mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a curve of an electrochromic device , comprising: processing the electrochromic device by thermoforming of a laminated body, wherein the electrochromic device comprises the laminated body which comprises: - a support comprising a resin substrate; - a first electrode layer on the support ; - an electrochromic layer on the first electrode layer ; - a second electrode layer disposed to face the first electrode layer ; and - an electrolyte layer , which fills the space between the first electrode layer and the second electrode layer , and is on the electrochromic layer , wherein the electrochromic layer has a structure where conductive or semiconductive particles having particle diameters of about 5 nm to about 50 nm are bonded on a surface of the first electode layer , and an organic electrochromic compound having a polar group is adsorbed on the surfaces of the conductive or semiconductive particles, wherein the thermoforming of the laminated body is performed with a convex mold and a concave mold without fixing an edge of the support . processing the electrochromic device by thermoforming of a laminated body, wherein the electrochromic device comprises the laminated body which comprises: - a support comprising a resin substrate; - a first electrode layer on the support ; - an electrochromic layer on the first electrode layer ; - a second electrode layer disposed to face the first electrode layer ; and - an electrolyte layer , which fills the space between the first electrode layer and the second electrode layer , and is on the electrochromic layer , - a support comprising a resin substrate; - a first electrode layer on the support ; - an electrochromic layer on the first electrode layer ; - a second electrode layer disposed to face the first electrode layer ; and - an electrolyte layer , which fills the space between the first electrode layer and the second electrode layer , and is on the electrochromic layer , wherein the electrochromic layer has a structure where conductive or semiconductive particles having particle diameters of about 5 nm to about 50 nm are bonded on a surface of the first electode layer , and an organic electrochromic compound having a polar group is adsorbed on the surfaces of the conductive or semiconductive particles, wherein the thermoforming of the laminated body is performed with a convex mold and a concave mold without fixing an edge of the support .
Method for the purification of Radium, in particular 226 Ra, for target preparation for 225 Ac production from available radioactive sources, comprising the following steps: a) detecting the quality of the Ra material to be purified wherein the detection of the quality of the Ra material is carried out by γ-spectrometry and by Inductively Coupled Plasma Optical Emission Spectroscopy, ICP-OES; b) leaching out Ra with a mineral acid from its storage vessel at least one time; c) pooling Ra leachings, wherein the pooled leachings are concentrated and are redissolved in a minimum volume of a mineral acid; d) carrying out a first extraction chromatography in order to separate chemically similar elements such as Ba, Sr, and Pb from the desired Ra; e) wherein said extraction chromatography in step d) is carried out on a solid support material having an extractant system coated thereon, comprising at least one compound in accordance with general formula I in at least one compound in accordance with general formula II, R10-OH Formula II wherein in formula I: R8 and R9 independently is H, C 1 - C 6 alkyl, or t-butyl; and wherein in formula II: R10 is C 4 to C 12 alkyl; and wherein HNO 3 or HCI is used as mobile phase; f) recovering Ra from the early fractions, whereas Ba and Sr are contained in fractions with higher retention time; and Pb is retained on the extractant system; g) pooling Ra fractions; h) concentrating the purified Ra-containing fractions; and i) wherein a decay product 222 Rn is removed from the Ra material. a) detecting the quality of the Ra material to be purified wherein the detection of the quality of the Ra material is carried out by γ-spectrometry and by Inductively Coupled Plasma Optical Emission Spectroscopy, ICP-OES; b) leaching out Ra with a mineral acid from its storage vessel at least one time; c) pooling Ra leachings, wherein the pooled leachings are concentrated and are redissolved in a minimum volume of a mineral acid; d) carrying out a first extraction chromatography in order to separate chemically similar elements such as Ba, Sr, and Pb from the desired Ra; e) wherein said extraction chromatography in step d) is carried out on a solid support material having an extractant system coated thereon, comprising at least one compound in accordance with general formula I in at least one compound in accordance with general formula II, R10-OH Formula II wherein in formula I: R8 and R9 independently is H, C 1 - C 6 alkyl, or t-butyl; and wherein in formula II: R10 is C 4 to C 12 alkyl; and wherein HNO 3 or HCI is used as mobile phase; wherein in formula I: R8 and R9 independently is H, C 1 - C 6 alkyl, or t-butyl; and wherein in formula II: R10 is C 4 to C 12 alkyl; and wherein HNO 3 or HCI is used as mobile phase; f) recovering Ra from the early fractions, whereas Ba and Sr are contained in fractions with higher retention time; and Pb is retained on the extractant system; g) pooling Ra fractions; h) concentrating the purified Ra-containing fractions; and i) wherein a decay product 222 Rn is removed from the Ra material.
A modular system for structuring or designing spaces, surfaces, or the like, comprising a component assembly, comprising at least two modular elements , whose base comprises at least three corners , and at least two connecting elements , each corner forming a connecting structure for connecting the modular element to a connecting element, said connecting structure being designed like an arc-shaped contour of the corner in conjunction with a void adjacent to the contour, the connecting element forming a pin for the connecting structures to be connected, said pin being formed congruent with the void so as to be able to be interlockingly inserted into the void, said connecting element forming a positioning device for positioning the connecting element at the modular element, said positioning device comprising an axis , said axis being formed congruent with the contour so as to be able to be arranged at said contour, said connecting elements being able to be arranged opposite one another at the connecting structure in such a manner that the axes and the pins align, characterized in that the modular element is designed as a box-shaped body , the body being formed by the base and frame walls peripherally surrounding the base, said frame walls extending on only one base side of the base or on both base sides of the base.
A circuit breaker accessory , comprising: a trip arm detection module , connected to a trip arm of a circuit breaker and configured to detect a movement track of the trip arm ; characterized in that the circuit breaker accessory comprises: a control module configured to: pre-store a plurality of tripping type tracks corresponding to a plurality of tripping types, the plurality of tripping type tracks comprising a single-line path representing an overcurrent fault tripping and a back-and-forth alternating path representing a residual current fault tripping, match the movement track to the pre-stored tripping type tracks, and determine a tripping type of the circuit breaker on the basis of a matching result. a trip arm detection module , connected to a trip arm of a circuit breaker and configured to detect a movement track of the trip arm ; characterized in that the circuit breaker accessory comprises: a control module configured to: pre-store a plurality of tripping type tracks corresponding to a plurality of tripping types, the plurality of tripping type tracks comprising a single-line path representing an overcurrent fault tripping and a back-and-forth alternating path representing a residual current fault tripping, match the movement track to the pre-stored tripping type tracks, and determine a tripping type of the circuit breaker on the basis of a matching result. pre-store a plurality of tripping type tracks corresponding to a plurality of tripping types, the plurality of tripping type tracks comprising a single-line path representing an overcurrent fault tripping and a back-and-forth alternating path representing a residual current fault tripping, match the movement track to the pre-stored tripping type tracks, and determine a tripping type of the circuit breaker on the basis of a matching result.
Heat sink device for a motor vehicle lighting module, comprising a base intended to receive, on a first face , a printed circuit board and comprising heat dissipation means on an opposite second face , the heat dissipation means comprising cooling fins that are formed by folds of at least one metal sheet, the cooling fins being joined to the base by way of an attachment between at least one of the folds and the base characterized in that the device comprises a cover made of stamped aluminum and intended to be attached in a sealtight manner to the first face of the base .
A production assembly for an isotope production system, the production assembly comprising: a mounting platform including a receiving stage that faces an exterior of the mounting platform, the mounting platform including a beam passage that opens to the receiving stage and a stage port that is positioned along the receiving stage and separate from the beam passage , wherein a particle beam is configured to project through the beam passage and through the receiving stage during operation of the isotope production system, and wherein the stage port is configured to provide or receive a fluid through the receiving stage during operation of the isotope production system; and a target assembly having a production chamber configured to hold a target material for isotope production, the target assembly including a mating side that is configured to removably engage the receiving stage during a mounting operation, the mating side including a target port and a beam cavity that is aligned with the production chamber , the target port being in flow communication with a body channel that extends through the target assembly , wherein the target port fluidically couples to the stage port and the beam passage aligns with the beam cavity as the target assembly is mounted to the receiving stage . a mounting platform including a receiving stage that faces an exterior of the mounting platform, the mounting platform including a beam passage that opens to the receiving stage and a stage port that is positioned along the receiving stage and separate from the beam passage , wherein a particle beam is configured to project through the beam passage and through the receiving stage during operation of the isotope production system, and wherein the stage port is configured to provide or receive a fluid through the receiving stage during operation of the isotope production system; and a target assembly having a production chamber configured to hold a target material for isotope production, the target assembly including a mating side that is configured to removably engage the receiving stage during a mounting operation, the mating side including a target port and a beam cavity that is aligned with the production chamber , the target port being in flow communication with a body channel that extends through the target assembly , wherein the target port fluidically couples to the stage port and the beam passage aligns with the beam cavity as the target assembly is mounted to the receiving stage .
Method for reconstructing dynamic image data, having the following steps: - time-dependent acquisition of magnetic resonance signals as raw data (RD) from an examination region (FoV) of a patient, wherein at least some of the raw data (RD) is assigned to different values of at least two movement parameters (BPt), wherein the at least two time-dependent movement parameters are the time and a respiratory condition or the time and a heart movement condition, - reconstruction of first time-dependent image data (BD 1 ), based on the acquired raw data (RD), - ascertainment of deformation fields (DF) based on first image data (BD 1 ) as a function of the at least two time-dependent movement parameters (BPt), - generation of corrected image data (BD k ) based on deformation fields (DF), the raw data (RD) and the first image data (BD 1 ), wherein for the generation of corrected image data (BD k ) based on deformation fields (DF), raw data (RD s ) synthesised for different values of the at least two time-dependent movement parameters (BP t ) is ascertained and raw data (RD) acquired on the basis of synthesised raw data (RD s ) is reallocated to changed values of movement parameters (BPt). - time-dependent acquisition of magnetic resonance signals as raw data (RD) from an examination region (FoV) of a patient, wherein at least some of the raw data (RD) is assigned to different values of at least two movement parameters (BPt), wherein the at least two time-dependent movement parameters are the time and a respiratory condition or the time and a heart movement condition, wherein at least some of the raw data (RD) is assigned to different values of at least two movement parameters (BPt), wherein the at least two time-dependent movement parameters are the time and a respiratory condition or the time and a heart movement condition, - reconstruction of first time-dependent image data (BD 1 ), based on the acquired raw data (RD), - ascertainment of deformation fields (DF) based on first image data (BD 1 ) as a function of the at least two time-dependent movement parameters (BPt), - generation of corrected image data (BD k ) based on deformation fields (DF), the raw data (RD) and the first image data (BD 1 ),
Combustion device , in particular a hydrogen combustion device, for a heater for heating at least one room and/or for heating at least one useful fluid, for providing an air/combustion gas mixture stream (M) composed of an air stream (A) and a combustion gas stream (G), in particular a hydrogen stream, having at least one predefinable air ratio λ in the mixture stream (M), and for combusting the mixture stream (M), wherein a heating power is generated by the combustion, wherein the combustion device comprises a control device and a combustion gas metering unit and/or an air delivery unit , wherein the control device is designed · to control the combustion gas metering unit depending on the heating power, wherein the combustion gas metering unit meters a relatively smaller combustion gas stream (G) at a relatively low heating power, and meters a relatively larger combustion gas stream (G) at relatively high heating power, and/or · to control the air delivery unit depending on the heating power, wherein the air delivery unit delivers a relatively larger air stream (A) at a relatively low heating power, and delivers relatively smaller air stream (A) at a relatively high heating power, characterized in that the control device is further designed to control the air ratio λ of the mixture stream (M) depending on a value Q of the relative heating power of the combustion device for the entire modulation range 0.05 <= Q <= 1 to a value within the air ratio value interval 0.15 / Q + 1 ≤ λ ≤ 0.175 / Q + 1.25 , wherein the air ratio λ characterizes a quantity ratio of air to combustion gas and is calculated as a quotient of a quantity of air actually present in the mixture stream (M) and a quantity of air required for stoichiometric combustion of the mixture stream (M). · to control the combustion gas metering unit depending on the heating power, wherein the combustion gas metering unit meters a relatively smaller combustion gas stream (G) at a relatively low heating power, and meters a relatively larger combustion gas stream (G) at relatively high heating power, and/or · to control the air delivery unit depending on the heating power, wherein the air delivery unit delivers a relatively larger air stream (A) at a relatively low heating power, and delivers relatively smaller air stream (A) at a relatively high heating power,
A mobile wireless communications device comprising: a portable housing ; a printed circuit board, PCB, carried by said portable housing; at least one electronic component (33a-33n) carried by said PCB; an electrically conductive enclosure coupled to said PCB and having a top spaced above said PCB over said at least one electronic component; the top of said electrically conductive enclosure having a slot therein defining a slot antenna; and a tuning element carried by said electrically conductive enclosure and positioned over the slot, characterised in that said tuning element comprises a dielectric material body and a conductive material layer on said dielectric material body. a portable housing ; a printed circuit board, PCB, carried by said portable housing; at least one electronic component (33a-33n) carried by said PCB; an electrically conductive enclosure coupled to said PCB and having a top spaced above said PCB over said at least one electronic component; the top of said electrically conductive enclosure having a slot therein defining a slot antenna; and a tuning element carried by said electrically conductive enclosure and positioned over the slot, characterised in that said tuning element comprises a dielectric material body and a conductive material layer on said dielectric material body.
An Internet of Things (IoT) device comprising: a memory; and a processor, wherein the processor is configured to: receive a pre-shared key unique to the IoT device; receive a first session group key from a device associated with a same local network as the IoT device that was generated based on a group master key and a first sequence number, the first session group key being valid for a time interval; and send an encrypted message to a device management server (DMS) to establish a secure channel with the DMS, the encrypted message comprising an identifier comprising an indication of the first sequence number, the encrypted message being encrypted based on the first session group key and the pre-shared key. a memory; and a processor, wherein the processor is configured to: receive a pre-shared key unique to the IoT device; receive a first session group key from a device associated with a same local network as the IoT device that was generated based on a group master key and a first sequence number, the first session group key being valid for a time interval; and send an encrypted message to a device management server (DMS) to establish a secure channel with the DMS, the encrypted message comprising an identifier comprising an indication of the first sequence number, the encrypted message being encrypted based on the first session group key and the pre-shared key. receive a pre-shared key unique to the IoT device; receive a first session group key from a device associated with a same local network as the IoT device that was generated based on a group master key and a first sequence number, the first session group key being valid for a time interval; and send an encrypted message to a device management server (DMS) to establish a secure channel with the DMS, the encrypted message comprising an identifier comprising an indication of the first sequence number, the encrypted message being encrypted based on the first session group key and the pre-shared key.
A chemical-mechanical polishing composition comprising: (a) wet-process ceria abrasive, (b) a surfactant comprising an amine-containing anchor group and ethylene oxide-propylene oxide stabilizing group, wherein the surfactant has an average molecular weight of from 1000 Daltons to 5000 Daltons, (c) an aromatic carboxylic acid or heteroaromatic carboxylic acid, and (d) water, wherein the polishing composition has a pH of about 3 to about 6. (a) wet-process ceria abrasive, (b) a surfactant comprising an amine-containing anchor group and ethylene oxide-propylene oxide stabilizing group, wherein the surfactant has an average molecular weight of from 1000 Daltons to 5000 Daltons, (c) an aromatic carboxylic acid or heteroaromatic carboxylic acid, and (d) water,
Organic semiconductive layer which is an electron transport layer and/or an electron injection layer and/or an n-type charge generation layer, the organic semiconductive layer comprising at least one compound of formula wherein R 1 and R 2 are each independently selected from C 1 to C 4 alkyl; Ar 1 is selected from C 6 to C 14 arylene or C 3 to C 12 heteroarylene; Ar 2 is independently selected from C 14 to C 40 arylene or C 8 to C 40 heteroarylene; R 3 is independently selected from H, C 1 to C 12 alkyl or C 10 to C 20 aryl; wherein each of Ar 1 , Ar 2 and R 3 may each independently be unsubstituted or substituted with at least one C 1 to C 12 alkyl group; n is 0 or 1; and m is 1 in case of n = 0; and m is 1 or 2 in case of n = 1. wherein R 1 and R 2 are each independently selected from C 1 to C 4 alkyl; Ar 1 is selected from C 6 to C 14 arylene or C 3 to C 12 heteroarylene; Ar 2 is independently selected from C 14 to C 40 arylene or C 8 to C 40 heteroarylene; R 3 is independently selected from H, C 1 to C 12 alkyl or C 10 to C 20 aryl; wherein each of Ar 1 , Ar 2 and R 3 may each independently be unsubstituted or substituted with at least one C 1 to C 12 alkyl group; n is 0 or 1; and m is 1 in case of n = 0; and m is 1 or 2 in case of n = 1.
A vascular device , comprising: a body having a first, collapsed configuration and a second, expanded configuration, the body comprised of a plurality of heat-set strands formed from a shape memory material; wherein the strands are braided such that when the body is in the second configuration, the strands form a plurality of pores and a plurality of apertures between the strands ; wherein the apertures are disposed at a longitudinal center region of the body ; wherein, when the body is in the second configuration, the pores at proximal and distal portions of the body are generally uniform in size and smaller in size than the apertures ; wherein the pores and the apertures are substantially the same size when the body is in the first configuration; and characterised in that a number of strands in each of a proximal, center, and distal radial cross sections of the body is the same. a body having a first, collapsed configuration and a second, expanded configuration, the body comprised of a plurality of heat-set strands formed from a shape memory material; wherein the strands are braided such that when the body is in the second configuration, the strands form a plurality of pores and a plurality of apertures between the strands ; wherein the apertures are disposed at a longitudinal center region of the body ; wherein, when the body is in the second configuration, the pores at proximal and distal portions of the body are generally uniform in size and smaller in size than the apertures ; wherein the pores and the apertures are substantially the same size when the body is in the first configuration; and characterised in that a number of strands in each of a proximal, center, and distal radial cross sections of the body is the same.