mhurhangee/patent-ind-claim-en huggingface dataset:
An ink set comprising an inkjet ink, and a treatment liquid used in combination with the inkjet ink, wherein the inkjet ink comprises a pigment, a water-soluble organic solvent, a surfactant and water, the water-soluble organic solvent comprises a glycol ether-based organic solvent (A) represented by general formula shown below, wherein the water-soluble organic solvent also comprises a diol-based solvent (B) having a surface tension at 25°C of 30 to 50 mN/m, the treatment liquid comprises a coagulant and a pH adjuster, the coagulant comprises calcium nitrate in an amount of 6.8 to 20.8% by mass relative to a total mass of the treatment liquid, the pH adjuster comprises any one of alkanolamines, ammonia water, inorganic acids, and organic acids, and in the treatment liquid, an amount of compounds having three or more hydroxyl groups is not more than 15% by mass relative to a total mass of the treatment liquid: General formula : R1-(-O-CH 2 CH 2 -)n-OH wherein R1 represents an alkyl group of 2 to 4 carbon atoms which may have a branched structure, and n represents 2 or 3. the inkjet ink comprises a pigment, a water-soluble organic solvent, a surfactant and water, the water-soluble organic solvent comprises a glycol ether-based organic solvent (A) represented by general formula shown below, wherein the water-soluble organic solvent also comprises a diol-based solvent (B) having a surface tension at 25°C of 30 to 50 mN/m, the treatment liquid comprises a coagulant and a pH adjuster, the coagulant comprises calcium nitrate in an amount of 6.8 to 20.8% by mass relative to a total mass of the treatment liquid, the pH adjuster comprises any one of alkanolamines, ammonia water, inorganic acids, and organic acids, and in the treatment liquid, an amount of compounds having three or more hydroxyl groups is not more than 15% by mass relative to a total mass of the treatment liquid: General formula : R1-(-O-CH 2 CH 2 -)n-OH wherein R1 represents an alkyl group of 2 to 4 carbon atoms which may have a branched structure, and n represents 2 or 3.
Method for mounting and fixing of a substrate on one structure side of the substrate , which side has structures , with a mounting apparatus with a mounting element with a flat mounting surface for supporting the structures and with a suction area (F 2 ) which penetrates the mounting surface solely in an outer ring surface through a continuously and controllable fluid flow, which suctions the substrate , characterized in that the substrate is kept by the structures separated at a distance (H) from the mounting surface , wherein the continuously and controllable fluid flow, which suctions the substrate , is produced in the space between the substrate and the mounting surface .
A refrigerator comprising: a cabinet provided with a storage compartment ; an inner case to define an appearance of the storage compartment ; a first door pivotally mounted to the cabinet , to open or close one side of the storage compartment ; and a second door pivotally mounted to the cabinet , to open or close the other side of the storage compartment , the second door is provided with a pillar rotatable to come into contact with the first door , wherein the pillar is configured to rotate on the second door in accordance with rotation angles of the first door in case that the second door stops, wherein the first door is provided with a first door magnetic member having magnetic force; the second door is provided with a second door magnetic member having magnetic force; and the pillar is provided with a first pillar magnetic member to magnetically interfere with the first door magnetic member , and a second pillar magnetic member to magnetically interfere with the second door magnetic member , characterized in that the first door is further provided with a door dike magnetic member having magnetic force. a cabinet provided with a storage compartment ; an inner case to define an appearance of the storage compartment ; a first door pivotally mounted to the cabinet , to open or close one side of the storage compartment ; and a second door pivotally mounted to the cabinet , to open or close the other side of the storage compartment , the second door is provided with a pillar rotatable to come into contact with the first door , wherein the pillar is configured to rotate on the second door in accordance with rotation angles of the first door in case that the second door stops, wherein the first door is provided with a first door magnetic member having magnetic force; the second door is provided with a second door magnetic member having magnetic force; and the pillar is provided with a first pillar magnetic member to magnetically interfere with the first door magnetic member , and a second pillar magnetic member to magnetically interfere with the second door magnetic member ,
Handheld stirring or mixing device, for example a hand mixer , comprising an electric motor received in a housing for selectively driving different work tools, such as a beater or dough hook or immersion blender , and comprising an actuation element for opening or closing a switch for turning the electric motor on/off, wherein the switch can be operated in short-term operation or in continuous operation, wherein the different work tools can be inserted in different openings (26, 27; 28) in the housing and can be driven by the electric motor , wherein the plurality of openings (26, 27; 28) in the housing can be selectively closed by means of a slide plate in order to attach different work tools and wherein the slide plate can be moved between a first and second end position , in which positions either the one or more openings for one tool or the other opening for the other tool are closed.
A method for reducing optical distortion in a transparent substrate integrated in a larger structure, said method comprising: contacting a first heat source to a first side of the transparent substrate, said first heat source in communication with a first controller; positioning a second heat source at a predetermined distance from a second side of the transparent substrate, said second heat source in communication with the first or a second controller; activating the first and second heat sources; increasing the surface temperature of the first and second sides of the transparent substrate in situ to a predetermined temperature; maintaining the surface temperature of the first and second sides of the transparent substrate at predetermined temperatures for predetermined durations. contacting a first heat source to a first side of the transparent substrate, said first heat source in communication with a first controller; positioning a second heat source at a predetermined distance from a second side of the transparent substrate, said second heat source in communication with the first or a second controller; activating the first and second heat sources; increasing the surface temperature of the first and second sides of the transparent substrate in situ to a predetermined temperature; maintaining the surface temperature of the first and second sides of the transparent substrate at predetermined temperatures for predetermined durations.
Process for the production of ethylene carbonate and/or ethylene glycol comprising: a) supplying an overhead absorber stream withdrawn from an absorber to a vapor-liquid separator to yield an aqueous bottoms stream and a recycle gas stream ; b) supplying an aqueous process stream comprising one or more impurities to a distillation apparatus to yield an overhead impurities stream and a purified aqueous process stream , wherein the aqueous process stream supplied to the distillation apparatus comprises at least a portion of the aqueous bottoms stream withdrawn from the vapor-liquid separator , wherein the overhead impurities stream is supplied to a condenser and is cooled to a temperature in the range of from 5 to 95 °C, wherein the cooled overhead impurities stream is split into a reflux stream which is recycled to the distillation apparatus and an overhead impurities stream ; c) supplying at least a portion of the purified aqueous process stream and an ethylene oxide product stream to the absorber; and d) contacting the ethylene oxide product stream with the purified aqueous process stream in the absorber in the presence of one or more carboxylation and hydrolysis catalysts to yield a fat absorbent stream comprising ethylene carbonate and/or ethylene glycol. a) supplying an overhead absorber stream withdrawn from an absorber to a vapor-liquid separator to yield an aqueous bottoms stream and a recycle gas stream ; b) supplying an aqueous process stream comprising one or more impurities to a distillation apparatus to yield an overhead impurities stream and a purified aqueous process stream , wherein the aqueous process stream supplied to the distillation apparatus comprises at least a portion of the aqueous bottoms stream withdrawn from the vapor-liquid separator , wherein the overhead impurities stream is supplied to a condenser and is cooled to a temperature in the range of from 5 to 95 °C, wherein the cooled overhead impurities stream is split into a reflux stream which is recycled to the distillation apparatus and an overhead impurities stream ; c) supplying at least a portion of the purified aqueous process stream and an ethylene oxide product stream to the absorber; and d) contacting the ethylene oxide product stream with the purified aqueous process stream in the absorber in the presence of one or more carboxylation and hydrolysis catalysts to yield a fat absorbent stream comprising ethylene carbonate and/or ethylene glycol.
A method of using a spring energized lip seal to counteract shrinkage or expansion at extreme temperatures comprising the steps: placing a seal assembly in a housing to seal against a surface , wherein the seal assembly comprises: a seal element comprising an inside flange , an outside flange , and a center channel section , which together define a seal cavity , said center channel section comprising a channel defining a receiving space; a locking ring comprising a first section and a second section extending from the first section , said second section having a tip extending into the receiving space of the channel , said first section of the locking ring comprising a leaf spring engaging with the housing ; a first loading spring biasing against a first surface of the second section and against the inside flange ; a second loading spring biasing against a second surface of the second section and against the outside flange ; securing the seal assembly against rotation relative to the housing or the surface . a seal element comprising an inside flange , an outside flange , and a center channel section , which together define a seal cavity , said center channel section comprising a channel defining a receiving space; a locking ring comprising a first section and a second section extending from the first section , said second section having a tip extending into the receiving space of the channel , said first section of the locking ring comprising a leaf spring engaging with the housing ; a first loading spring biasing against a first surface of the second section and against the inside flange ; a second loading spring biasing against a second surface of the second section and against the outside flange ; securing the seal assembly against rotation relative to the housing or the surface .
A method for determining the shell phenotype of an E. oleifera or E. guineensis palm plant or seed, the method comprising, providing a sample from the plant or seed; and determining from the sample the genotype of at least one polymorphic marker, characterized in that : the genotype of at least one polymorphic marker is in the genomic region corresponding to SEQ ID NO: 8219; or the at least one polymorphic marker is selected from the group consisting of the polymorphisms corresponding to SEQ ID NOs: 922 - 2194; and wherein heterozygosity within the region indicates the presence of the tenera shell phenotype. the genotype of at least one polymorphic marker is in the genomic region corresponding to SEQ ID NO: 8219; or the at least one polymorphic marker is selected from the group consisting of the polymorphisms corresponding to SEQ ID NOs: 922 - 2194; and wherein heterozygosity within the region indicates the presence of the tenera shell phenotype.
A fluid flow sensing and bubble detecting apparatus, comprising: - a housing provided with a cavity configured to receive a tube through which in use conductive fluid flows, wherein the conductive fluid is blood and wherein the tube is part of an extracorporeal blood circuit; and - a fluid flow sensing and bubble detecting electrical sensor assembly supported by the housing and configured to sense the flow of conductive fluid flowing through the tube and to detect bubbles in the conductive fluid; characterized in that : the fluid flow sensing and bubble detecting apparatus further comprises: - an electrically grounded Electro-Magnetic Interference (EMI) shielding arranged between at least a part of the sensor assembly and the cavity such that the EMI shielding protects the sensor assembly from EMI emanating from the tube while received within the cavity . - a housing provided with a cavity configured to receive a tube through which in use conductive fluid flows, wherein the conductive fluid is blood and wherein the tube is part of an extracorporeal blood circuit; and - a fluid flow sensing and bubble detecting electrical sensor assembly supported by the housing and configured to sense the flow of conductive fluid flowing through the tube and to detect bubbles in the conductive fluid; - an electrically grounded Electro-Magnetic Interference (EMI) shielding arranged between at least a part of the sensor assembly and the cavity such that the EMI shielding protects the sensor assembly from EMI emanating from the tube while received within the cavity .
An additive manufacturing material for powder rapid prototyping manufacturing, comprising: a first powder containing a ceramic as a main component; and a second powder containing a metal as a main component, wherein the metal is an elemental substance of a metal element selected from the group consisting of magnesium (Mg), aluminum (Al), titanium (Ti), chromium (Cr), manganese (Mn), iron (Fe), cobalt (Co), nickel (Ni), copper (Cu), zinc (Zn), zirconium (Zr), gold (Au), silver (Ag), platinum (Pt), iridium (Ir), bismuth (Bi), niobium (Nb), molybdenum (Mo), tin (Sn), tungsten (W), and lead (Pb), or an alloy of the metal element and one or more other elements, an average particle diameter D 1 of the first powder and an average particle diameter D 2 of the second powder fulfil D 1 ≤ 0.5 × D 2 , wherein the average particle diameters D 1 and D 2 are particle diameters at 50% of the cumulative value (D 50 ) in the particle size distribution based on the laser diffraction/scattering method, the first powder and the second powder form granulated particles in which primary particles of the first powder and primary particles of the second powder are three-dimensionally bound through voids, and the second powder is included at a proportion of 15 % by mass or more and less than 90% by mass relative to a sum of the first powder and the second powder. a first powder containing a ceramic as a main component; and a second powder containing a metal as a main component, the metal is an elemental substance of a metal element selected from the group consisting of magnesium (Mg), aluminum (Al), titanium (Ti), chromium (Cr), manganese (Mn), iron (Fe), cobalt (Co), nickel (Ni), copper (Cu), zinc (Zn), zirconium (Zr), gold (Au), silver (Ag), platinum (Pt), iridium (Ir), bismuth (Bi), niobium (Nb), molybdenum (Mo), tin (Sn), tungsten (W), and lead (Pb), or an alloy of the metal element and one or more other elements, an average particle diameter D 1 of the first powder and an average particle diameter D 2 of the second powder fulfil D 1 ≤ 0.5 × D 2 , wherein the average particle diameters D 1 and D 2 are particle diameters at 50% of the cumulative value (D 50 ) in the particle size distribution based on the laser diffraction/scattering method, the first powder and the second powder form granulated particles in which primary particles of the first powder and primary particles of the second powder are three-dimensionally bound through voids, and the second powder is included at a proportion of 15 % by mass or more and less than 90% by mass relative to a sum of the first powder and the second powder.
A mobile station configured to interact with a base station subsystem , BSS, (202 1 ), the BSS including a base transceiver station, BTS, (210 1 ), the mobile station comprising: a processor ; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the mobile station is operable to: receive , from the BSS, a multilateration request ; in response to receipt of the multilateration request, estimate a synchronization accuracy (264 1 ) with the BTS; and, transmit , to the BSS, a Radio Link Control, RLC, data block (270 1 ) that includes at least [i] a Temporary Logical Link Identifier, TLLI, of the mobile station, and [ii] the estimated synchronization accuracy. a processor ; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the mobile station is operable to: receive , from the BSS, a multilateration request ; in response to receipt of the multilateration request, estimate a synchronization accuracy (264 1 ) with the BTS; and, transmit , to the BSS, a Radio Link Control, RLC, data block (270 1 ) that includes at least [i] a Temporary Logical Link Identifier, TLLI, of the mobile station, and [ii] the estimated synchronization accuracy. receive , from the BSS, a multilateration request ; in response to receipt of the multilateration request, estimate a synchronization accuracy (264 1 ) with the BTS; and, transmit , to the BSS, a Radio Link Control, RLC, data block (270 1 ) that includes at least [i] a Temporary Logical Link Identifier, TLLI, of the mobile station, and [ii] the estimated synchronization accuracy.
A method of protecting an electronic device comprising the steps of: generating a multi-label classification data model comprising security event groups labeled with security actions, each group comprising security events and representing a security event scenario; detecting one or more security events representing a security event scenario; predicting, using the multi-label classification data model, one or more security actions based on the security event scenario; and implementing the predicted one or more security actions on the electronic device assigning a confidence level to the detected security events; when the confidence level is above a threshold, automatically proceeding to the implementing step; when the confidence level is below the threshold, notifying an administrator and proceeding to the implementing step upon instruction from the administrator. generating a multi-label classification data model comprising security event groups labeled with security actions, each group comprising security events and representing a security event scenario; detecting one or more security events representing a security event scenario; predicting, using the multi-label classification data model, one or more security actions based on the security event scenario; and implementing the predicted one or more security actions on the electronic device assigning a confidence level to the detected security events; when the confidence level is above a threshold, automatically proceeding to the implementing step; when the confidence level is below the threshold, notifying an administrator and proceeding to the implementing step upon instruction from the administrator.
Apparatus for forming plastic preforms into plastic containers, having at least one blowing station which has a cavity within which the plastic preforms can be expanded to form the plastic containers, the blowing station having a base part which bounds the cavity, and the base part being arranged releasably on a carrier by means of a fastening mechanism , wherein the device has a feed connection for feeding a flowable temperature control medium and a discharge connection for discharging the flowable temperature control medium, as well as a feed element for feeding the flowable medium to the feed connection and a discharge element for discharging the temperature control medium from the discharge connection , wherein at least the feed element can be separated from the feed connection or the discharge element can be separated from the discharge connection in an automated manner, wherein the feed element and the discharge element are arranged on a common carrier so that the media connections can be separated or connected by a movement of this common carrier.
A recombinant gene delivery vector comprising an expression cassette comprising a polynucleotide sequence comprising in the following 5' to 3' order: a) a promoter sequence; b) a sequence encoding a therapeutic gene product, wherein the therapeutic gene product is a human pyruvate kinase, liver and red blood cell (PKLR) polypeptide; and c) an ribonucleic acid (RNA) export signal, wherein the promoter sequence is operably linked to the sequence encoding the PKLR polypeptide and wherein the recombinant gene delivery vector is a lentivirus (LV). a) a promoter sequence; b) a sequence encoding a therapeutic gene product, wherein the therapeutic gene product is a human pyruvate kinase, liver and red blood cell (PKLR) polypeptide; and c) an ribonucleic acid (RNA) export signal, wherein the promoter sequence is operably linked to the sequence encoding the PKLR polypeptide and wherein the recombinant gene delivery vector is a lentivirus (LV).
A carrier core material which is formed with ferrite particles, wherein a skewness Rsk of the particle is equal to or more than -0.40 but equal to or less than -0.20 as measured according to the description, a kurtosis Rku of the particle is equal to or more than 3.20 but equal to or less than 3.50 as measured according to the description, a maximum height Rz of the particle is equal to or more than 2.20 μm but equal to or less than 3.50 μm as described in the description, wherein the ferrite particles are particles which contain Sr and in which the main composition is a Mn ferrite, a Mg ferrite or a MnMg ferrite. wherein a skewness Rsk of the particle is equal to or more than -0.40 but equal to or less than -0.20 as measured according to the description, a kurtosis Rku of the particle is equal to or more than 3.20 but equal to or less than 3.50 as measured according to the description, a maximum height Rz of the particle is equal to or more than 2.20 μm but equal to or less than 3.50 μm as described in the description, wherein the ferrite particles are particles which contain Sr and in which the main composition is a Mn ferrite, a Mg ferrite or a MnMg ferrite.