mhurhangee/patent-ind-claim-en huggingface dataset:
An additive manufacturing system , comprising: a build plate ; a deposition system operable to dispense material as a melt pool (M) to additively manufacture a workpiece (W) on the build plate ; a sensor system operable to determine a temperature at a vertical height on the workpiece (W) between the melt pool (M) and the build plate during additive manufacturing of workpiece (W), wherein the sensor system comprises a multiple of temperature sensors arranged around the build plate , the temperature sensors configured to identify the temperature of the workpiece (W) at a location trailing the melt pool (M); a heater system operable to selectively heat the workpiece (W) between the melt pool (M) and the build plate in areas that are subject to high residual stress during the additive manufacturing to provide localized stress relief; and a control in communication with the sensor system and the heater system , the control operable to control the heater system in response to a temperature measured on the workpiece (W) by the sensor system to reduce a temperature gradient of the workpiece (W) between the melt pool (M) and the build plate , characterised in that : at least one of the multiple of temperature sensors is an infrared camera; the heater system comprises a multiple of heaters arranged around the build plate ; at least one of the multiple of heaters is a laser; and the multiple of temperature sensors alternate with the multiple of heaters . a build plate ; a deposition system operable to dispense material as a melt pool (M) to additively manufacture a workpiece (W) on the build plate ; a sensor system operable to determine a temperature at a vertical height on the workpiece (W) between the melt pool (M) and the build plate during additive manufacturing of workpiece (W), wherein the sensor system comprises a multiple of temperature sensors arranged around the build plate , the temperature sensors configured to identify the temperature of the workpiece (W) at a location trailing the melt pool (M); a heater system operable to selectively heat the workpiece (W) between the melt pool (M) and the build plate in areas that are subject to high residual stress during the additive manufacturing to provide localized stress relief; and a control in communication with the sensor system and the heater system , the control operable to control the heater system in response to a temperature measured on the workpiece (W) by the sensor system to reduce a temperature gradient of the workpiece (W) between the melt pool (M) and the build plate , characterised in that : at least one of the multiple of temperature sensors is an infrared camera; the heater system comprises a multiple of heaters arranged around the build plate ; at least one of the multiple of heaters is a laser; and the multiple of temperature sensors alternate with the multiple of heaters . at least one of the multiple of temperature sensors is an infrared camera; the heater system comprises a multiple of heaters arranged around the build plate ; at least one of the multiple of heaters is a laser; and the multiple of temperature sensors alternate with the multiple of heaters .
A method of producing from one or more formation zones, comprising: arranging an outer completion string within a wellbore adjacent the one or more formation zones , the outer completion string having at least one sand screen arranged thereabout and a flow control device movably disposed within the at least one sand screen; locating an insert string within the outer completion string, the insert string having at least one control and data acquisition module disposed thereon and the at least one control and data acquisition module having one or more mechanical coupling mechanisms ; locating the flow control device with the one or more mechanical coupling mechanisms; and moving the flow control device between a closed position and an open position with the one or more mechanical coupling mechanisms, wherein, when in the open position, fluids may communicate from the one or more formation zones, through the at least one sand screen, and into the outer completion string; wherein locating the insert string within the outer completion string further comprises communicably coupling the insert string to the outer completion string at a crossover coupling , the crossover coupling having one or more control lines coupled thereto. arranging an outer completion string within a wellbore adjacent the one or more formation zones , the outer completion string having at least one sand screen arranged thereabout and a flow control device movably disposed within the at least one sand screen; locating an insert string within the outer completion string, the insert string having at least one control and data acquisition module disposed thereon and the at least one control and data acquisition module having one or more mechanical coupling mechanisms ; locating the flow control device with the one or more mechanical coupling mechanisms; and moving the flow control device between a closed position and an open position with the one or more mechanical coupling mechanisms, wherein, when in the open position, fluids may communicate from the one or more formation zones, through the at least one sand screen, and into the outer completion string; wherein locating the insert string within the outer completion string further comprises communicably coupling the insert string to the outer completion string at a crossover coupling , the crossover coupling having one or more control lines coupled thereto.
Method for treating heavy metals present in liquid effluents charged with metals, particularly water charged with salts, said method comprising the following steps: a. treating the liquid effluent capable of containing heavy metals with a neutralising agent chosen in the group comprising particularly sodium hydroxide, milk of lime, milk of magnesia, at a pH of 5 to 6, b. coagulating the effluent treated in step a) by adding a coagulant, c. optionally, precipitating the mixture obtained in step b) with a neutralising agent chosen in the group comprising particularly sodium hydroxide, milk of lime, milk of magnesia, at a pH of 9 to 10, d. flocculating, by adding a flocculent, the mixture obtained during the coagulation step b) or the mixture obtained during the treatment step with a neutralising agent c), e. removing the flocs formed in step d) and retrieving the liquid, f. treating the residual suspended solids in step e) by filtration, g. contacting the liquid retrieved in step f) with an ion-exchange resin capable of adsorbing one or more heavy metals or successive contacting with several ion-exchange resins, each resin being capable of adsorbing one or more heavy metals, in order to reduce the concentration of heavy metals present in said liquid, h. retrieving the liquid obtained during step g), the concentration of each of the heavy metals at the end of the method in the liquid obtained during step g) being less than 0.01 mg/l. a. treating the liquid effluent capable of containing heavy metals with a neutralising agent chosen in the group comprising particularly sodium hydroxide, milk of lime, milk of magnesia, at a pH of 5 to 6, b. coagulating the effluent treated in step a) by adding a coagulant, c. optionally, precipitating the mixture obtained in step b) with a neutralising agent chosen in the group comprising particularly sodium hydroxide, milk of lime, milk of magnesia, at a pH of 9 to 10, d. flocculating, by adding a flocculent, the mixture obtained during the coagulation step b) or the mixture obtained during the treatment step with a neutralising agent c), e. removing the flocs formed in step d) and retrieving the liquid, f. treating the residual suspended solids in step e) by filtration, g. contacting the liquid retrieved in step f) with an ion-exchange resin capable of adsorbing one or more heavy metals or successive contacting with several ion-exchange resins, each resin being capable of adsorbing one or more heavy metals, in order to reduce the concentration of heavy metals present in said liquid, h. retrieving the liquid obtained during step g), the concentration of each of the heavy metals at the end of the method in the liquid obtained during step g) being less than 0.01 mg/l.
A retainer for connecting two panels of a heat shield assembly, the retainer comprising: a central elongate panel having a length I and a width w, a top end, a bottom end and first and second long sides extending from the top end to the bottom end; a first side panel extending along the first long side of the central elongate panel and a second side panel extending along the second long side of the central elongate panel; and characterised by : a first U-shaped fold joining the central elongate panel first long side to the first side panel , and a second U-shaped fold joining the second long side to the second side panel .
A joint structure comprising two panels joined together using one or more joint pieces, wherein: - a first panel has, extending from a face of the panel, adjacent its edge, one or more recesses; - a second panel is provided with one or more corresponding keyhole-shaped recesses; - one or more joint pieces consisting of a circular or polygonal base having a generally cylindrical or prismatic structure and, protruding from one side of the base, in a direction perpendicular to the axis of the cylindrical or prismatic base, a headed stud having a first narrower or neck portion adjacent the base and, at the end of the neck portion remote from the base, a wider head , where an edge of the head is inset from a plane of one side of the base, wherein: - said one or more recesses of the first panel has predetermined depth at least equal to the distance between the two faces of the base of the joint piece and a shape corresponding to the circular or polygonal shape of the joint piece base, - the base of each of said one or more joint pieces is located in a corresponding recess of the first panel, and the neck and head of each joint piece extend from an edge of the first panel and into said keyhole-shaped recess in the second panel, where the walls defining the narrower end of the keyhole shape are undercut to provide a slot or seat into which the head of the stud forming part of the joint piece has been slid with the collar of the joint piece sliding along the narrower portion of the keyhole-shaped slot. - a first panel has, extending from a face of the panel, adjacent its edge, one or more recesses; - a second panel is provided with one or more corresponding keyhole-shaped recesses; - one or more joint pieces consisting of a circular or polygonal base having a generally cylindrical or prismatic structure and, protruding from one side of the base, in a direction perpendicular to the axis of the cylindrical or prismatic base, a headed stud having a first narrower or neck portion adjacent the base and, at the end of the neck portion remote from the base, a wider head , where an edge of the head is inset from a plane of one side of the base, - said one or more recesses of the first panel has predetermined depth at least equal to the distance between the two faces of the base of the joint piece and a shape corresponding to the circular or polygonal shape of the joint piece base, - the base of each of said one or more joint pieces is located in a corresponding recess of the first panel, and the neck and head of each joint piece extend from an edge of the first panel and into said keyhole-shaped recess in the second panel, where the walls defining the narrower end of the keyhole shape are undercut to provide a slot or seat into which the head of the stud forming part of the joint piece has been slid with the collar of the joint piece sliding along the narrower portion of the keyhole-shaped slot.
A dental cement set consisting of a plurality of dental cements having color tones including color tones of 3 to n colors for selecting and using a dental cement from the plurality of dental cements having the color tones including the color tones of the 3 to n colors after trial test with trial test materials for the dental cement to be used from the plurality of dental cements having the color tones including the color tones of the 3 to n colors, wherein: when color tone C(CL*,Ca*,Cb*) of each cement is expressed in L*a*b* space and, it is defined that C 1 (CL* 1 , Ca* 1 , Cb* 1 ) is a color tone having higher L* value in two color tones having the longest distance, and C 2 (CL* 2 , Ca* 2 , Cb* 2 ), C 3 (CL* 3 , Ca* 3 , Cb* 3 ), to C n-1 , (CL* n-1 , Ca* n-1 , Cb* n-1 ), Cn (CL* n , Ca* n , Cb* n ) are color tones in the order of closer distance from the C 1 (CL* 1 , Ca* 1 , Cb* 1 ), in the L*a*b* space, each color tone C (CL*, Ca*, Cb*) in the plurality of dental cements having the 3 to n colors satisfies that an amount of information loss P1 n in each color tone with regard to first principal component determined by principal component analysis of each of the color tones C 1 (CL* 1 , Ca* 1 , Cb* 1 ), C 2 (CL* 2 , Ca* 2 , Cb* 2 ), to C n-1 , (CL* n-1 , Ca* n-1 , Cb* n-1 ), Cn (CL* n , Ca* n , Cb* n ) is less than 2, and following Formula 1 2 ≤ CL * p − 1 − CL * p 2 + Ca * p − 1 − Ca * p 2 + Cb * p − 1 − Cb * p 2 1 / 2 < 8 wherein p is an arbitrary integer of 2 ≤ p ≤ n. when color tone C(CL*,Ca*,Cb*) of each cement is expressed in L*a*b* space and, it is defined that C 1 (CL* 1 , Ca* 1 , Cb* 1 ) is a color tone having higher L* value in two color tones having the longest distance, and C 2 (CL* 2 , Ca* 2 , Cb* 2 ), C 3 (CL* 3 , Ca* 3 , Cb* 3 ), to C n-1 , (CL* n-1 , Ca* n-1 , Cb* n-1 ), Cn (CL* n , Ca* n , Cb* n ) are color tones in the order of closer distance from the C 1 (CL* 1 , Ca* 1 , Cb* 1 ), in the L*a*b* space, each color tone C (CL*, Ca*, Cb*) in the plurality of dental cements having the 3 to n colors satisfies that an amount of information loss P1 n in each color tone with regard to first principal component determined by principal component analysis of each of the color tones C 1 (CL* 1 , Ca* 1 , Cb* 1 ), C 2 (CL* 2 , Ca* 2 , Cb* 2 ), to C n-1 , (CL* n-1 , Ca* n-1 , Cb* n-1 ), Cn (CL* n , Ca* n , Cb* n ) is less than 2, and following Formula 1 2 ≤ CL * p − 1 − CL * p 2 + Ca * p − 1 − Ca * p 2 + Cb * p − 1 − Cb * p 2 1 / 2 < 8 wherein p is an arbitrary integer of 2 ≤ p ≤ n.
Swivel bearing for a wheel suspension system, in particular for a front axle of a motor vehicle comprising a wheel bearing seat , at least one upper and lower brake carrier attachment , a control arm attachment , a steering link , a damper mount , a support rib , the support rib extending out of one side of the damper mount , and the upper brake carrier attachment being arranged on the support rib , and a support web , the support web extending out of the other side of the damper mount , the swivel bearing having at least one opening , the opening being arranged in the region between the wheel bearing seat and the damper mount , the opening being divided by way of a strut which extends from the damper mount or the support web as far as the wheel bearing seat , domes being arranged along the circumference of the wheel bearing seat, and a circumferential web connecting the domes , characterized in that the height of the web is lower than the height of the domes , in order that a wheel bearing lies on the domes and not on the web .
Cleaning tool for cleaning an aerosol-generating device, wherein the aerosol-generating device comprises a heating chamber and a heating element arranged in the heating chamber, wherein the cleaning tool comprises an elongate element that has a proximate end and a distal end , wherein the elongate element comprises an abrasive surface and is configured to be inserted into the heating chamber of the aerosol-generating device for cleaning at least the heating element, wherein the abrasive surface of the elongate element is configured as a corrugated cardboard surface, wherein the cleaning tool further comprises a tubular element at the proximal end of the elongate element , the tubular element being configured to be inserted into the heating chamber of the aerosol-generating device, and wherein the tubular element comprises at least one groove for contacting and cleaning the base of the heating chamber.
A key derivation apparatus, comprising: in a first handover of a User Equipment, UE, from Evolved Universal Terrestrial Radio Access Network, EUTRAN, to a UTRAN, means for receiving a Handover Required message from a source base station, BS; means for deriving a key CK' || IK' in the UTRAN, according to a Key Derivation Function, KDF, a root key Kasme, a current Non-Access Stratum, NAS, downlink COUNT value in a current security context, and CK' is a ciphering key and IK' is an integrity key; means for sending the current NAS downlink COUNT value by a Handover Command message to the source BS; and means for adding a certain value to the current NAS downlink COUNT value to obtain a changed NAS downlink COUNT value, wherein the certain value is 1; wherein the changed NAS downlink COUNT value is for use for a key derivation in a second handover of the UE.
Medium- or high-voltage equipment including a leaktight enclosure in which there are located electrical components and a gas mixture for providing electrical insulation and/or for extinguishing electric arcs that are likely to occur in said enclosure, the gas mixture comprising heptafluoroisobutyronitrile, carbon dioxide and oxygen, wherein oxygen presents a molar percentage equal to or higher than 26%, in said gas mixture.
A positive electrode comprising a positive electrode current collector and a positive electrode material layer formed on the positive electrode current collector , the positive electrode material layer comprising a positive electrode active material in an amount ranging from 75 to 96% by mass based on the positive electrode material layer and a first conductive agent, the first conductive agent comprising a D-band appearing at 1350 ± 10 cm -1 and a G-band appearing at 1590 ± 10 cm -1 in a Raman chart obtained according to Raman spectroscopy, a ratio of an integrated intensity of the D-band to an integrated intensity of the G-band being more than 0.6 and not more than 10, and a ratio of an occupancy area of the first conductive agent to an occupancy area of the positive electrode active material being from 1.5 to 5 in a mapping image obtained according to Raman spectroscopy for the positive electrode material layer , wherein, in the mapping image, a ratio of a distance of particles of the positive electrode active material to a distance between particles of the first conductive agent is from 0.9 to 1.1.
A serially deposited fiber mat comprising a portion of a medical appliance, the serially deposited fiber mat comprising: serially deposited and sintered polytetrafluoroethylene (PTFE) fibers, wherein 95% of the fibers have diameters from 50 nm to 6 μm, wherein the serially deposited fiber mat is a stretched mat. serially deposited and sintered polytetrafluoroethylene (PTFE) fibers, wherein 95% of the fibers have diameters from 50 nm to 6 μm, wherein the serially deposited fiber mat is a stretched mat.
An intelligent digital assistant system comprising: at least one microphone configured to receive an audio input ; a speaker configured to emit an audio output; and a processor configured to: engage in a conversation with a first user, the conversation with the first user activating an intent template with a plurality of slots; concurrent with the first user being engaged in the conversation with the system , recognize speech of a second user in the audio input ; recognize that the second user is engaged in a sidebar conversation with the first user; process the recognized speech of the second user to determine a context; and perform a predetermined conversation disentanglement action according to the context, wherein one or more slots of the activated intent template is filled according to the context derived from the sidebar conversation between the first user and the second user. at least one microphone configured to receive an audio input ; a speaker configured to emit an audio output; and a processor configured to: engage in a conversation with a first user, the conversation with the first user activating an intent template with a plurality of slots; concurrent with the first user being engaged in the conversation with the system , recognize speech of a second user in the audio input ; recognize that the second user is engaged in a sidebar conversation with the first user; process the recognized speech of the second user to determine a context; and perform a predetermined conversation disentanglement action according to the context, wherein one or more slots of the activated intent template is filled according to the context derived from the sidebar conversation between the first user and the second user. engage in a conversation with a first user, the conversation with the first user activating an intent template with a plurality of slots; concurrent with the first user being engaged in the conversation with the system , recognize speech of a second user in the audio input ; recognize that the second user is engaged in a sidebar conversation with the first user; process the recognized speech of the second user to determine a context; and perform a predetermined conversation disentanglement action according to the context, wherein one or more slots of the activated intent template is filled according to the context derived from the sidebar conversation between the first user and the second user.
A synthetic nutritional composition comprising: i. ruminant milk fat wherein the milk fat is capable of activating the aryl hydrocarbon receptor (AhR) in an AhR activity assay as defined in Example 1; and ii. a ruminant immunoglobulin in an amount of between 115 μg and 50 mg per gram of dry composition; characterized in that at least 30% of the ruminant immunoglobulin is non-denatured; and wherein the amount of milk fat is between 10 and 60 g of fat per 100 gram of formula, wherein the amount of ruminant fat is between 5 and 90 wt% as determined to the total amount of fat, and wherein the ruminant milk fat is not exposed to a pH< 5.0. i. ruminant milk fat wherein the milk fat is capable of activating the aryl hydrocarbon receptor (AhR) in an AhR activity assay as defined in Example 1; and ii. a ruminant immunoglobulin in an amount of between 115 μg and 50 mg per gram of dry composition; characterized in that at least 30% of the ruminant immunoglobulin is non-denatured; and wherein the amount of milk fat is between 10 and 60 g of fat per 100 gram of formula, wherein the amount of ruminant fat is between 5 and 90 wt% as determined to the total amount of fat, and wherein the ruminant milk fat is not exposed to a pH< 5.0.