mhurhangee/patent-ind-claim-en huggingface dataset:
An LED pixel device comprising: • a plurality of individual controllable LED pixels arranged in an array; • an LED pixel controller adapted to control said plurality of individual controllable LED pixels; • an optical diffuser arranged in front of at least a part of said LED pixels, said optical diffuser being configured to receive light from said LED pixels and to diffuse the received light, said optical diffuser being configured to change the appearance of said LED pixels; • a plurality of individually controllable diffuser actuators adapted to move said LED pixels and said optical diffuser in relation to each other; • a diffuser controller adapted to control said plurality of individually controllable diffuser actuators; wherein said optical diffuser and said LED pixels can be moved between a non-mixing position and a mixing position, where in said non-mixing position the light emitted by said LED pixels is separated when hitting said optical diffuser and where in said mixing position the light emitted by said LED pixels at least partially overlapping when hitting said optical diffuser, wherein different distances between the optical diffuser and the LED pixel device across the LED pixel device can be realized by individually controlling the diffuser actuators. • a plurality of individual controllable LED pixels arranged in an array; • an LED pixel controller adapted to control said plurality of individual controllable LED pixels; • an optical diffuser arranged in front of at least a part of said LED pixels, said optical diffuser being configured to receive light from said LED pixels and to diffuse the received light, said optical diffuser being configured to change the appearance of said LED pixels; • a plurality of individually controllable diffuser actuators adapted to move said LED pixels and said optical diffuser in relation to each other; • a diffuser controller adapted to control said plurality of individually controllable diffuser actuators;
A nuclear reactor , comprising: a reactor vessel including a barrier separating a core region from a shield region ; a fuel rod in the core region and containing a liquid nuclear fuel ; a moderator material in the core region and at least partially surrounding the fuel rod ; a thermal transfer device extending at least partially through the barrier, wherein the moderator material is positioned to transfer heat received from the liquid nuclear fuel to the thermal transfer device; and a hydrogen control assembly operably coupled to the core region , wherein the hydrogen control assembly is configured to vary a hydrogen content level of the core region to thereby control a moderating property of the moderator material . a reactor vessel including a barrier separating a core region from a shield region ; a fuel rod in the core region and containing a liquid nuclear fuel ; a moderator material in the core region and at least partially surrounding the fuel rod ; a thermal transfer device extending at least partially through the barrier, wherein the moderator material is positioned to transfer heat received from the liquid nuclear fuel to the thermal transfer device; and a hydrogen control assembly operably coupled to the core region , wherein the hydrogen control assembly is configured to vary a hydrogen content level of the core region to thereby control a moderating property of the moderator material .
Guidance device for guiding a movable window in a side door of a motor vehicle , this guide device comprising a sliding guide capable of guiding the window along a primary axis , the guide device being characterised in that it comprises a support integral with the sliding guide , having an inclined bottom , an outer longitudinal wall and an inner longitudinal wall , jointly defining a groove capable, when the window is mounted on the side door , of guiding the window towards the sliding guide along a tertiary axis distinct from the primary axis .
An electrostatic printer comprising: a photoconductor member ; a charging unit to charge the photoconductor member to a charged voltage; an imaging unit to generate a latent electrostatic image on the photoconductor member by discharging areas of the charged photoconductor member ; a developer unit to develop a toner image on the photoconductor member using a developer voltage (V dev ); and characterised in that the electrostatic printer further comprises: a controller to: perform a developer voltage calibration to obtain a desired toner layer thickness; change the developer voltage (V dev ) based on the developer voltage calibration, and change the charged voltage (V dark ) dependent on the change of the developer voltage (V dev ), wherein the rate of changing the charged voltage (V dark ) depends on the value of the developer voltage (V dev ). a photoconductor member ; a charging unit to charge the photoconductor member to a charged voltage; an imaging unit to generate a latent electrostatic image on the photoconductor member by discharging areas of the charged photoconductor member ; a developer unit to develop a toner image on the photoconductor member using a developer voltage (V dev ); and characterised in that the electrostatic printer further comprises: a controller to: perform a developer voltage calibration to obtain a desired toner layer thickness; change the developer voltage (V dev ) based on the developer voltage calibration, and change the charged voltage (V dark ) dependent on the change of the developer voltage (V dev ), wherein the rate of changing the charged voltage (V dark ) depends on the value of the developer voltage (V dev ). perform a developer voltage calibration to obtain a desired toner layer thickness; change the developer voltage (V dev ) based on the developer voltage calibration, and change the charged voltage (V dark ) dependent on the change of the developer voltage (V dev ), wherein the rate of changing the charged voltage (V dark ) depends on the value of the developer voltage (V dev ).
Piezoelectric transformer comprising a piezoelectric element with a predetermined length dimension of the length L along which at least one input side and at least one output side of the transformer are defined, wherein an input voltage U in can be applied to the input side for the purpose of transformation into an output voltage U out on the output side in accordance with a transformation ratio U out U in = K u , and wherein the piezoelectric element has a plurality of plies of internal electrodes which are arranged in a direction perpendicular in relation to the direction of the length dimension in a plurality of different layers (S1, S2, S3), wherein each ply of internal electrodes extends along at least one predetermined subsection of the length dimension, and wherein the subsections of plies of a first group of layers (S1, S3) and the subsections of plies of a second group of layers (S2) have different dimensions, so that the piezoelectric transformer satisfies the following condition: C in ≤ N 2 C out , where C in denotes the input capacitance, C out denotes the output capacitance and N denotes the transformation ratio of the ideal transformer, characterized in that the plies of internal electrodes of the first group of layers (S1, S3) each extend between a first and a second position (P1, P2) in a range of > 0 and ≤ 1 2 L of the length dimension and the respective subsection between the first and the second position (P1, P2) assumes a length of ≤ 1 4 L of the length dimension.
A roof console for circulation and diffusion of conditioned air extending longitudinally in the rear part of the passenger compartment of a motor vehicle and connected to a conditioned air generating unit housed in said vehicle ; said console comprising a plurality of air vents located in its lower portion and suitable for diffusing conditioned air towards the rear seats of said vehicle; characterized in that said console is suspended from the ceiling light of said vehicle and in that it has a plurality of lateral holes suitable for diffusing conditioned air on both sides of said console in a substantially horizontal direction, comprising three rows of said air vents distributed longitudinally between its rear end connected to said conditioned air generating unit and a control module located at its front end, each said row is formed by two said air vents extending symmetrically on either side of the longitudinal median plane of said bracket, and in that it comprises two internal low walls extending transversely and symmetrically on either side of its longitudinal median plane above the two air vents of the row closest to said rear connecting end.
A spinning fishing reel including a spool for holding fishing line, a mainshaft and a housing , said housing including a front and a rear, said mainshaft extending through the spool and into the housing and being configured for rotational and longitudinal movement along an axis extending from front to rear of the housing, said longitudinal movement being driven by an oscillation system within the housing, the spinning fishing reel further including a drag assembly comprising: a collar engaged with the mainshaft of the reel, said collar being fixed to the mainshaft for rotational movement with the mainshaft, but being fixed with respect to the housing against longitudinal movement with the mainshaft, said mainshaft thereby being free to oscillate longitudinally through the collar; a brake for engagement with the collar, said brake having a brake surface , wherein said brake surface is configured to make selective contact with the collar to create a frictional force against rotation of the collar, and thereby against rotation of the mainshaft, characterized in that said collar is located in front of said oscillation system. a collar engaged with the mainshaft of the reel, said collar being fixed to the mainshaft for rotational movement with the mainshaft, but being fixed with respect to the housing against longitudinal movement with the mainshaft, said mainshaft thereby being free to oscillate longitudinally through the collar; a brake for engagement with the collar, said brake having a brake surface , wherein said brake surface is configured to make selective contact with the collar to create a frictional force against rotation of the collar, and thereby against rotation of the mainshaft,
Starting material for a sintered body , which comprises particles consisting of a silver carbonate, a silver lactate, a silver stearate, a sodium carbonate and/or a noble metal oxide, wherein the silver carbonate, the silver lactate, the silver stearate, the sodium carbonate and/or the noble metal oxide is converted in a thermal treatment of the starting material into the parent elemental metal and/or noble metal, wherein the particles have a coating containing a reducing agent, wherein the reducing agent is able to reduce the silver carbonate, the silver lactate, the silver stearate, the sodium carbonate and/or the noble metal oxide to the elemental metal and/or noble metal at a temperature below the sintering temperature of the elemental metal and/or noble metal, and wherein the reducing agent comprises at least one alcohol from the group consisting of primary or secondary alcohols and/or an amine and/or a formic acid and/or a fatty acid.
A pack comprising a group of tobacco industry products wrapped in a laminate to form a bundle , a base containing the bundle, and a lid mounted to the base for rotation between open and closed positions, the laminate comprising an outer layer having a first cut that defines an outer layer region bounded by said first cut and, an inner layer having a second cut that defines an inner layer region bounded by said second cut, the inner layer region lying within the outer layer region, said pack being characterised in that a part of the outer layer region is attached to an inside surface of the lid such that, as the lid is rotated into its open position, the inner and outer layer regions are lifted causing the inner and outer layers to delaminate in a peripheral region between the first and second cuts and an opening to be created in the laminate, the laminate comprising a pressure-sensitive adhesive between the inner and outer layers such that said peripheral region readheres when the lid is rotated into its closed position, the inner and outer layers being joined to each other with pressure-sensitive adhesive, and an adhesive coating weight of the pressure-sensitive adhesive varying across the laminate.
A method of making a non-naturally occurring three-dimensional brown adipose derived stem cell aggregate consisting of brown adipose derived stem cells that express one or more brown adipocyte genes in the absence of differentiation medium, the method comprising: loading brown adipose derived stem cells grown in a two-dimensional culture into a non-adherent culture plate; and centrifuging the non-adherent culture plate to uniformly position the brown adipose derived stem cells in the non-adherent culture plate, thereby forming non-naturally occurring three-dimensional brown adipose derived stem cell aggregates, wherein the aggregates consist of brown adipose derived stem cells. loading brown adipose derived stem cells grown in a two-dimensional culture into a non-adherent culture plate; and centrifuging the non-adherent culture plate to uniformly position the brown adipose derived stem cells in the non-adherent culture plate, thereby forming non-naturally occurring three-dimensional brown adipose derived stem cell aggregates, wherein the aggregates consist of brown adipose derived stem cells.
A method for synthesizing doped semiconductor particles on or in a host structure, comprising: adding one or more precursors to a liquid solvent; adding a host structure to the liquid solvent, where the host structure is in form of a solid phase; sorpting the one or more precursors onto surface of the host structure; redispersing the host structure in a reaction solvent; initiating a chemical reaction that involves the one or more precursors, where the chemical reaction results in particles formed in or on surface of the host structure, where initiating a chemical reaction occurs after sorpting the precursor onto surface of the host structure and the particles are sized less than 100 micrometers; separating the host structure, along with the particles formed in or on the surface of the host structure, from the reaction solvent; and releasing the particles from the host structure into a secondary solvent selected from a group consisting of nonpolar solvents, polar protic solvents and polar aprotic solvents, after the step of separating the host structure from the reaction solvent; wherein the particles are released from the host structure by dispersing the host structure into the secondary solvent and sonication of the secondary solvent, separating the released particles from the host structure by centrifugation and removing the host structure from the secondary solvent. adding one or more precursors to a liquid solvent; adding a host structure to the liquid solvent, where the host structure is in form of a solid phase; sorpting the one or more precursors onto surface of the host structure; redispersing the host structure in a reaction solvent; initiating a chemical reaction that involves the one or more precursors, where the chemical reaction results in particles formed in or on surface of the host structure, where initiating a chemical reaction occurs after sorpting the precursor onto surface of the host structure and the particles are sized less than 100 micrometers; separating the host structure, along with the particles formed in or on the surface of the host structure, from the reaction solvent; and releasing the particles from the host structure into a secondary solvent selected from a group consisting of nonpolar solvents, polar protic solvents and polar aprotic solvents, after the step of separating the host structure from the reaction solvent; wherein the particles are released from the host structure by dispersing the host structure into the secondary solvent and sonication of the secondary solvent, separating the released particles from the host structure by centrifugation and removing the host structure from the secondary solvent.
A benzodiazepine according to formula (I) wherein W is H; X is CH 2 ; n is 1; Y is CH 2 ; m is 1; Z is O; R 1 is CH 3 , CH 2 CH 3 , CH 2 CH 2 CH 3 , CH(CH 3 ) 2 or CH 2 CH(CH 3 ) 2 ; R 2 is 2-fluorophenyl, 2-chlorophenyl or 2-pyridyl; R 3 is Cl or Br; R 4 , R 5 and R 6 form the group-CR 8 =U-V= wherein R 8 is hydrogen, C 1-4 alkyl or C 1-3 hydroxyalkyl, U is N or CR 9 wherein R 9 is H, C 1-4 alkyl, C 1-3 hydroxyalkyl or C 1-4 alkoxy, V is N or CH and p is zero, or a pharmaceutically acceptable salt thereof, for use as a medicament, wherein the medicament is an orally inhaled and nasal drug product (OINDP) and the use is by administration to the respiratory tract, wherein the medicament is a) for use in sedation, hypnosis, anxiolysis, anesthesia, muscle relaxation or the treatment of convulsions, or b) for sedating or calming a patient selected from the group consisting of: (i) Children and infants undergoing a diagnostic or surgical procedure; (ii) children and infants prior to receiving intravenous anaesthesia or inhalational anaesthesia; (iii) patients for whom an intravenous access is difficult or impossible; and (iv) patients who suffer from a panic attack or epilepsy. W is H; X is CH 2 ; n is 1; Y is CH 2 ; m is 1; Z is O; R 1 is CH 3 , CH 2 CH 3 , CH 2 CH 2 CH 3 , CH(CH 3 ) 2 or CH 2 CH(CH 3 ) 2 ; R 2 is 2-fluorophenyl, 2-chlorophenyl or 2-pyridyl; R 3 is Cl or Br; R 4 , R 5 and R 6 form the group-CR 8 =U-V= wherein R 8 is hydrogen, C 1-4 alkyl or C 1-3 hydroxyalkyl, U is N or CR 9 wherein R 9 is H, C 1-4 alkyl, C 1-3 hydroxyalkyl or C 1-4 alkoxy, V is N or CH and p is zero, or a pharmaceutically acceptable salt thereof, for use as a medicament, wherein the medicament is an orally inhaled and nasal drug product (OINDP) and the use is by administration to the respiratory tract, wherein the medicament is a) for use in sedation, hypnosis, anxiolysis, anesthesia, muscle relaxation or the treatment of convulsions, or b) for sedating or calming a patient selected from the group consisting of: (i) Children and infants undergoing a diagnostic or surgical procedure; (ii) children and infants prior to receiving intravenous anaesthesia or inhalational anaesthesia; (iii) patients for whom an intravenous access is difficult or impossible; and (iv) patients who suffer from a panic attack or epilepsy. a) for use in sedation, hypnosis, anxiolysis, anesthesia, muscle relaxation or the treatment of convulsions, or b) for sedating or calming a patient selected from the group consisting of: (i) Children and infants undergoing a diagnostic or surgical procedure; (ii) children and infants prior to receiving intravenous anaesthesia or inhalational anaesthesia; (iii) patients for whom an intravenous access is difficult or impossible; and (iv) patients who suffer from a panic attack or epilepsy. (i) Children and infants undergoing a diagnostic or surgical procedure; (ii) children and infants prior to receiving intravenous anaesthesia or inhalational anaesthesia; (iii) patients for whom an intravenous access is difficult or impossible; and (iv) patients who suffer from a panic attack or epilepsy.
A filter converter for converting an impulse response signal indicative of an amplitude/frequency filter characteristic in a time domain into filter definition signal, the converter comprising: a complex modulated filter bank for filtering the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain to obtain a plurality of complex valued subband signals forming the filter definition signal, wherein each complex valued subband signal of the plurality of complex valued subband signals obtained by the complex modulated filter bank corresponds to an impulse response for a subband filter for a subband signal to be filtered by the subband filter , wherein at least one complex subband signal of the plurality of complex valued subband signals comprises at least two different non-vanishing values, wherein each complex valued subband signal of the plurality of complex valued subband signals is shorter than the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain, wherein the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain is a time domain FIR (Finite Impulse Response) filter, wherein the complex modulated filter bank is adapted to output, as the plurality of complex valued subband signals, L complex valued subband signals, wherein L is a positive integer greater than 1, and wherein the complex modulated filter bank is adapted for providing the L complex valued subband signals downsampled by a factor L . a complex modulated filter bank for filtering the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain to obtain a plurality of complex valued subband signals forming the filter definition signal, wherein each complex valued subband signal of the plurality of complex valued subband signals obtained by the complex modulated filter bank corresponds to an impulse response for a subband filter for a subband signal to be filtered by the subband filter , wherein at least one complex subband signal of the plurality of complex valued subband signals comprises at least two different non-vanishing values, wherein each complex valued subband signal of the plurality of complex valued subband signals is shorter than the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain, wherein the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain is a time domain FIR (Finite Impulse Response) filter, wherein the complex modulated filter bank is adapted to output, as the plurality of complex valued subband signals, L complex valued subband signals, wherein L is a positive integer greater than 1, and wherein the complex modulated filter bank is adapted for providing the L complex valued subband signals downsampled by a factor L .
A method for selectively determining a partial insulation resistance Rx of an outgoing line in a branched ungrounded power supply system which is monitored using an insulation monitoring device which actively superposes a square pulse measuring voltage Uq on the ungrounded power supply system , the method comprising the following steps: calculating partial insulation resistance Rx according to Rx = Ue/Ixstat with a stationary conductor-to-ground voltage Ue dropping via the outgoing line and a stationary partial current Ixstat measured in the outgoing line in a settled state, wherein Ue = Iges*Rfges applies to stationary conductor-to-ground voltage Ue with a total insulation resistance Rfges transmitted by the insulation monitoring device and a total measuring current Iges driven by known square pulse measuring voltage Uq, wherein total measuring current Iges is calculated from Iges = Uq/(Rfges+Ri) with a known inner resistance Ri of the insulation monitoring device , meaning partial insulation resistance Rx is calculated from Rx = Rfges*Uq / Rfges + Ri * Ixstat . calculating partial insulation resistance Rx according to Rx = Ue/Ixstat with a stationary conductor-to-ground voltage Ue dropping via the outgoing line and a stationary partial current Ixstat measured in the outgoing line in a settled state, wherein Ue = Iges*Rfges applies to stationary conductor-to-ground voltage Ue with a total insulation resistance Rfges transmitted by the insulation monitoring device and a total measuring current Iges driven by known square pulse measuring voltage Uq, wherein total measuring current Iges is calculated from Iges = Uq/(Rfges+Ri) with a known inner resistance Ri of the insulation monitoring device , meaning partial insulation resistance Rx is calculated from Rx = Rfges*Uq / Rfges + Ri * Ixstat .