive time being obtained based on the driving amount data, the drive speed data, and the lens data stored in the storage medium, and the receiver receives the lens-side judgment data after the transmitter sends the driving amount data and the drive speed data to the interchangeable lens.
A molded body obtained by molding a thermoplastic resin, the molded body comprising: a continuous phase (A) containing a first polyolefin resin and a second polyolefin resin; and a dispersed phase (B) dispersed in the continuous phase (A) and containing a polyamide resin and a modified elastomer, wherein the polyamide resin is polyamide 6, the dispersed phase (B) is composed of a melt-kneaded product of the polyamide resin and the modified elastomer, the modified elastomer is an elastomer having a reactive group that reacts with the polyamide resin, the elastomer is an olefin-based thermoplastic elastomer having, as a skeleton, a copolymer of ethylene or propylene and an α-olefin having 3 to 8 carbon atoms or a styrene-based thermoplastic elastomer having a styrene skeleton, when a total of the continuous phase (A) and the dispersed phase (B) is taken as 100% by mass, a content of the dispersed phase (B) is 70% by mass or less, when a total of the first polyolefin resin and the second polyolefin resin is taken as 100% by mass, a content of the second polyolefin resin is 80% by mass or less, and wherein the first polyolefin resin is a block copolymerized polyolefin resin having an ethylene block as a dispersed phase, wherein at least part of the ethylene block is aggregated at an interface between the continuous phase (A) and the dispersed phase (B), and the second polyolefin resin is a non-block copolymerized polyolefin resin. a continuous phase (A) containing a first polyolefin resin and a second polyolefin resin; and a dispersed phase (B) dispersed in the continuous phase (A) and containing a polyamide resin and a modified elastomer, wherein the polyamide resin is polyamide 6, the dispersed phase (B) is composed of a melt-kneaded product of the polyamide resin and the modified elastomer, the modified elastomer is an elastomer having a reactive group that reacts with the polyamide resin, the elastomer is an olefin-based thermoplastic elastomer having, as a skeleton, a copolymer of ethylene or propylene and an α-olefin having 3 to 8 carbon atoms or a styrene-based thermoplastic elastomer having a styrene skeleton, when a total of the continuous phase (A) and the dispersed phase (B) is taken as 100% by mass, a content of the dispersed phase (B) is 70% by mass or less, when a total of the first polyolefin resin and the second polyolefin resin is taken as 100% by mass, a content of the second polyolefin resin is 80% by mass or less, and wherein the first polyolefin resin is a block copolymerized polyolefin resin having an ethylene block as a dispersed phase, wherein at least part of the ethylene block is aggregated at an interface between the continuous phase (A) and the dispersed phase (B), and the second polyolefin resin is a non-block copolymerized polyolefin resin.
Method for operating a cooking appliance with a connectable frying thermometer (102; 201) of a frying thermometer type, wherein the method is characterised in that - a first and a second electric measured variable (U RefB , U RefC ; UR- Refb , UR RefC , Vcc) are determined, - a first terminal (A) for such a frying thermometer (102; 201) is connected to ground, - a second and third terminal (B, C) are each connected via a reference variable, in particular in each case via a reference resistor , to a supply voltage (Vcc), - the first and the second measured variable, in particular as voltage drops across the reference variables, are determined, and - the first and the second measured variable determine which frying thermometer type is connected. - a first and a second electric measured variable (U RefB , U RefC ; UR- Refb , UR RefC , Vcc) are determined, - a first terminal (A) for such a frying thermometer (102; 201) is connected to ground, - a second and third terminal (B, C) are each connected via a reference variable, in particular in each case via a reference resistor , to a supply voltage (Vcc), - the first and the second measured variable, in particular as voltage drops across the reference variables, are determined, and - the first and the second measured variable determine which frying thermometer type is connected.
A breathing mask having a mask bead , which seals the mask toward the patient, a mask body and at least one wing which serves to receive a harness clip , wherein the harness clip fixes a head harness to the mask, wherein the wing has a funnel-shaped recess and the clip catches in the region of a latching point of the recess, characterized in that a latching pin is arranged facing the latching point on the mask body or a spring plate , said latching pin preferably having a rounded surface contour.