mhurhangee/ep-ind-claims huggingface dataset:
Turbocharger comprising a shaft, a housing, and a turbine wheel and a compressor wheel mounted onto the shaft, the housing comprising at least a longitudinal cooling channel through which a flow of cooling fluid can pass, the turbocharger further comprising only one rolling bearing disposed between the shaft and the housing and comprising an inner ring, an outer ring mounted into a bore of the housing and at least one row of rolling elements disposed between the rings, the cooling channel extending axially along at least the entire length of the outer ring, characterized in that an annular space is defined between the bore of the housing and an outer surface of the outer ring which is mounted directly into said bore, the housing comprising passage means (68, 70) communicating with the cooling channel and opening into said space.
A method for wireless communication, comprising: a user equipment, UE, determining an uplink timing advance based at least in part on a distance between the UE and a base station; determining that the uplink timing advance has a value within a range relative to a maximum uplink timing advance value, wherein determining that the uplink timing advance has a value within the range comprises identifying that the uplink timing advance value is within one or more of a defined set of intervals within the range that represent an uplink timing advance value relative to the maximum uplink timing advance value; transmitting, to the base station, an uplink message, wherein the uplink message indicates at least one of the one or more intervals, wherein the uplink message is transmitted based at least in part on the indicated one or more uplink timing advance intervals, and wherein the uplink message excludes the value. a user equipment, UE, determining an uplink timing advance based at least in part on a distance between the UE and a base station; determining that the uplink timing advance has a value within a range relative to a maximum uplink timing advance value, wherein determining that the uplink timing advance has a value within the range comprises identifying that the uplink timing advance value is within one or more of a defined set of intervals within the range that represent an uplink timing advance value relative to the maximum uplink timing advance value; transmitting, to the base station, an uplink message, wherein the uplink message indicates at least one of the one or more intervals, wherein the uplink message is transmitted based at least in part on the indicated one or more uplink timing advance intervals, and wherein the uplink message excludes the value.
An image photoplethysmography method comprising: in an electronic device: receiving video data of a human subject, wherein each of a sequence of frames of said received video data is associated with a plurality of spectral components (408, 410, 412); determining a first peak and a second peak from a plurality of peaks corresponding to said plurality of spectral components, wherein amplitudes of said determined said first peak and said determined said second peak exceed a first threshold value; determining whether said determined said first peak and said determined said second peak are within a predetermined range; and determining a heart rate of said human subject based on whether said determined said first peak and said determined said second peak are within said predetermined range. receiving video data of a human subject, wherein each of a sequence of frames of said received video data is associated with a plurality of spectral components (408, 410, 412); determining a first peak and a second peak from a plurality of peaks corresponding to said plurality of spectral components, wherein amplitudes of said determined said first peak and said determined said second peak exceed a first threshold value; determining whether said determined said first peak and said determined said second peak are within a predetermined range; and determining a heart rate of said human subject based on whether said determined said first peak and said determined said second peak are within said predetermined range.
A toothbrush, comprising: a head portion; and a handle portion; characterised in that the toothbrush further comprises micro suction tape disposed on said handle portion. a head portion; and a handle portion; characterised in that the toothbrush further comprises micro suction tape disposed on said handle portion.
A compound of Formula I: wherein W is selected from the group a) C 1-6 -alkyl that optionally includes 1-3 deuterium atoms, b) C 1-6 -alkyl that optionally may be substituted with SO 2 R 5 and OR 5 Y is C 1-6 -alkyl; Z is CH; R 1 is aryl, in particular phenyl, R 2 is CONHR 6; R 3 and R 4 may be the same or different and each is independently selected from the group a) H, and b) C 1-6 -alkyl; R 5 is selected from the group a) C 1-6 -alkyl, and b) aryl; R 6 is selected from the group a) H b) aryl that optionally may be substituted with C 1-6 -alkyl, OR 5, halogen, aryl, and C R 7, and c) C 1-6 -alkyl that optionally may be substituted with aryl that optionally may be substituted with C 1-6 -alkyl and halogen; R 7 is selected from the group a) C 1-6 -alkyl, and b) aryl; or a pharmaceutically acceptable salt thereof. W is selected from the group a) C 1-6 -alkyl that optionally includes 1-3 deuterium atoms, b) C 1-6 -alkyl that optionally may be substituted with SO 2 R 5 and OR 5 a) C 1-6 -alkyl that optionally includes 1-3 deuterium atoms, b) C 1-6 -alkyl that optionally may be substituted with SO 2 R 5 and OR 5 Y is C 1-6 -alkyl; Z is CH; R 1 is aryl, in particular phenyl, R 2 is CONHR 6; R 3 and R 4 may be the same or different and each is independently selected from the group a) H, and b) C 1-6 -alkyl; a) H, and b) C 1-6 -alkyl; R 5 is selected from the group a) C 1-6 -alkyl, and b) aryl; a) C 1-6 -alkyl, and b) aryl; R 6 is selected from the group a) H b) aryl that optionally may be substituted with C 1-6 -alkyl, OR 5, halogen, aryl, and C R 7, and c) C 1-6 -alkyl that optionally may be substituted with aryl that optionally may be substituted with C 1-6 -alkyl and halogen; a) H b) aryl that optionally may be substituted with C 1-6 -alkyl, OR 5, halogen, aryl, and C R 7, and c) C 1-6 -alkyl that optionally may be substituted with aryl that optionally may be substituted with C 1-6 -alkyl and halogen; R 7 is selected from the group a) C 1-6 -alkyl, and b) aryl; a) C 1-6 -alkyl, and b) aryl;
Mineral pigment containing calcium carbonate characterised in that it contains a product formed in situ by double and/or multi reaction between one calcium carbonate and the reaction product(s) of said carbonate with gaseous CO 2 formed in situ and/or from an external feed, and the reaction product(s) of said carbonate with one or more moderately strong, i.e. having a pK a between 0 and 2.5 inclusive at 22°C, to strong, i.e. having a pK a of less than or equal to zero at 22°C, H 3 O + ion donors and at least one aluminium silicate and/or at least one synthetic silica and/or at least one calcium silicate and/or at least one silicate of a monovalent salt and optionally at least one aluminium hydroxide and/or optionally at least one sodium and/or potassium aluminate, and in that it contains less than 0.1% by weight of silicate of a monovalent salt based on the dry weight of calcium carbonate, and characterised in that it has a pH above 7.5 measured at 20°C; characterised in that the mineral pigment has a BET specific surface area of between 25m 2 /g and 200m 2 /g measured according to the standard, ISO 9277.
A device for dispensing a fixed dose of fluid, the device comprising: - at least one barrel; - at least one plunger at least partially enclosed within the barrel; - a motion conversion mechanism for transferring actuated pressure force applied outside the barrel into movement of the at least one plunger in a dispensing direction, wherein the motion conversion mechanism comprises at least one rotating gear; and - a releasing mechanism for disconnecting the plunger from the motion conversion mechanism, wherein at a released position the at least one plunger can move in a direction opposite to the dispensing direction, independent of a rotational movement of the at least one gear, and wherein the movement of the plunger in the opposite direction to the dispensing enables loading the fluid into the barrel; characterized in that the motion conversion mechanism comprises at least one rack gear, at least one pinion gear and at least one rotatable cylindrical threaded shaft connected directly or indirectly to the at least one plunger, wherein the releasing mechanism disconnects the plunger from the cylindrical threaded shaft. - at least one barrel; - at least one plunger at least partially enclosed within the barrel; - a motion conversion mechanism for transferring actuated pressure force applied outside the barrel into movement of the at least one plunger in a dispensing direction, wherein the motion conversion mechanism comprises at least one rotating gear; and - a releasing mechanism for disconnecting the plunger from the motion conversion mechanism, wherein at a released position the at least one plunger can move in a direction opposite to the dispensing direction, independent of a rotational movement of the at least one gear, and wherein the movement of the plunger in the opposite direction to the dispensing enables loading the fluid into the barrel;
A computing device (105, 505, 605) for generating a model for a control panel (101, 501, 601) of a fire control system (100, 500, 600), comprising: a memory (107, 507, 607); and a processor configured to execute executable instructions stored in the memory to: receive a text string (202, 402) from the control panel (101, 501, 601) of the fire control system (100, 500, 600), the text string comprising a number of values; receive, through a user interface (113, 213, 313, 413), a number of locations from a user, wherein each location of the number of locations is a location within the text string of a value of the number of values corresponding to a variable of a number of variables; generate a model for the control panel based on the number of locations and the number of variables; and store the model in the memory. a memory (107, 507, 607); and a processor configured to execute executable instructions stored in the memory to: receive a text string (202, 402) from the control panel (101, 501, 601) of the fire control system (100, 500, 600), the text string comprising a number of values; receive, through a user interface (113, 213, 313, 413), a number of locations from a user, wherein each location of the number of locations is a location within the text string of a value of the number of values corresponding to a variable of a number of variables; generate a model for the control panel based on the number of locations and the number of variables; and store the model in the memory. receive a text string (202, 402) from the control panel (101, 501, 601) of the fire control system (100, 500, 600), the text string comprising a number of values; receive, through a user interface (113, 213, 313, 413), a number of locations from a user, wherein each location of the number of locations is a location within the text string of a value of the number of values corresponding to a variable of a number of variables; generate a model for the control panel based on the number of locations and the number of variables; and store the model in the memory.
A method for manufacturing, comprising: coating a substrate with a matrix containing a material to be patterned on the substrate; irradiating the coated substrate with a first energy beam so as to fix a pattern in the matrix while increasing a reflectivity of the matrix within a locus of the pattern by directing the energy beam to impinge on the locus of the pattern without fully sintering the material in the matrix; ablating the matrix remaining on the substrate outside the fixed pattern without ablating the locus of the pattern by irradiating the matrix with a second energy beam at a fluence that is less than an ablation threshold of the matrix within the locus of the pattern; and after ablating the matrix, sintering the material in the pattern. coating a substrate with a matrix containing a material to be patterned on the substrate; irradiating the coated substrate with a first energy beam so as to fix a pattern in the matrix while increasing a reflectivity of the matrix within a locus of the pattern by directing the energy beam to impinge on the locus of the pattern without fully sintering the material in the matrix; ablating the matrix remaining on the substrate outside the fixed pattern without ablating the locus of the pattern by irradiating the matrix with a second energy beam at a fluence that is less than an ablation threshold of the matrix within the locus of the pattern; and after ablating the matrix, sintering the material in the pattern.
An article comprising a biocompatible polyelectrolyte multilayer from 1 to 500 nm in thickness, and having a compliance of from 3 to 500 kPa supported on a solid removable support, said polyelectrolyte multilayer comprising silver containing antimicrobials for use in enhancing healing of a wound.
A tire comprising an outer circumferential tread, the tread comprising a rubber formulation comprising a rubbery polymer, a silica and a silylated triglyceride oil, characterized in that the silylated triglyceride oil is a silylated vegetable oil selected from the group consisting of soybean oil, sunflower oil, canola (rapeseed) oil, corn oil, coconut oil, cottonseed oil, olive oil, peanut oil, and safflower oil, and wherein the silylated triglyceride oil is at least 30% silylated, based upon the mole percent of unsaturation in the starting triglyceride oil.
Method for preparing an aqueous or partly aqueous sol of a metal oxide and with a pH greater than or equal to 8, having a water mass content greater than 20%, which method comprises: (a) hydrolyzing a precursor of said metal oxide at a pH ranging from 8 to 14 in an alcohol or a mixture of alcohols added with a base; (b) ripening the sol obtained at step a) at room temperature; (c) replacing with water all or part of the alcohol or the alcohols present in the basic sol obtained at step b), this replacing comprising: (c 1) diluting this sol by adding a mixture of water and of one or several alcohols to obtain a hydroalcoholic sol, then (c 2) concentrating the thereby obtained hydroalcoholic sol, under conditions which allow removal from this sol of all or part of the alcohol or of the alcohols which it contains without removing water therefrom, to obtain an aqueous or partly aqueous sol; and optionally (d) adjusting the pH of the thereby obtained aqueous or partly aqueous sol to a value of at least 8. (a) hydrolyzing a precursor of said metal oxide at a pH ranging from 8 to 14 in an alcohol or a mixture of alcohols added with a base; (b) ripening the sol obtained at step a) at room temperature; (c) replacing with water all or part of the alcohol or the alcohols present in the basic sol obtained at step b), this replacing comprising: (c 1) diluting this sol by adding a mixture of water and of one or several alcohols to obtain a hydroalcoholic sol, then (c 2) concentrating the thereby obtained hydroalcoholic sol, under conditions which allow removal from this sol of all or part of the alcohol or of the alcohols which it contains without removing water therefrom, to obtain an aqueous or partly aqueous sol; and optionally (c 1) diluting this sol by adding a mixture of water and of one or several alcohols to obtain a hydroalcoholic sol, then (c 2) concentrating the thereby obtained hydroalcoholic sol, under conditions which allow removal from this sol of all or part of the alcohol or of the alcohols which it contains without removing water therefrom, to obtain an aqueous or partly aqueous sol; and optionally (d) adjusting the pH of the thereby obtained aqueous or partly aqueous sol to a value of at least 8.
A layered structure, comprising: a substrate composed of germanium including a first porous multilayer having a first porosity; an active quantum well capping layer epitaxially grown over the first porous multilayer; an epitaxial distributed Bragg reflector multilayer, or a second porous multilayer having the first porosity, over the active quantum well capping layer, wherein edges of the epitaxial multilayer align with edges of the first porous multilayer. a substrate composed of germanium including a first porous multilayer having a first porosity; an active quantum well capping layer epitaxially grown over the first porous multilayer; an epitaxial distributed Bragg reflector multilayer, or a second porous multilayer having the first porosity, over the active quantum well capping layer, wherein edges of the epitaxial multilayer align with edges of the first porous multilayer.
A coating wax for food product, for cheese in particular, and more particularly for firm cheese, comprising at least one block copolymer formed of at least one block polymer derived from the polymerization of at least two monomers (M A), the same or different, derived from long chain fatty acids, the said long chain comprising 14 to 34 carbon atoms, more particularly 14 to 22 carbon atoms; and of at least one block polymer, different from, derived from the polymerization of at least two monomers (M B), the same or different, derived from short chain fatty acids, the said short chain preferably comprising 2 to 16 carbon atoms.
An applicator tip (10,30), the applicator tip comprising: a base (12,32) the base including a chamber (13, 33)defined therein, the chamber configured for retaining a mixing component therein; at least one penetrable member (39a, 39b) disposed within the base, the penetrable member at least partially enclosing the chamber to retain the mixing component therein; a shaft (16, 34) extending distally from a distal end of the base, the shaft defining a longitudinal axis and having a lumen (18, 36) extending therethrough, the lumen of the shaft configured for passage of a fluid therethrough; characterised by the applicator tip being for use with a fluid applicator (600,700,800), and wherein the base is configured for releasable engagement with the said fluid applicator at it's proximal end (12a,32a) and wherein the penetrable member is penetrated upon engagement of the base to the fluid applicator, wherein, upon penetration of the at least one penetrable member, fluid from the fluid applicator flows into the chamber such that the fluid and the mixing component form a mixture to be applied. a base (12,32) the base including a chamber (13, 33)defined therein, the chamber configured for retaining a mixing component therein; at least one penetrable member (39a, 39b) disposed within the base, the penetrable member at least partially enclosing the chamber to retain the mixing component therein; a shaft (16, 34) extending distally from a distal end of the base, the shaft defining a longitudinal axis and having a lumen (18, 36) extending therethrough, the lumen of the shaft configured for passage of a fluid therethrough; characterised by the applicator tip being for use with a fluid applicator (600,700,800), and wherein the base is configured for releasable engagement with the said fluid applicator at it's proximal end (12a,32a) and wherein the penetrable member is penetrated upon engagement of the base to the fluid applicator, wherein, upon penetration of the at least one penetrable member, fluid from the fluid applicator flows into the chamber such that the fluid and the mixing component form a mixture to be applied.
A process for removing a solvent from a source solution, said process comprising preparing a draw solution by dissolving one or more salts in water, a) contacting the source solution with one side of a selectively permeable membrane, b) contacting the draw solution with the opposite side of the membrane, wherein the draw solution is prepared having a higher osmotic pressure (higher solute concentration) than the source solution, such that solvent from the source solution passes across the membrane to dilute the draw solution by direct osmosis, c) removing solvent from the diluted draw solution to regenerate the draw solution, and d) recycling the regenerated draw solution to step b), characterized in that: solute species from the source solution flow across the membrane into the draw solution in the direct osmosis step, and a portion of the draw solution is discarded or treated before and/or after the draw solution is regenerated in step c) so as to reduce the concentration of solute species present in the draw solution from the source solution. a) contacting the source solution with one side of a selectively permeable membrane, b) contacting the draw solution with the opposite side of the membrane, wherein the draw solution is prepared having a higher osmotic pressure (higher solute concentration) than the source solution, such that solvent from the source solution passes across the membrane to dilute the draw solution by direct osmosis, c) removing solvent from the diluted draw solution to regenerate the draw solution, and d) recycling the regenerated draw solution to step b), solute species from the source solution flow across the membrane into the draw solution in the direct osmosis step, and a portion of the draw solution is discarded or treated before and/or after the draw solution is regenerated in step c) so as to reduce the concentration of solute species present in the draw solution from the source solution.
A tumor therapeutic agent obtained by combining a taxane antitumor agent with a liposome composition in which gemcitabine or a salt thereof is contained in a liposome, wherein the taxane antitumor agent is nab-paclitaxel, a content ratio of cholesterols to a total amount of a lipid forming the liposome is 10 mol% to 35 mol%, the lipid forming the liposome contains hydrogenated soybean phosphatidylcholine, and an osmotic pressure of an inner aqueous phase of the liposome is 2 to 8 times an osmotic pressure of an outer aqueous phase of the liposome.
A steering angle sensor (10; 10A) equipped with an annular drive gear, which is configured to rotate in accompaniment with the rotation of a steering wheel, and a first driven gear (25; 25') and a second driven gear (27; 27'), which have magnets disposed in them and rotate in a driven manner in accordance with the rotation of the annular drive gear, the steering angle sensor (10; 10A) configured to generate angle-of-rotation information of the steering wheel utilizing changes in magnetic fields based on the rotation of the first driven gear (25; 25') and the second driven gear (27; 27'), wherein an intermediate gear (23; 23', 23A) that is configured to mesh with the annular drive gear, the first driven gear (25; 25'), and the second driven gear (27; 27') is interposed between the annular drive gear and the first driven gear (25; 25') and the second driven gear (27; 27'), wherein the intermediate gear (23; 23', 23A) has a first tooth portion that is configured to mesh with the annular drive gear and a second tooth portion that is configured to mesh with the first driven gear (25; 25') and the second driven gear (27; 27'), and the number of the teeth of the first tooth portion and the number of the teeth of the second tooth portion are equal, characterized in that the annular drive gear, the intermediate gear (23; 23', 23A), the first driven gear (25; 25'), and the second driven gear (27; 27') are placed in such a way that the axial direction of the rotational axes of the intermediate gear (23; 23', 23A), the first driven gear (25; 25'), and the second driven gear (27; 27') intersects the axial direction of the rotational axis of the annular drive gear, wherein the first tooth portion has a tapered shape that becomes smaller in diameter away from the second tooth portion, wherein a tooth portion of the annular drive gear becomes lower away from the center of the rotational axis and the first tooth portions of the intermediate gear gradually become smaller in diameter in the direction toward the center of the rotational axis of the annular drive gear.