mhurhangee/patent-ind-claim-en huggingface dataset:
Device for reversibly releasable attachment to teeth of an upper jaw or lower jaw, comprising: concave surface regions (41.1-41.4), each designed for contacting a lateral, in particular buccal, surface region of a tooth in order to form in each case a form-fit engagement, wherein masticatory surfaces (1.6) of all the teeth remain free when the device is attached to the teeth, such that a chewing movement is not impeded, wherein the surface regions (41.1-41.4) of the device and the surface regions of the teeth can respectively be brought into contact by an elastomechanical force and retained by means of the elastomechanical force when the device is attached to the teeth, wherein the device has a U shape, wherein the elastomechanical force is an elastic restoring force owing to deformation of the device , and the teeth prevent an elastically deformed region of the device from readopting its original undeformed shape when the device is attached to the teeth, characterized in that the device can be slightly bent open or spread apart at the ends of the "U" for mounting on the teeth. concave surface regions (41.1-41.4), each designed for contacting a lateral, in particular buccal, surface region of a tooth in order to form in each case a form-fit engagement, wherein masticatory surfaces (1.6) of all the teeth remain free when the device is attached to the teeth, such that a chewing movement is not impeded, wherein the surface regions (41.1-41.4) of the device and the surface regions of the teeth can respectively be brought into contact by an elastomechanical force and retained by means of the elastomechanical force when the device is attached to the teeth, wherein the device has a U shape, wherein the elastomechanical force is an elastic restoring force owing to deformation of the device , and the teeth prevent an elastically deformed region of the device from readopting its original undeformed shape when the device is attached to the teeth, characterized in that the device can be slightly bent open or spread apart at the ends of the "U" for mounting on the teeth.
A process for the treatment of acidic wastewater which comprises hydrochloric acid, nitric acid as an optional component, 0.1 to 30 wt.-% of one or more dissolved metals selected from the group consisting of aluminum and heavy metals other than precious metals, and 10 to 500 wt.-ppm of at least one dissolved precious metal, wherein the process comprises the successive steps to : adjusting the pH value of the wastewater to 6 to 8 to produce a first composition comprising a first precipitate and an aqueous phase having a pH value in the range of 6 to 8, adjusting the pH value of the first composition to >8 to 11 to produce a second composition comprising the first precipitate, a second precipitate and an aqueous phase having a pH value in the range of >8 to 11, separating the precipitates from the aqueous phase, passing the aqueous phase through a sand filter to produce an aqueous filtrate, and passing the aqueous filtrate through a regenerative cation exchanger comprising an acidic cation exchanger resin with chelating groups and a downstream non-regenerative cation scavenger comprising a scavenger resin with chelating sulfur containing groups to produce an aqueous salt solution with a total content of dissolved aluminum plus dissolved precious metals plus dissolved heavy metals other than precious metals of 0.1 to 10.0 wt.-ppm, wherein precious metals means silver, gold, rhenium, ruthenium, rhodium, palladium, osmium, iridium and platinum, and wherein heavy metals means metals and metalloids having a density >5 g/cm 3 . adjusting the pH value of the wastewater to 6 to 8 to produce a first composition comprising a first precipitate and an aqueous phase having a pH value in the range of 6 to 8, adjusting the pH value of the first composition to >8 to 11 to produce a second composition comprising the first precipitate, a second precipitate and an aqueous phase having a pH value in the range of >8 to 11, separating the precipitates from the aqueous phase, passing the aqueous phase through a sand filter to produce an aqueous filtrate, and passing the aqueous filtrate through a regenerative cation exchanger comprising an acidic cation exchanger resin with chelating groups and a downstream non-regenerative cation scavenger comprising a scavenger resin with chelating sulfur containing groups to produce an aqueous salt solution with a total content of dissolved aluminum plus dissolved precious metals plus dissolved heavy metals other than precious metals of 0.1 to 10.0 wt.-ppm, wherein precious metals means silver, gold, rhenium, ruthenium, rhodium, palladium, osmium, iridium and platinum, and wherein heavy metals means metals and metalloids having a density >5 g/cm 3 . wherein precious metals means silver, gold, rhenium, ruthenium, rhodium, palladium, osmium, iridium and platinum, and wherein heavy metals means metals and metalloids having a density >5 g/cm 3 .
The method of synthesis of 5-Selenocyanatouracil) of the formula R1: characterized in that : - in anhydrous conditions, the compound R2: reacts with compound R4: ClSeCN, which is the donor of selenocyanato (SeCN) group, - the compound R2 reacts with compound R4: ClSeCN which has been obtained by the reaction of the compound R3: KSeCN with chlorine gas. - in anhydrous conditions, the compound R2: reacts with compound R4: ClSeCN, which is the donor of selenocyanato (SeCN) group, - the compound R2 reacts with compound R4: ClSeCN which has been obtained by the reaction of the compound R3: KSeCN with chlorine gas.
A computer-implemented method of establishing an uncertainty for obtained values of a one-dimensional logging parameter mapped to a three-dimensional volume, comprising: relating the obtained values of the logging parameter to a volumetric parameter of the three-dimensional volume; obtaining a set of representative data points (401-405) relating the obtained values of the logging parameter to the volumetric parameter, wherein obtaining the representative set of data points (401-405) comprises sorting the values of the logging parameter into a plurality of bins defined over the volumetric parameter, and obtaining a representative data point for each selected bin; obtaining a plurality of regression curves related to the set of representative data points, wherein obtaining a regression curve includes: (i) adding a random error to data points of the set of representative data points (401-405) to obtain a set of randomized data points (411-415), and (ii) performing a regression analysis using the set of randomized data points (411-415); the method further comprising obtaining curve parameters for the regression curve and using the curve parameters to obtain realized data points of the logging parameter; and using the plurality of regression curves to establish the uncertainty for the values of the logging parameter in the three-dimensional volume, the method further comprising obtaining at least one confidence interval using the realized data points. relating the obtained values of the logging parameter to a volumetric parameter of the three-dimensional volume; obtaining a set of representative data points (401-405) relating the obtained values of the logging parameter to the volumetric parameter, wherein obtaining the representative set of data points (401-405) comprises sorting the values of the logging parameter into a plurality of bins defined over the volumetric parameter, and obtaining a representative data point for each selected bin; obtaining a plurality of regression curves related to the set of representative data points, wherein obtaining a regression curve includes: (i) adding a random error to data points of the set of representative data points (401-405) to obtain a set of randomized data points (411-415), and (ii) performing a regression analysis using the set of randomized data points (411-415); (i) adding a random error to data points of the set of representative data points (401-405) to obtain a set of randomized data points (411-415), and (ii) performing a regression analysis using the set of randomized data points (411-415); the method further comprising obtaining curve parameters for the regression curve and using the curve parameters to obtain realized data points of the logging parameter; and using the plurality of regression curves to establish the uncertainty for the values of the logging parameter in the three-dimensional volume, the method further comprising obtaining at least one confidence interval using the realized data points.
Amperometric biosensor to measure sulphite in food samples, characterized in that it comprises: a) a bi-enzymatic system that is composed of the enzymes human sulphite oxidase and peroxidase; b) a working electrode; c) a counter electrode; and d) a reference electrode; wherein the enzymes human sulphite oxidase and peroxidase are deposited on the surface of the working electrode and are covered with a dialysis membrane, and wherein the mixture of the enzymes is in turn, mixed with a chemical mediator. a) a bi-enzymatic system that is composed of the enzymes human sulphite oxidase and peroxidase; b) a working electrode; c) a counter electrode; and d) a reference electrode;
A lower abdomen garment in the form of a shorts-like main part comprising a waistband and an opening in the region of the genitals, through which the genitals can be guided into a pocket, the slot-like vertically extending opening being formed between two fabric fold portions of the main part , and the ends (4.1) of the portions that form the fabric folds each being connected to the main part by a seam arranged remotely from the slot-like opening , the pocket being designed as a bag that is open on one side and being arranged on the main part with the opening of said bag in front of the slot-like opening in the waistband region , the sides of the bag being connected to the main part in front of the slot-like opening by means of respective seams, and said seams between the bag and the main part respectively coinciding with the seams by means of which the main part is connected to the ends (4.1) of the portions that form the fabric folds.
A decoding method, comprising: a) receiving (S122) an encoded bitstream of a two-dimensional panorama picture, and determining an applicable spatial layout format of the two-dimensional panorama picture; b) parsing (S124) the encoded bitstream of the two-dimensional panorama picture for indication information used to indicate that sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format use a default spatial position relationship, to determine whether the spatial position relationship between the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format is the default spatial position relationship; and c) decoding (S126) the encoded bitstream of the two-dimensional panorama picture based on the applicable spatial layout format and the default spatial position relationship if the spatial position relationship between the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format is the default spatial position relationship; wherein d) if the spatial position relationship between the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format is the default spatial position relationship, the encoded bitstream does not include further information relative to said spatial position relationship between sub-pictures besides said indication information used to indicate that the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format use the default spatial position relationship. a) receiving (S122) an encoded bitstream of a two-dimensional panorama picture, and determining an applicable spatial layout format of the two-dimensional panorama picture; b) parsing (S124) the encoded bitstream of the two-dimensional panorama picture for indication information used to indicate that sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format use a default spatial position relationship, to determine whether the spatial position relationship between the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format is the default spatial position relationship; and c) decoding (S126) the encoded bitstream of the two-dimensional panorama picture based on the applicable spatial layout format and the default spatial position relationship if the spatial position relationship between the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format is the default spatial position relationship; wherein d) if the spatial position relationship between the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format is the default spatial position relationship, the encoded bitstream does not include further information relative to said spatial position relationship between sub-pictures besides said indication information used to indicate that the sub-pictures in the two-dimensional panorama picture in the applicable spatial layout format use the default spatial position relationship.
An ultrasound probe comprising: an ultrasound probe housing ; one or more ultrasound transducers disposed in the ultrasound probe housing; a dosimeter or ionizing radiation detector disposed in or attached to the ultrasound probe housing; and an monitoring device configured to receive radiation dose or radiation exposure data acquired by the dosimeter or ionizing radiation detector and characterised in that the monitoring device includes an electronic processor programmed to (i) detect excessive radiation dose or radiation exposure received by the ultrasound probe based on the radiation dose or radiation exposure data acquired by the dosimeter or ionizing radiation detector and (ii) output an alarm warning of the detection of excessive radiation dose or radiation exposure received by the ultrasound probe. an ultrasound probe housing ; one or more ultrasound transducers disposed in the ultrasound probe housing; a dosimeter or ionizing radiation detector disposed in or attached to the ultrasound probe housing; and an monitoring device configured to receive radiation dose or radiation exposure data acquired by the dosimeter or ionizing radiation detector and characterised in that the monitoring device includes an electronic processor programmed to (i) detect excessive radiation dose or radiation exposure received by the ultrasound probe based on the radiation dose or radiation exposure data acquired by the dosimeter or ionizing radiation detector and (ii) output an alarm warning of the detection of excessive radiation dose or radiation exposure received by the ultrasound probe.
Modulator for generating a modulated signal with a reduced transmit spectrum, comprising - a tone-phase shift keying, TPSK, unit configured to generate a TPSK-modulated signal, - a phase shifter configured to apply a predetermined phase shift to the TPSK-modulated signal output by the tone-phase shift keying unit to obtain a phase-shifted TPSK-modulated signal with reduced phase jumps, wherein the reduced phase jumps are reduced compared to the phase jumps of the TPSK-modulated signal output of the tone-phase shift keying unit; wherein the phase shifter is configured to minimize a maximum phase jump of the TPSK-modulated signal; characterised in that the modulator is configured to determine the predetermined phase shift Δφ p by evaluating all possible combinations of a final phase of a p-th symbol and a start phase of a p +1 symbol and setting the predetermined phase shift Δφ p to half of a maximum phase jump; and wherein the phase shifter is configured to apply a phase shift between π/4 and π/2 to every second symbol of the TPSK-modulated signal . - a tone-phase shift keying, TPSK, unit configured to generate a TPSK-modulated signal, - a phase shifter configured to apply a predetermined phase shift to the TPSK-modulated signal output by the tone-phase shift keying unit to obtain a phase-shifted TPSK-modulated signal with reduced phase jumps, wherein the reduced phase jumps are reduced compared to the phase jumps of the TPSK-modulated signal output of the tone-phase shift keying unit;
A pressure compensated subsea electrical system , comprising: a housing filled with a dielectric liquid , the housing having a first housing portion and a second housing portion in pressure communication with each other, the first housing portion comprising a transformer , and the second housing portion comprising a power converter ; a pressure compensator arranged to compensate pressure inside the housing, wherein the pressure compensator is enabled to compensate pressure in both the first housing portion and the second housing portion; and wherein the transformer is positioned to generate a natural convection flow of the dielectric liquid comprising a natural convection cooling circuit encompassing the power converter and the transformer . a housing filled with a dielectric liquid , the housing having a first housing portion and a second housing portion in pressure communication with each other, the first housing portion comprising a transformer , and the second housing portion comprising a power converter ; a pressure compensator arranged to compensate pressure inside the housing, wherein the pressure compensator is enabled to compensate pressure in both the first housing portion and the second housing portion; and wherein the transformer is positioned to generate a natural convection flow of the dielectric liquid comprising a natural convection cooling circuit encompassing the power converter and the transformer .
A composition for external application comprising an acrylic silicone graft copolymer, which contains 2 to 25 mass% of a constitutional unit represented by formula (I), 55 to 85 mass% of a constitutional unit represented by formula (II) and 2 to 20 mass% of a constitutional unit represented by formula (III): wherein R 1 is an alkyl group having 1 to 4 carbon atoms; R 2 is an alkylene group having 2 to 10 carbon atoms; and n is an integer of 1 to 100.
A data sending method performed by a first network node, comprising: allocating , by a Media Access Control, MAC, entity of the first network node, data packets to at least two hybrid automatic repeat request, HARQ, units corresponding to at least two cells, wherein the at least two cells use different radio access technologies, RATs, different RATs have different transmission time intervals, TTI, and/or different cyclic prefixes, CP, there is one HARQ unit per cell, and the HARQ unit is a HARQ entity; and sending the data packets to a second network node by using the at least two cells; wherein the first network node is an access network device, and the second network node is a terminal device; and before the allocating, the method further comprises: sending a second message to the terminal device, wherein the second message comprises configuration information of HARQ round trip time, RTT, timing of a cell corresponding to each of the different RATs, and configuration information of discontinuous reception, DRX, of a cell corresponding to each of the different RATs. allocating , by a Media Access Control, MAC, entity of the first network node, data packets to at least two hybrid automatic repeat request, HARQ, units corresponding to at least two cells, wherein the at least two cells use different radio access technologies, RATs, different RATs have different transmission time intervals, TTI, and/or different cyclic prefixes, CP, there is one HARQ unit per cell, and the HARQ unit is a HARQ entity; and sending the data packets to a second network node by using the at least two cells; wherein the first network node is an access network device, and the second network node is a terminal device; and before the allocating, the method further comprises: sending a second message to the terminal device, wherein the second message comprises configuration information of HARQ round trip time, RTT, timing of a cell corresponding to each of the different RATs, and configuration information of discontinuous reception, DRX, of a cell corresponding to each of the different RATs.
A mobile terminal , comprising: a flexible display unit comprising at least one flexible display configured to display a first screen information ; a sensing unit configured to sense at least one flexure of the flexible display unit ; and a controller configured to: divide the at least one flexible display into a first region and a second region at a boundary defined by a location of the at least one flexure in response to the sensed at least one flexure, and control the flexible display unit to display the first screen information on the first region and a second screen information on the second region , wherein the second screen information includes at least one second screen information item, characterized in that the second screen information is associated with the first screen information and the controller is further configured to control the flexible display unit to display detailed information corresponding to the at least one second screen information item when the at least one second screen information item is moved within a predetermined region at the boundary and execute a function corresponding to the at least one second screen information item when the at least one second screen information item is passed through the predetermined region and moved to the first region from the second region . a flexible display unit comprising at least one flexible display configured to display a first screen information ; a sensing unit configured to sense at least one flexure of the flexible display unit ; and a controller configured to: divide the at least one flexible display into a first region and a second region at a boundary defined by a location of the at least one flexure in response to the sensed at least one flexure, and control the flexible display unit to display the first screen information on the first region and a second screen information on the second region , wherein the second screen information includes at least one second screen information item, divide the at least one flexible display into a first region and a second region at a boundary defined by a location of the at least one flexure in response to the sensed at least one flexure, and control the flexible display unit to display the first screen information on the first region and a second screen information on the second region , wherein the second screen information includes at least one second screen information item, characterized in that the second screen information is associated with the first screen information and the controller is further configured to control the flexible display unit to display detailed information corresponding to the at least one second screen information item when the at least one second screen information item is moved within a predetermined region at the boundary and execute a function corresponding to the at least one second screen information item when the at least one second screen information item is passed through the predetermined region and moved to the first region from the second region .