mhurhangee/ep-ind-claims huggingface dataset:
A smart terminal information display method, comprising - the smart terminal detecting an inputted locking event to lock its screen (101; 401); - responding to the locking event and displaying the information containing a list of specific functions on the screen; - receiving and executing a selection command on the list; - displaying a brief introduction and use method of the specific function corresponding to the selection command on the screen; - determining whether to display the information containing the specific function and the use method; if yes, entering the locking screen interface when displaying the specific function and the use method displayed on the screen is completed; otherwise, turning off the interface displaying the information and entering the locking screen (103; 404). - the smart terminal detecting an inputted locking event to lock its screen (101; 401); - responding to the locking event and displaying the information containing a list of specific functions on the screen; - receiving and executing a selection command on the list; - displaying a brief introduction and use method of the specific function corresponding to the selection command on the screen; - determining whether to display the information containing the specific function and the use method; if yes, entering the locking screen interface when displaying the specific function and the use method displayed on the screen is completed; otherwise, turning off the interface displaying the information and entering the locking screen (103; 404).
A core-shell microcapsule comprising: a) a core of an oily phase containing at least one pro-fragrance ingredient which is a 2-oxoacetate derivative of formula wherein, R 1 represents a linear, branched or cyclic, saturated or unsaturated C 1 -C 16 hydrocarbon group, optionally substituted with one or two methoxy groups, and R 2 is a CH(R')(R") group derived from the corresponding C 6-20 perfuming aldehyde of formula (R'')CHO or C 6-20 perfuming ketone of formula (R')(R'')C=O; and b) a shell surrounding said core and formed by interfacial polymerisation or by a polymerisation induced phase separation process. a) a core of an oily phase containing at least one pro-fragrance ingredient which is a 2-oxoacetate derivative of formula wherein, R 1 represents a linear, branched or cyclic, saturated or unsaturated C 1 -C 16 hydrocarbon group, optionally substituted with one or two methoxy groups, and R 2 is a CH(R')(R") group derived from the corresponding C 6-20 perfuming aldehyde of formula (R'')CHO or C 6-20 perfuming ketone of formula (R')(R'')C=O; and b) a shell surrounding said core and formed by interfacial polymerisation or by a polymerisation induced phase separation process.
A work vehicle, comprising: a chassis; a plurality of ground engaging members (14, 16) carried by the chassis; a hydraulic steering system (70, 200) connected with at least one of the ground engaging members (14, 16), the hydraulic steering system (70, 200) including a steering hand pump; a hydraulic main supply line (82, 218) fluidly coupled between a pressure source (84, 212) and the steering hand pump, the main supply line (82, 218) including a check valve (78, 220); and a hydraulic sub-system (74, 204) including a pressurized access point; characterized in that the hydraulic steering system (70, 200) further comprises a normally open, two position valve (76, 214) including an inlet fluidly coupled with the pressurized access point, an outlet fluidly coupled with the main supply line (82, 218) on a downstream side of the check valve (78, 220), and a pilot port (100, 216) fluidly coupled with the main supply line (82, 218) on an upstream side of the check valve (78, 220), the valve being operable in the closed position based on pressure in the main supply line (82, 218) when the main supply line (82, 218) is pressurized from the pressure source (84, 212), the valve being operable in the open position and interconnecting the pressurized access point with the main supply line (82, 218) through the outlet when the main supply line (82, 218) is not pressurized from the pressure source (84, 212). a chassis; a plurality of ground engaging members (14, 16) carried by the chassis; a hydraulic steering system (70, 200) connected with at least one of the ground engaging members (14, 16), the hydraulic steering system (70, 200) including a steering hand pump; a hydraulic main supply line (82, 218) fluidly coupled between a pressure source (84, 212) and the steering hand pump, the main supply line (82, 218) including a check valve (78, 220); and a hydraulic sub-system (74, 204) including a pressurized access point; characterized in that the hydraulic steering system (70, 200) further comprises a normally open, two position valve (76, 214) including an inlet fluidly coupled with the pressurized access point, an outlet fluidly coupled with the main supply line (82, 218) on a downstream side of the check valve (78, 220), and a pilot port (100, 216) fluidly coupled with the main supply line (82, 218) on an upstream side of the check valve (78, 220), the valve being operable in the closed position based on pressure in the main supply line (82, 218) when the main supply line (82, 218) is pressurized from the pressure source (84, 212), the valve being operable in the open position and interconnecting the pressurized access point with the main supply line (82, 218) through the outlet when the main supply line (82, 218) is not pressurized from the pressure source (84, 212).
An intravascular blood pump comprising: an inlet area having one or more openings; an outlet area having one or more openings; a passage fluidically coupling the inlet and outlet areas (112, 115); a motor having a rotor and a stator, wherein the stator comprises one or more coils (244, 410-415, 940), wherein the stator is configured to generate a rotating magnetic field in response to receiving one or more electrical signals at the one or more coils (244, 410-415, 940), wherein the rotating magnetic field causes the rotor to rotate, and wherein rotation of the rotor draws blood into the one or more openings of the inlet area, channels the blood through the passage, and expels the blood through the one or more openings of the outlet area; and a cable (1000, 1100) having a tail portion (1070, 1170) and a head portion (1080, 1180), wherein one or more electrical conduits extend through the tail and head portions (1070, 1170, 1080, 1180), wherein the head portion (1080, 1180) comprises one or more pads (1031, 1032, 1033, 1131, 1132, 1133), and wherein at least one of the coils (244, 410-415, 940) is coupled to at least one of the electrical conduits (1011, 1012, 1013,1111,1012, 1113) through at least one of the pads (1031, 1032, 1033, 1131, 1132, 1133). an inlet area having one or more openings; an outlet area having one or more openings; a passage fluidically coupling the inlet and outlet areas (112, 115); a motor having a rotor and a stator, wherein the stator comprises one or more coils (244, 410-415, 940), wherein the stator is configured to generate a rotating magnetic field in response to receiving one or more electrical signals at the one or more coils (244, 410-415, 940), wherein the rotating magnetic field causes the rotor to rotate, and wherein rotation of the rotor draws blood into the one or more openings of the inlet area, channels the blood through the passage, and expels the blood through the one or more openings of the outlet area; and a cable (1000, 1100) having a tail portion (1070, 1170) and a head portion (1080, 1180), wherein one or more electrical conduits extend through the tail and head portions (1070, 1170, 1080, 1180), wherein the head portion (1080, 1180) comprises one or more pads (1031, 1032, 1033, 1131, 1132, 1133), and wherein at least one of the coils (244, 410-415, 940) is coupled to at least one of the electrical conduits (1011, 1012, 1013,1111,1012, 1113) through at least one of the pads (1031, 1032, 1033, 1131, 1132, 1133).
A fluid-jet precision-dispensing device comprising: a layer (506, 510); one or more first holes within the layer, the first holes adapted to pass fluid therethrough during usage of the device to precisely dispense the fluid at accurately specified locations; and, one or more second holes within the layer, the second holes adapted to not pass the fluid therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations, the second holes are configured to have a size and/or shape to adapt to one or more of: pass gaseous bubbles therethrough during performance of a priming operation of the device; and, pass sludge and/or contaminants therethrough during performance of the priming operation of the device; characterized in that wherein the size and/or shape of the second holes are configured to ensure that a critical pressure at each second hole is greater in absolute value than an absolut value of backpressure at each second holes to: prevent gas from being introduced within the device through the second hole; and, prevent the fluid from passing therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations. a layer (506, 510); one or more first holes within the layer, the first holes adapted to pass fluid therethrough during usage of the device to precisely dispense the fluid at accurately specified locations; and, one or more second holes within the layer, the second holes adapted to not pass the fluid therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations, the second holes are configured to have a size and/or shape to adapt to one or more of: pass gaseous bubbles therethrough during performance of a priming operation of the device; and, pass sludge and/or contaminants therethrough during performance of the priming operation of the device; pass gaseous bubbles therethrough during performance of a priming operation of the device; and, pass sludge and/or contaminants therethrough during performance of the priming operation of the device; characterized in that wherein the size and/or shape of the second holes are configured to ensure that a critical pressure at each second hole is greater in absolute value than an absolut value of backpressure at each second holes to: prevent gas from being introduced within the device through the second hole; and, prevent the fluid from passing therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations. prevent gas from being introduced within the device through the second hole; and, prevent the fluid from passing therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations.
A method of producing C6-C54 hydrocarbons comprising: (a) combining one or more C4 - C28 unsaturated fatty acids and one or more C4 - C28 saturated fatty acids with a solvent; and (b) performing a Kolbe electrolysis reaction on the combined reaction mixture prepared in (a) to produce one or more C6 to C54 hydrocarbons, wherein the combined reaction mixture of the unsaturated and saturated fatty acids has a combined saturation score of greater than 1.0, where: S = 2 w s + w mu / w mu + 2 w du + 3 w tu and w s, w mu, w du and w tu are weight percent of fatty acids that are saturated (w s), and having one (w mu), two (w du) or three (w tu) double bonds, respectively, wherein the method excludes a method consisting of adding 9.44 parts fatty acids derived from the hydrolysis of beef tallow to 89.69 parts methanol, and adding 0.87 part potassium hydroxide to obtain a mixture; heating the mixture to 52°C in a water-jacketed vessel to obtain a clear solution; immersing an electrolysis cell consisting of a platinum foil anode and a nickel cathode separated by a 1.5 mm gap in the solution; and applying a constant electrical current density of 0.2 A cm -2. (a) combining one or more C4 - C28 unsaturated fatty acids and one or more C4 - C28 saturated fatty acids with a solvent; and (b) performing a Kolbe electrolysis reaction on the combined reaction mixture prepared in (a) to produce one or more C6 to C54 hydrocarbons,
A method of operating a computing device, the method comprising: receiving (202, 362) data from a calling program, the calling program being a program making a function call to request for the data to be encrypted; and generating ciphertext that includes the data, wherein the ciphertext is generated in a manner that allows a target program to be able to obtain the data from the ciphertext, a target program being a program allowed to retrieve the data; characterized in that generating the ciphertext comprises: using public key encryption; and encrypting the data and one or more conditions allowing retrieval of the data; thereby allowing any of multiple target programs to be able to obtain the data from the ciphertext. receiving (202, 362) data from a calling program, the calling program being a program making a function call to request for the data to be encrypted; and generating ciphertext that includes the data, wherein the ciphertext is generated in a manner that allows a target program to be able to obtain the data from the ciphertext, a target program being a program allowed to retrieve the data; characterized in that generating the ciphertext comprises: using public key encryption; and encrypting the data and one or more conditions allowing retrieval of the data; thereby allowing any of multiple target programs to be able to obtain the data from the ciphertext. using public key encryption; and encrypting the data and one or more conditions allowing retrieval of the data; thereby allowing any of multiple target programs to be able to obtain the data from the ciphertext.
A wind turbine with a rotor hub on which at least one rotor blade is fastened, with a generator and a drive shaft comprising a rotor shaft portion connected to the rotor hub, an intermediate shaft portion and a generator shaft portion connected to the rotor of the generator, wherein the rotor shaft portion, the intermediate shaft portion and the generator shaft portion are formed as separate components, which are connected to each other via a coupling system with two couplings, wherein a first coupling of the coupling system is provided between the rotor shaft portion and the intermediate shaft portion, and a second coupling of the coupling system is provided between the generator shaft portion and the intermediate shaft portion, characterised in that the coupling system is made in order to compensate a radial offset between the rotor shaft portion and the generator shaft portion.
Container made of plastics material obtained by blow moulding or stretch blow moulding from a blank, this container comprising a body, a neck which extends at an upper end of the body and a petaloid base which extends at a lower end of the body, this petaloid base being provided with protruding feet that are separated by recessed valleys which extend radially from a central zone of the base, each foot having an external wall which extends in the extension of the body and two flanks which each border a valley and which are each connected to the external wall by a fillet, characterized in that each foot is provided with at least one rib, of which a lateral portion straddles said fillet.
Polymer composition comprising or consisting of: a) a composition comprising at least one ethylene-based polymer; b) an additive composition comprising a compound of formula I: wherein each R is individually selected from 1,1-dimethylpropyl or hydrogen; and c) 2,2-bis(hydroxymethyl)-1,3-propanediol. a) a composition comprising at least one ethylene-based polymer; b) an additive composition comprising a compound of formula I: wherein each R is individually selected from 1,1-dimethylpropyl or hydrogen; and c) 2,2-bis(hydroxymethyl)-1,3-propanediol.
A method for the frequency regulation and stabilisation of an optoelectronic oscillator comprising an optical section with a light source and an electrical section, a feedback control loop being associated with an optoelectronic oscillator, said control loop controlling the wavelength of the light source of the oscillator, said electrical section comprising a photo detector converting the received light into an electrical signal, which is led via an amplifier and a band-pass filter, which are mutually series connected, to a splitter that sends a first part of said signal to an output of the optoelectronic oscillator, the frequency thereof is to be regulated and stabilised, and the second part of said signal to a modulation input of the working point in the optical section, characterised in that said controlling of the wavelength of the light source of the oscillator comprises the following steps: a) leading two signals from the input and the output of the band-pass filter, respectively, to a phase detector, b) determining by means of said detector the frequency of at least one of said signals (13; 14), wherein the said detector assigns a first signal to said frequency, said signal carrying an information on the frequency, c) leading the first signal exiting said detector to a controller of the light source wavelength, d) additional leading of a reference signal to said controller, e) comparing in said controller the first signal with said reference signal, f) changing the value of a control signal and, if a difference between the Z first signal and the reference signal is present, transmitting this modified control signal to said oscillator. a) leading two signals from the input and the output of the band-pass filter, respectively, to a phase detector, b) determining by means of said detector the frequency of at least one of said signals (13; 14), wherein the said detector assigns a first signal to said frequency, said signal carrying an information on the frequency, c) leading the first signal exiting said detector to a controller of the light source wavelength, d) additional leading of a reference signal to said controller, e) comparing in said controller the first signal with said reference signal, f) changing the value of a control signal and, if a difference between the Z first signal and the reference signal is present, transmitting this modified control signal to said oscillator.
A porous ion exchanger comprising: a first porous ion-exchange composite which is obtained by forming a first mixture, in which water-dispersed or solvent-dispersed first binder particles and first ion-exchange resin particles, which are cation-exchange resin particles, are mixed in paste form, into a sheet shape, and drying the first mixture; and a second porous ion-exchange composite which is obtained by forming a third mixture, in which water-dispersed or solvent-dispersed second binder particles and second ion-exchange resin particles, which are anion-exchange resin particles, are mixed in paste form, into a sheet shape, and drying the third mixture, wherein each of the first binder particles and the second binder particles has a particle diameter of 100 nm to 3 μm, and the porous ion exchanger is obtained by joining the first porous ion-exchange composite and the second porous ion-exchange composite together. a first porous ion-exchange composite which is obtained by forming a first mixture, in which water-dispersed or solvent-dispersed first binder particles and first ion-exchange resin particles, which are cation-exchange resin particles, are mixed in paste form, into a sheet shape, and drying the first mixture; and a second porous ion-exchange composite which is obtained by forming a third mixture, in which water-dispersed or solvent-dispersed second binder particles and second ion-exchange resin particles, which are anion-exchange resin particles, are mixed in paste form, into a sheet shape, and drying the third mixture, wherein each of the first binder particles and the second binder particles has a particle diameter of 100 nm to 3 μm, and the porous ion exchanger is obtained by joining the first porous ion-exchange composite and the second porous ion-exchange composite together.
An isolated peptide consisting of an amino acid sequence selected from the group consisting of SEQ ID NOs: 1, 5, 31 and 32 that retains the ability to bind to an HLA antigen, wherein the HLA antigen is HLA-A2.
A method to facilitate recycling of waste material including waste paper and organic material, comprising the steps of: receiving a plurality of plastic-wrapped compressed bales of the waste material at a waste material recycling location from a remote baling location; thereafter introducing the plurality of plastic-wrapped compressed bales into a re-pulping device at the waste material recycling location; re-pulping the waste paper in a re-pulping device to form a treated waste material including substantially re-pulped waste paper, wherein the re-pulping device is an autoclave and the re-pulping is carried out at an elevated processing temperature in a range of about 100 °C (212 °F) to about 135 °C (275 °F) and a processing pressure in the range of about 0 kPa to about 310 kPa (about 0 psig to about 45 psig) such that the re-pulped waste paper is suitable for making a paper product; and thereafter discharging the treated waste material from the re-pulping device. receiving a plurality of plastic-wrapped compressed bales of the waste material at a waste material recycling location from a remote baling location; thereafter introducing the plurality of plastic-wrapped compressed bales into a re-pulping device at the waste material recycling location; re-pulping the waste paper in a re-pulping device to form a treated waste material including substantially re-pulped waste paper, wherein the re-pulping device is an autoclave and the re-pulping is carried out at an elevated processing temperature in a range of about 100 °C (212 °F) to about 135 °C (275 °F) and a processing pressure in the range of about 0 kPa to about 310 kPa (about 0 psig to about 45 psig) such that the re-pulped waste paper is suitable for making a paper product; and thereafter discharging the treated waste material from the re-pulping device.
Process for the preparation of dialkyl esters of 2,5-furandicarboxylic acid from a 2,5-furandicarboxylic acid-containing starting material, which process comprises: - contacting a vaporous stream of an alkanol countercurrently with the at least partially liquid starting material comprising the 2,5-furandicarboxylic acid in a reaction zone to conduct an esterification reaction to the dialkyl ester of 2,5-furandicarboxylic acid and water; - withdrawing a reaction vapor comprising the alkanol and water from the reaction zone; - discharging a liquid phase comprising at least the dialkyl ester of 2,5-furandicarboxylic acid, from the bottom part of the reaction zone, to obtain the dialkyl ester of 2,5-furandicarboxylic acid. - contacting a vaporous stream of an alkanol countercurrently with the at least partially liquid starting material comprising the 2,5-furandicarboxylic acid in a reaction zone to conduct an esterification reaction to the dialkyl ester of 2,5-furandicarboxylic acid and water; - withdrawing a reaction vapor comprising the alkanol and water from the reaction zone; - discharging a liquid phase comprising at least the dialkyl ester of 2,5-furandicarboxylic acid, from the bottom part of the reaction zone, to obtain the dialkyl ester of 2,5-furandicarboxylic acid.