mhurhangee/patent-ind-claim-en huggingface dataset:
An electromagnetic wave detector comprising: a scintillator comprising: a two-dimensional perovskite having a polaronic emission Stokes' shifted by at least 50 nm, wherein the two-dimensional perovskite is selected from: (2,2'-(ethylenedioxy)bis(ethylammonium))PbCl 4 , (2,2'-(ethylenedioxy)bis(ethylammonium))PbBr 4 , ( n -butylammonium) 2 Pbl 4 , ( n -butylammonium) 2 PbBr 4 , and (N-(3-Aminopropyl)imidazole)PbBr 4 , the scintillator being configured to emit a luminescence in response to incident radiation ; a photodetector configured to convert the luminescence into electrical signals; and a detector circuit electrically connected to the photodetector and configured to process and / or analyse the electrical signals. (2,2'-(ethylenedioxy)bis(ethylammonium))PbCl 4 , (2,2'-(ethylenedioxy)bis(ethylammonium))PbBr 4 , ( n -butylammonium) 2 Pbl 4 , ( n -butylammonium) 2 PbBr 4 , and (N-(3-Aminopropyl)imidazole)PbBr 4 , the scintillator being configured to emit a luminescence in response to incident radiation ; a photodetector configured to convert the luminescence into electrical signals; and a detector circuit electrically connected to the photodetector and configured to process and / or analyse the electrical signals.
A dental restoration system comprising: a zirconia-based dental appliance; and an adhesive composition applied to the surface of the zirconia-based dental appliance, comprising: a. a first acidic monomer having an ethylenically unsaturated polymerizable group of the general formula CH 2 =CX-C(O)-R wherein X is hydrogen, methyl or a lower alkyl group, and wherein R comprises a phosphoric acid group or phosphonic acid group having the general formula -OP(O)(OH) 2 , -OP(O)(OH), -C-P(O)(OH) 2 or -C-P(O)(OH); b. a second acidic monomer having an ethylenically unsaturated polymerizable group of the general formula CH 2 =CX-C(O)-R 1 wherein X is hydrogen, methyl or a lower alkyl group, and wherein R 1 comprises a carboxylic acid group; c. wherein the first acidic monomer comprises 1% to 5% of the adhesive composition by weight; and d. wherein the second acidic monomer comprises 2% to 10% of the adhesive composition by weight. a zirconia-based dental appliance; and an adhesive composition applied to the surface of the zirconia-based dental appliance, comprising: a. a first acidic monomer having an ethylenically unsaturated polymerizable group of the general formula CH 2 =CX-C(O)-R wherein X is hydrogen, methyl or a lower alkyl group, and wherein R comprises a phosphoric acid group or phosphonic acid group having the general formula -OP(O)(OH) 2 , -OP(O)(OH), -C-P(O)(OH) 2 or -C-P(O)(OH); b. a second acidic monomer having an ethylenically unsaturated polymerizable group of the general formula CH 2 =CX-C(O)-R 1 wherein X is hydrogen, methyl or a lower alkyl group, and wherein R 1 comprises a carboxylic acid group; c. wherein the first acidic monomer comprises 1% to 5% of the adhesive composition by weight; and d. wherein the second acidic monomer comprises 2% to 10% of the adhesive composition by weight. a. a first acidic monomer having an ethylenically unsaturated polymerizable group of the general formula CH 2 =CX-C(O)-R wherein X is hydrogen, methyl or a lower alkyl group, and wherein R comprises a phosphoric acid group or phosphonic acid group having the general formula -OP(O)(OH) 2 , -OP(O)(OH), -C-P(O)(OH) 2 or -C-P(O)(OH); b. a second acidic monomer having an ethylenically unsaturated polymerizable group of the general formula CH 2 =CX-C(O)-R 1 wherein X is hydrogen, methyl or a lower alkyl group, and wherein R 1 comprises a carboxylic acid group; c. wherein the first acidic monomer comprises 1% to 5% of the adhesive composition by weight; and d. wherein the second acidic monomer comprises 2% to 10% of the adhesive composition by weight.
Method for producing a short-circuit rotor of an asynchronous machine using the following steps: - provision of a laminated core of the rotor with substantially axially running slots , - insertion of conductor bars into the slots made of a first conductive material, such that the conductor bars protrude out of the end faces of the laminated core , wherein the laminated core is skewed, in that the axial skew over the axial length of the laminated core is 0.3 to 3 times a slot pitch of the rotor, wherein the conductor bars protrude in a skewed manner out of the laminated core , wherein the conductor bars , but at least the overhangs of the conductor bars out of the laminated core of the rotor , are coated with a galvanic layer made of aluminium, tin or a solderable alloy, wherein the coating serves as a lubricating layer when axially pushing onto the overhangs of the conductor bars , - provision of a specifiable number of pre-stamped individual laminations , each with a specified contour, made of a second conductive material, - individual, axial pressing of these individual laminations one after the other onto the conductor bars protruding from the end face of the laminated core , wherein the individual laminations short-circuit the conductor bars protruding from an end face and thus form a short-circuit ring , which is composed of multiple individual laminations . - provision of a laminated core of the rotor with substantially axially running slots , - insertion of conductor bars into the slots made of a first conductive material, such that the conductor bars protrude out of the end faces of the laminated core , wherein the laminated core is skewed, in that the axial skew over the axial length of the laminated core is 0.3 to 3 times a slot pitch of the rotor, wherein the conductor bars protrude in a skewed manner out of the laminated core , wherein the conductor bars , but at least the overhangs of the conductor bars out of the laminated core of the rotor , are coated with a galvanic layer made of aluminium, tin or a solderable alloy, wherein the coating serves as a lubricating layer when axially pushing onto the overhangs of the conductor bars , - provision of a specifiable number of pre-stamped individual laminations , each with a specified contour, made of a second conductive material, - individual, axial pressing of these individual laminations one after the other onto the conductor bars protruding from the end face of the laminated core , wherein the individual laminations short-circuit the conductor bars protruding from an end face and thus form a short-circuit ring , which is composed of multiple individual laminations .
Equipment for preparing vehicle dashboards comprising: - a framework , - at least one cross-member anchoring device arranged to receive a dashboard cross-member, characterised in that the equipment for preparing dashboards further comprises: - a first arm that is movable with respect to the framework with at least one first air-conditioner anchoring device arranged to receive a dashboard air-conditioner unit, - a second arm that is movable with respect to the framework with at least one second air-conditioner anchoring device arranged to receive the dashboard air-conditioner unit, and in that : - said at least one first air-conditioner anchoring device is mounted in a movable manner with respect to the first movable arm , - said at least one second air-conditioner anchoring device is mounted in a movable manner with respect to the second movable arm , - said at least one cross-member anchoring device is removable from the framework . - a framework , - at least one cross-member anchoring device arranged to receive a dashboard cross-member, - a first arm that is movable with respect to the framework with at least one first air-conditioner anchoring device arranged to receive a dashboard air-conditioner unit, - a second arm that is movable with respect to the framework with at least one second air-conditioner anchoring device arranged to receive the dashboard air-conditioner unit, - said at least one first air-conditioner anchoring device is mounted in a movable manner with respect to the first movable arm , - said at least one second air-conditioner anchoring device is mounted in a movable manner with respect to the second movable arm , - said at least one cross-member anchoring device is removable from the framework .
Method for producing a metal component with at least one recess, comprising the steps: - introducing a metal component into a heating device, wherein the metal component comprises at least one carrier material at least partially filling a recess; and - removing at least a part of the carrier material , thereby exposing at least a region of the recess by: transferring at least a part of the carrier material into the gas phase and condensing the gaseous carrier material in a condensation region , the temperature of which corresponds to or is below the solidus temperature of the carrier material , wherein the carrier material is a metallic carrier material and/or a ceramic carrier material, wherein the metallic carrier material is selected from: magnesium, aluminum, zinc, antimony, and mixtures or alloys thereof. - introducing a metal component into a heating device, wherein the metal component comprises at least one carrier material at least partially filling a recess; and - removing at least a part of the carrier material , thereby exposing at least a region of the recess by: transferring at least a part of the carrier material into the gas phase and condensing the gaseous carrier material in a condensation region , the temperature of which corresponds to or is below the solidus temperature of the carrier material ,
A compound of the formula: wherein X 1 + is: or or a hydrate thereof.
A blood processing system, comprising: a disposable flow circuit configured for the flow of whole blood and/or a separated blood component therethrough; a centrifuge configured to receive at least a portion of the disposable flow circuit and separate at least one blood component from blood flowing through the disposable flow circuit ; and a monitoring system configured to directly monitor the disposable flow circuit received by the centrifuge and comprising a light source configured to illuminate at least part of said portion of the disposable flow circuit received by the centrifuge , a light detector configured to receive an image of said at least part of said portion of the disposable flow circuit , and a controller to obtain an output on the basis of the image received by the light detector and to control the separation of said at least one blood component from the blood in the disposable flow circuit based at least in part on said output, wherein the light detector is configured to receive a one-dimensional image of said at least part of said portion of the disposable flow circuit and is a linear array-type sensor, and wherein the controller is configured to read out the light detector in a scan mode, to combine two or more of the images received by the light detector and to generate the two-dimensional output. a disposable flow circuit configured for the flow of whole blood and/or a separated blood component therethrough; a centrifuge configured to receive at least a portion of the disposable flow circuit and separate at least one blood component from blood flowing through the disposable flow circuit ; and a monitoring system configured to directly monitor the disposable flow circuit received by the centrifuge and comprising a light source configured to illuminate at least part of said portion of the disposable flow circuit received by the centrifuge , a light detector configured to receive an image of said at least part of said portion of the disposable flow circuit , and a controller to obtain an output on the basis of the image received by the light detector and to control the separation of said at least one blood component from the blood in the disposable flow circuit based at least in part on said output, a light source configured to illuminate at least part of said portion of the disposable flow circuit received by the centrifuge , a light detector configured to receive an image of said at least part of said portion of the disposable flow circuit , and a controller to obtain an output on the basis of the image received by the light detector and to control the separation of said at least one blood component from the blood in the disposable flow circuit based at least in part on said output, wherein the light detector is configured to receive a one-dimensional image of said at least part of said portion of the disposable flow circuit and is a linear array-type sensor, and wherein the controller is configured to read out the light detector in a scan mode, to combine two or more of the images received by the light detector and to generate the two-dimensional output.
A method for preparing a flowable liquid fertilizer, the method comprising the steps of: i. providing an aqueous dispersion of zinc oxide with a pH of greater than 9; and ii. introducing a phosphate salt to the aqueous dispersion of zinc oxide having a pH of greater than 9 to thereby form the flowable liquid fertilizer; wherein the phosphate salt is ammonium phosphate or potassium phosphate; wherein the molar ratio of moles of phosphorus within the phosphate salt to the moles of zinc within zinc oxide in the flowable liquid fertilizer is at least 1.1:1, subjecting said fertilizer to emulsification techniques as to obtain a dispersion having a particle size of less than 1 micron to thereby provide a zinc phosphate dispersed within water. i. providing an aqueous dispersion of zinc oxide with a pH of greater than 9; and ii. introducing a phosphate salt to the aqueous dispersion of zinc oxide having a pH of greater than 9 to thereby form the flowable liquid fertilizer; wherein the molar ratio of moles of phosphorus within the phosphate salt to the moles of zinc within zinc oxide in the flowable liquid fertilizer is at least 1.1:1, subjecting said fertilizer to emulsification techniques as to obtain a dispersion having a particle size of less than 1 micron to thereby provide a zinc phosphate dispersed within water.
An electro-optical modulator, comprising - at least one optical waveguide ; - a plurality of segments (A - E), wherein each one of the segments (A - E) comprises at least one waveguide electrode (111a - 111e, 121a - 121e) for supplying a voltage to the optical waveguide , and wherein - the segments (A - E) are arranged one behind the other along the optical waveguide, and - each one of the segments (A - E) forms an electrical resonant circuit, wherein the segments (A - E) are configured in such a way that the resonance frequency ( f R A − f R E ) of the electrical resonant circuit of at least one of the segments (A - E) lies within the frequency range of an electrical signal supplied to the driver units (2a - 2e), characterized in that each one of the segments (A - E) comprises its own driver unit (2a - 2e) electrically connected to the waveguide electrode (111a - 111e, 121a - 121e) of the segment (A - E) and for supplying an amplified electric signal to the waveguide electrode (111a - 111e, 121a- 121e), and each one of the electrical resonant circuits formed by the segments (A - E) is formed as RLC resonant circuit, wherein a capacitive component of the RLC resonant circuits is formed by at least the capacity (C1, C2) of a capacitive section of the optical waveguide , and wherein each one of the capacitive sections comprises a diode structure. - at least one optical waveguide ; - a plurality of segments (A - E), wherein each one of the segments (A - E) comprises at least one waveguide electrode (111a - 111e, 121a - 121e) for supplying a voltage to the optical waveguide , and wherein - the segments (A - E) are arranged one behind the other along the optical waveguide, and - each one of the segments (A - E) forms an electrical resonant circuit, wherein the segments (A - E) are configured in such a way that the resonance frequency ( f R A − f R E ) of the electrical resonant circuit of at least one of the segments (A - E) lies within the frequency range of an electrical signal supplied to the driver units (2a - 2e), characterized in that each one of the segments (A - E) comprises its own driver unit (2a - 2e) electrically connected to the waveguide electrode (111a - 111e, 121a - 121e) of the segment (A - E) and for supplying an amplified electric signal to the waveguide electrode (111a - 111e, 121a- 121e), and each one of the electrical resonant circuits formed by the segments (A - E) is formed as RLC resonant circuit, wherein a capacitive component of the RLC resonant circuits is formed by at least the capacity (C1, C2) of a capacitive section of the optical waveguide , and wherein each one of the capacitive sections comprises a diode structure.
A method of preparation of crosslinked polysaccharide materials according to the general formula (I) polysaccharide1-R 1 -N=CH-polysaccharide2 (I) where polysaccharide1 and polysaccharide2 are identical or different polysaccharides selected from the group comprising hyaluronan, chondroitin sulfate, carboxymethyl cellulose and pharmaceutically acceptable derivatives and/or salts thereof and R 1 is C 1 -C 30 alkyl residue, C 1 -C 30 alkylaryl residue or C 1 -C 30 alkylheteroaryl residue, optionally containing one or more identical or different heteroatoms selected from the group comprising N, O, S, characterized in that an aqueous solution of aldehyde of polysaccharide 2 according to the general formula III polysaccharide2-CH=O (III), where the substitution degree of aldehyde in polysaccharide2 is within the range of 1 to 50 %, is added to an aqueous solution of polysaccharide 1 substituted on the site of amino group by a photoremovable group, according to the general formula II polysaccharide1-R 1 -NH-CO-O-CH 2 -R 2 (II), where R 1 is defined above; R 2 is an aromatic system, and where the substitution degree of carbamate in polysaccharide 1 is within the range of 1 to 10 %, and the formed mixture is subjected to electromagnetic radiation and deoxygenation simultaneously. where polysaccharide1 and polysaccharide2 are identical or different polysaccharides selected from the group comprising hyaluronan, chondroitin sulfate, carboxymethyl cellulose and pharmaceutically acceptable derivatives and/or salts thereof and R 1 is C 1 -C 30 alkyl residue, C 1 -C 30 alkylaryl residue or C 1 -C 30 alkylheteroaryl residue, optionally containing one or more identical or different heteroatoms selected from the group comprising N, O, S, characterized in that an aqueous solution of aldehyde of polysaccharide 2 according to the general formula III polysaccharide2-CH=O (III), where the substitution degree of aldehyde in polysaccharide2 is within the range of 1 to 50 %, is added to an aqueous solution of polysaccharide 1 substituted on the site of amino group by a photoremovable group, according to the general formula II polysaccharide1-R 1 -NH-CO-O-CH 2 -R 2 (II), where R 1 is defined above; R 2 is an aromatic system, and where the substitution degree of carbamate in polysaccharide 1 is within the range of 1 to 10 %, and the formed mixture is subjected to electromagnetic radiation and deoxygenation simultaneously. where R 1 is defined above; R 2 is an aromatic system, and where the substitution degree of carbamate in polysaccharide 1 is within the range of 1 to 10 %, and the formed mixture is subjected to electromagnetic radiation and deoxygenation simultaneously.
A V2X communication method performed by a first communication device, the method comprising the steps of: • obtaining (step 101) an identification set, wherein the identification set comprises one or more identifications, wherein each identification among the one or more identifications is associated with a different moving subject among multiple moving subjects, and a risk of collision between each moving subject among the multiple moving subjects and a first moving subject associated with the first communication device meets a preset condition, • when a channel busy ratio of a communication connection channel of the first communication device is greater than a first threshold, sending (step 102) configuration information of a standby communication connection channel to a second communication device, wherein the configuration information comprises the identification set, and the configuration information is used by the second communication device to establish the standby communication connection channel with the first communication device after the second communication device determines that an identification of a moving subject associated with the second communication device belongs to the identification set; and • transmitting (step 103) a V2X message to the second communication device through the standby communication connection channel when the channel busy ratio is greater than a second threshold, wherein the second threshold is greater than the first threshold. • obtaining (step 101) an identification set, wherein the identification set comprises one or more identifications, wherein each identification among the one or more identifications is associated with a different moving subject among multiple moving subjects, and a risk of collision between each moving subject among the multiple moving subjects and a first moving subject associated with the first communication device meets a preset condition, • when a channel busy ratio of a communication connection channel of the first communication device is greater than a first threshold, sending (step 102) configuration information of a standby communication connection channel to a second communication device, wherein the configuration information comprises the identification set, and the configuration information is used by the second communication device to establish the standby communication connection channel with the first communication device after the second communication device determines that an identification of a moving subject associated with the second communication device belongs to the identification set; and • transmitting (step 103) a V2X message to the second communication device through the standby communication connection channel when the channel busy ratio is greater than a second threshold, wherein the second threshold is greater than the first threshold.