mhurhangee/patent-ind-claim-en huggingface dataset:
Method for ground working with a civil engineering machine , which comprises at least one rotary drive unit for driving a ground working tool in rotation and at least one feed unit with which the ground working tool is introduced into the ground to create a hole , wherein a control and evaluation unit is provided with which - setting parameters are acquired and stored during ground working, - at least one state value resulting during ground working is acquired and stored and - the setting parameters are modified and set by the control and evaluation unit depending on the at least one state value acquired, characterised in that - automatic calibration is carried out by the control and evaluation unit at least at the beginning of ground working, wherein ground working is carried out in a first calibration section with a first set of setting parameters predetermined by a calibration program and at least in a further second calibration section with a second set of setting parameters predetermined by the calibration program, wherein the predetermined sets of setting parameters differ from one another, and - in that the control and evaluation unit subsequently sets the setting parameters for further ground working depending on the state variables acquired in the calibration sections. - setting parameters are acquired and stored during ground working, - at least one state value resulting during ground working is acquired and stored and - the setting parameters are modified and set by the control and evaluation unit depending on the at least one state value acquired, - automatic calibration is carried out by the control and evaluation unit at least at the beginning of ground working, wherein ground working is carried out in a first calibration section with a first set of setting parameters predetermined by a calibration program and at least in a further second calibration section with a second set of setting parameters predetermined by the calibration program, wherein the predetermined sets of setting parameters differ from one another, and - in that the control and evaluation unit subsequently sets the setting parameters for further ground working depending on the state variables acquired in the calibration sections.
Electric cable comprising: - an elongated electrically conductive element having a cross-section s (in mm 2 ), - an electrically insulating layer comprising polyimide (PI) surrounding said elongated electrically conductive element and having a thickness e 1 (in mm), and - a fluorinated electrically insulating layer comprising a fluoropolymer , surrounding said electrically insulating layer comprising polyimide (PI) , characterized in that the thickness e 2 (in mm) of the fluorinated electrically insulating layer is less than 0.4000 mm, while the total thickness e 1 + e 2 (in mm) is such that e 1 + e 2 ≥ - 0.02140 x In (s) + 0.41613. - an elongated electrically conductive element having a cross-section s (in mm 2 ), - an electrically insulating layer comprising polyimide (PI) surrounding said elongated electrically conductive element and having a thickness e 1 (in mm), and - a fluorinated electrically insulating layer comprising a fluoropolymer , surrounding said electrically insulating layer comprising polyimide (PI) ,
PUFA, vitamin E, vitamin D and the protein bound amino acids glycine, arginine and tryptophan as active ingredients for use in therapy of patients with sarcopenia and/or frailty or pre-sarcopenic and/or pre-frail patients, wherein an effective amount of said active ingredients is administered in the form of a nutritional composition comprising a) a lipid component providing 40-50 EN% based on the total energy of the nutritional composition, wherein 12-16 EN% based on the total energy of the nutritional composition is provided by PUFA, b) 4.0-8.0 mg/100mL alpha-TE vitamin E, c) 5.0-12.0 μg/100mL vitamin D, d) 2.5-4.5 g/100mL glycine, e) 0.5-1.5 g/100mL arginine, and f) at least 0.02 g/100mL tryptophan. a) a lipid component providing 40-50 EN% based on the total energy of the nutritional composition, wherein 12-16 EN% based on the total energy of the nutritional composition is provided by PUFA, b) 4.0-8.0 mg/100mL alpha-TE vitamin E, c) 5.0-12.0 μg/100mL vitamin D, d) 2.5-4.5 g/100mL glycine, e) 0.5-1.5 g/100mL arginine, and f) at least 0.02 g/100mL tryptophan.
A screening method of detecting stress in stem cells exposed to a compound to be screened, the method comprising: measuring the expression or activity of one or more of Oct4; Sox2; Nanog; Rex1; TEAD4; Errβ; Lrp2; Dab2; Fgf5; Pdgfra; Sox17; Gata4/6; PAX8; NEFL; TSHR; Brachyury; Laminin; AFP; Nestin; Goosecoid; MEK1; MEK2; and AKT in the presence of fibroblast growth factor 4 (FGF4) for murine trophoblast stem cells (TSCs) or leukemia inhibitory factor (LIF) for murine embryonic stem cells (ESCs); comparing the measurement to a reference level of expression or activity, which is derived from previous measures from a population of stem cells which have not been exposed to the compound to be screened; and determining that the stem cells have experienced stress if the measurement is statistically significantly reduced or increased from the reference level, wherein the method screens compounds for their stress effects on the stem cells, and wherein a statistically significantly reduction in Oct4; Sox2; Nanog; Rex1; TEAD4; or Errβ is indicative of a stress experience, or a statistically significantly increase in Lrp2; Dab2; Fgf5; Pdgfra; Sox17; Gata4/6; PAX8; NEFL; TSHR; Brachyury; Laminin; AFP; Nestin; Goosecoid; MEK1; MEK2; or AKT is indicative of a stress experience. measuring the expression or activity of one or more of Oct4; Sox2; Nanog; Rex1; TEAD4; Errβ; Lrp2; Dab2; Fgf5; Pdgfra; Sox17; Gata4/6; PAX8; NEFL; TSHR; Brachyury; Laminin; AFP; Nestin; Goosecoid; MEK1; MEK2; and AKT in the presence of fibroblast growth factor 4 (FGF4) for murine trophoblast stem cells (TSCs) or leukemia inhibitory factor (LIF) for murine embryonic stem cells (ESCs); comparing the measurement to a reference level of expression or activity, which is derived from previous measures from a population of stem cells which have not been exposed to the compound to be screened; and determining that the stem cells have experienced stress if the measurement is statistically significantly reduced or increased from the reference level, wherein the method screens compounds for their stress effects on the stem cells, and wherein a statistically significantly reduction in Oct4; Sox2; Nanog; Rex1; TEAD4; or Errβ is indicative of a stress experience, or a statistically significantly increase in Lrp2; Dab2; Fgf5; Pdgfra; Sox17; Gata4/6; PAX8; NEFL; TSHR; Brachyury; Laminin; AFP; Nestin; Goosecoid; MEK1; MEK2; or AKT is indicative of a stress experience.
A shoulder prosthesis component (10; 20; 30; 40) for a patient, comprising an implantation body (11; 21; 31; 41), which defines an implantation axis (X11; X21; X31; X41) and which is designed to be received within a bone (H; G) of the patient that includes a cortical bone external layer (H1; G1) and a cancellous bone internal layer (H2; G2), characterized in that the implantation body is designed to compact the cancellous bone internal layer in a planned manner that is differentiated along and around the implantation axis depending on preoperative local bone density and quantity of the cancellous bone internal layer.
An implantable lead for electrically stimulating an organ (N) and/or collecting electrical potentials thereon, comprising: - a distal termination capable of coming into contact with the tissues of the organ, said termination comprising: ∘ an insulating substrate capable of being wrapped around the organ (N), and ∘ at least one conductive interface carried by the substrate; and - a lead body , comprising at least one bonding conductor connected to a respective conductive interface , wherein - in a state when the distal termination is in contract with the tissues of the organ (N), the substrate is wrapped around the organ (N) such that a protruding part of the substrate adjoins the lead body whereby the lead body is not directly in contact with the organ (N); - the conductive interface comprises at least one deformable conductive wire ; - the conductive interface comprises a woven, embroidered, braided or knitted configuration for anchoring the deformable wire to the substrate ; and - said woven, embroidered, braided or knitted configuration comprises a pattern (50; 52,54; 60,62) imparting to said at least one deformable conductive wire a passive component electrical function (R; C; A; L; X). - a distal termination capable of coming into contact with the tissues of the organ, said termination comprising: ∘ an insulating substrate capable of being wrapped around the organ (N), and ∘ at least one conductive interface carried by the substrate; and ∘ an insulating substrate capable of being wrapped around the organ (N), and ∘ at least one conductive interface carried by the substrate; and - a lead body , comprising at least one bonding conductor connected to a respective conductive interface , wherein - in a state when the distal termination is in contract with the tissues of the organ (N), the substrate is wrapped around the organ (N) such that a protruding part of the substrate adjoins the lead body whereby the lead body is not directly in contact with the organ (N); - the conductive interface comprises at least one deformable conductive wire ; - the conductive interface comprises a woven, embroidered, braided or knitted configuration for anchoring the deformable wire to the substrate ; and - said woven, embroidered, braided or knitted configuration comprises a pattern (50; 52,54; 60,62) imparting to said at least one deformable conductive wire a passive component electrical function (R; C; A; L; X).
A cold field emission electron source, comprising: one or more tips, wherein at least one of the tips comprises one or more fixed emission sites, wherein the emission sites comprises a reaction product of metal atoms on a surface of the tip with gas molecules, the emission sites are rooted in the surface of the tip, wherein the reaction is carried out so that the gas is adsorbed, dissociated under an electric field, and further combined with the metal atoms on the surface to form the reaction product that is directly bonded to the surface, wherein a metal atom material comprises tungsten, and wherein the gas molecules comprise hydrogen-containing gas molecules. one or more tips, wherein at least one of the tips comprises one or more fixed emission sites, wherein the emission sites comprises a reaction product of metal atoms on a surface of the tip with gas molecules, the emission sites are rooted in the surface of the tip, wherein the reaction is carried out so that the gas is adsorbed, dissociated under an electric field, and further combined with the metal atoms on the surface to form the reaction product that is directly bonded to the surface, wherein a metal atom material comprises tungsten, and wherein the gas molecules comprise hydrogen-containing gas molecules.
A process for synthesizing isooctyl nitrate in a continuous flow reactor with 99% or greater conversion and 99% or greater yield, the process comprising: flowing a H 2 SO 4 -HNO 3 mixture within a flow reactor; flowing isooctyl alcohol into said flow reactor so as to mix the isooctyl alcohol with the H 2 SO 4 -HNO 3 mixture and produce a reaction mixture stream flowing in said reactor; maintaining the reaction mixture stream flowing in said flow reactor at a reaction temperature within in the range -10° to 35°C inclusive, wherein the residence time of the reaction mixture stream in the flow reactor is in the range of 5 to 40 seconds, inclusive, and wherein the H 2 SO 4 of the H 2 SO 4 -HNO 3 mixture is H 2 SO 4 having a strength within the range of 88% to 92% inclusive. flowing a H 2 SO 4 -HNO 3 mixture within a flow reactor; flowing isooctyl alcohol into said flow reactor so as to mix the isooctyl alcohol with the H 2 SO 4 -HNO 3 mixture and produce a reaction mixture stream flowing in said reactor; maintaining the reaction mixture stream flowing in said flow reactor at a reaction temperature within in the range -10° to 35°C inclusive, wherein the residence time of the reaction mixture stream in the flow reactor is in the range of 5 to 40 seconds, inclusive, and wherein the H 2 SO 4 of the H 2 SO 4 -HNO 3 mixture is H 2 SO 4 having a strength within the range of 88% to 92% inclusive.
Panel lamp, comprising a frame body having a mounting groove , a light guide plate mounted in the mounting groove , a first light source board provided in the mounting groove , a first elastic member provided in the mounting groove , a second light source board provided in the mounting groove , and a second elastic member provided in the mounting groove , wherein the light guide plate has a first side surface , a second side surface , a third side surface and a fourth side surface connected in sequence; the first light source board is located between the first side surface and an inner side wall of the mounting groove ; the first elastic member is located between the third side surface and the inner side wall of the mounting groove ; the second light source board is located between the second side surface and the inner side wall of the mounting groove ; and the second elastic member is located between the fourth side surface and the inner side wall of the mounting groove , wherein the panel lamp further comprises a back panel connected to the frame body and a diffusion plate provided on a side of the light guide plate away from the back panel , wherein the light guide plate is located between the back panel and the frame body , characterized in that an atomization layer is provided on a side of the diffusion plate away from the light guide plate , wherein a density of the atomization layer gradually decreases in a direction from a junction between the first side surface and the second side surface to a junction between the third side surface and the fourth side surface , and a current magnitude of the light emitting element on the first light source board is gradually increased in a direction away from the second light source board ; and a current magnitude of the light emitting element on the second light source board is gradually increased in a direction away from the first light source board.
Process for the treatment of a sweet whey material containing cGMP (caseinoGlycoMacroPeptide), said process comprising the following steps: - Decationising the sweet whey material so as to obtain sweet whey having a pH value of 1 to 4.5; - Treating said sweet whey in a fluidized bed reactor comprising a specific volume of an anionic resin, at a temperature between 10 and 18°C, wherein said sweet whey contacts said resin for a sufficient amount of time so that the resin absorbs between 52% and 58% of the cGMP present in the sweet whey; and - Recovering a protein material suitable for being used in hypoallergenic infant formulae with no need for mixing the protein material with at least one different source of proteins and/or amino acids, wherein the treatment of the sweet whey in the fluidized bed reactor is implemented at a ratio of protein over resin of 0.20 to 0.35 kg/L. - Decationising the sweet whey material so as to obtain sweet whey having a pH value of 1 to 4.5; - Treating said sweet whey in a fluidized bed reactor comprising a specific volume of an anionic resin, at a temperature between 10 and 18°C, wherein said sweet whey contacts said resin for a sufficient amount of time so that the resin absorbs between 52% and 58% of the cGMP present in the sweet whey; and - Recovering a protein material suitable for being used in hypoallergenic infant formulae with no need for mixing the protein material with at least one different source of proteins and/or amino acids,
A method for manufacturing a layup kit for an airframe, comprising: applying a layup release layer to an obverse surface of a flexible carrier , compacting the layup release layer and the flexible carrier in a vacuum; laying down a first pre-patterned lamina in a first lamina orientation on the flexible carrier; iteratively layer down each of a plurality of subsequent laminae in a respective subsequent lamina orientation on the flexible carrier to fabricate a pre-patterned layup having a preselected pattern shaped to accommodate an airframe topological feature; wherein the pre-patterned layup is laid down in a predetermined layup orientation indexed to the flexible carrier, comprising providing an indexing element, including a fiducial element, on the flexible carrier to establish a spatial reference system corresponding to the flexible carrier; and performing a second compacting of the pre-patterned layup, the layup release layer and the flexible carrier in a vacuum. applying a layup release layer to an obverse surface of a flexible carrier , compacting the layup release layer and the flexible carrier in a vacuum; laying down a first pre-patterned lamina in a first lamina orientation on the flexible carrier; iteratively layer down each of a plurality of subsequent laminae in a respective subsequent lamina orientation on the flexible carrier to fabricate a pre-patterned layup having a preselected pattern shaped to accommodate an airframe topological feature; wherein the pre-patterned layup is laid down in a predetermined layup orientation indexed to the flexible carrier, comprising providing an indexing element, including a fiducial element, on the flexible carrier to establish a spatial reference system corresponding to the flexible carrier; and performing a second compacting of the pre-patterned layup, the layup release layer and the flexible carrier in a vacuum.
Method of collaborative work on a PLM computer application between: - a first user working on a first object that represents a part or an assembly of parts on the basis of a visual representation of the first object displayed in an authoring environment of a first local computer, the first object being defined by first solid geometry data and specifications, the first solid geometry and specifications being available at the first computer; and - a second user working on a second object that represents a part or an assembly of parts on the basis of a visual representation of the second object in an authoring environment of a second local computer, wherein the second object and the first object make part of a same assembly; wherein the first computer and the second computer are connected via a computer network, the method being characterised by , as the first user works on the first object and the second user works on the second object, iterating the steps of: a) sending, from the first computer to the second computer, a snapshot image of at least a part of the visual representation of the first object as displayed on the screen of the first local computer and viewing context data; b) displaying the snapshot image in the authoring environment of the second computer, wherein the snapshot image is displayed together with a visual representation of the second object in the authoring environment of the second computer in a same viewing context corresponding to the viewing context data so as to provide a combined representation of the first object and of the second object in the same viewing context, the snapshot image and the visual representation of the second object being displayed in superimposed condition. - a first user working on a first object that represents a part or an assembly of parts on the basis of a visual representation of the first object displayed in an authoring environment of a first local computer, the first object being defined by first solid geometry data and specifications, the first solid geometry and specifications being available at the first computer; and - a second user working on a second object that represents a part or an assembly of parts on the basis of a visual representation of the second object in an authoring environment of a second local computer, wherein the second object and the first object make part of a same assembly; a) sending, from the first computer to the second computer, a snapshot image of at least a part of the visual representation of the first object as displayed on the screen of the first local computer and viewing context data; b) displaying the snapshot image in the authoring environment of the second computer, wherein the snapshot image is displayed together with a visual representation of the second object in the authoring environment of the second computer in a same viewing context corresponding to the viewing context data so as to provide a combined representation of the first object and of the second object in the same viewing context, the snapshot image and the visual representation of the second object being displayed in superimposed condition.
A valve assembly , comprising: a valve body having an inlet port , an outlet port , and a flow passage therebetween; a valve element movably disposed within the valve body flow passage ; an actuator operably coupled to the valve element , the actuator operable between a first position and a second position, to move the valve element between an opened position and a closed position, respectively; a lockout mechanism , comprising at least one lockout screw contained in a receiver in the valve assembly and self-storing therein, the at least one lockout screw adapted to maintain the actuator in a desired position including the first position or the second position; and characterized in that the valve assembly further comprises a cover plate disposed over the receiver and having an aperture corresponding to the receiver wherein a head of the at least one lockout screw is smaller in width than the aperture and a width of a first set of threads of the at least one lockout screw is wider than the aperture . a valve body having an inlet port , an outlet port , and a flow passage therebetween; a valve element movably disposed within the valve body flow passage ; an actuator operably coupled to the valve element , the actuator operable between a first position and a second position, to move the valve element between an opened position and a closed position, respectively; a lockout mechanism , comprising at least one lockout screw contained in a receiver in the valve assembly and self-storing therein, the at least one lockout screw adapted to maintain the actuator in a desired position including the first position or the second position; and characterized in that the valve assembly further comprises a cover plate disposed over the receiver and having an aperture corresponding to the receiver wherein a head of the at least one lockout screw is smaller in width than the aperture and a width of a first set of threads of the at least one lockout screw is wider than the aperture .
A flexible pipe for transporting a fluid, comprising: - a tubular sheath with a central axis (A-A') defining an internal fluid circulation passage ; - a tubular composite structure , applied to the tubular sheath and bonded to the tubular sheath , the tubular composite structure comprising at least two laminated reinforcement layers (32 to 36), each reinforcement layer (32 to 36) comprising a polymer matrix and reinforcing fibres ; - at least one tensile armour ply , not bonded to the tubular composite structure , the tensile armour ply comprising at least one armouring element wrapped around the tubular composite structure ; characterised in that the tubular composite structure has at least one anti-delamination layer interposed between two laminated reinforcement layers (32 to 36). - a tubular sheath with a central axis (A-A') defining an internal fluid circulation passage ; - a tubular composite structure , applied to the tubular sheath and bonded to the tubular sheath , the tubular composite structure comprising at least two laminated reinforcement layers (32 to 36), each reinforcement layer (32 to 36) comprising a polymer matrix and reinforcing fibres ; - at least one tensile armour ply , not bonded to the tubular composite structure , the tensile armour ply comprising at least one armouring element wrapped around the tubular composite structure ;