mhurhangee/patent-ind-claim-en huggingface dataset:
A three-dimensional (3-D) printing method, adapted to manufacture a closed-contour structure on a printing plane, comprising: obtaining (S401, S604) a closed printing path (L1, L2, L3, L4, L5) of the closed-contour structure , wherein the closed printing path (L1, L2, L3, L4, L5) comprises a printing start point (S1, S2, S3, S4, S5) and a printing end point (E1, E2, E3, E4, E5); controlling (S402, S602) a printing head to move from the printing start point (S1, S2, S3, S4, S5) and along a front segment (FL1, FL2) of the closed printing path (L1, L2, L3, L4, L5) according to a first moving speed, and controlling the printing head to simultaneously extrude a building material according to a first feeding-in ratio; characterised in that , after the printing head moves along the front segment (FL1, FL2) of the closed printing path (L1, L2, L3, L4, L5), controlling (S403, S604) the printing head to move to the printing end point (E1, E2, E3, E4, E5) according to a second moving speed along a rear segment (BL1, BL2) of the closed printing path (L1, L2, L3, L4, L5), and controlling the printing head to simultaneously extrude the building material according to a second feeding-in ratio, wherein the second moving speed is less than the first moving speed, and the first feeding-in ratio is greater than the second feeding-in ratio. obtaining (S401, S604) a closed printing path (L1, L2, L3, L4, L5) of the closed-contour structure , wherein the closed printing path (L1, L2, L3, L4, L5) comprises a printing start point (S1, S2, S3, S4, S5) and a printing end point (E1, E2, E3, E4, E5); controlling (S402, S602) a printing head to move from the printing start point (S1, S2, S3, S4, S5) and along a front segment (FL1, FL2) of the closed printing path (L1, L2, L3, L4, L5) according to a first moving speed, and controlling the printing head to simultaneously extrude a building material according to a first feeding-in ratio; characterised in that , after the printing head moves along the front segment (FL1, FL2) of the closed printing path (L1, L2, L3, L4, L5), controlling (S403, S604) the printing head to move to the printing end point (E1, E2, E3, E4, E5) according to a second moving speed along a rear segment (BL1, BL2) of the closed printing path (L1, L2, L3, L4, L5), and controlling the printing head to simultaneously extrude the building material according to a second feeding-in ratio, wherein the second moving speed is less than the first moving speed, and the first feeding-in ratio is greater than the second feeding-in ratio.
Process for hydroformylation of olefins having 6 to 20 carbon atoms in the presence of a cobalt catalyst in the presence of an aqueous phase with thorough mixing in a reactor wherein a hydroformylation products-containing first stream is withdrawn at the top of the reactor and an aqueous phase-containing second stream is withdrawn from the bottom of the reactor via at least one line leading out of the bottom of the reactor, which process comprises controlling one or more mass flow parameters of the second stream in accordance with the density of the second stream.
A device for handling fluid of an at least partially electrically powered vehicle, comprising: a valve assembly comprising a valve housing , the valve housing having at least two radially disposed connection openings and at least one axially disposed connection opening for fluid to flow in and/or out, a valve body , which is arranged inside the valve housing and is designed to be rotatable about an axial rotation axis R, wherein the valve body has a first arc-shaped connecting channel for connecting two radially arranged connection openings and a second arc-shaped connecting channel for connecting a radially arranged connection opening to an axially arranged connection opening , wherein the at least two radially arranged connection openings define a base plane B which is formed orthogonally to the axial rotation axis R, and the first arc-shaped connecting channel defines a first connecting channel plane V, characterized in that the first connecting channel plane V has a first angle of inclination □ relative to the base plane B, which is greater than 0°. a valve assembly comprising a valve housing , the valve housing having at least two radially disposed connection openings and at least one axially disposed connection opening for fluid to flow in and/or out, a valve body , which is arranged inside the valve housing and is designed to be rotatable about an axial rotation axis R, wherein the valve body has a first arc-shaped connecting channel for connecting two radially arranged connection openings and a second arc-shaped connecting channel for connecting a radially arranged connection opening to an axially arranged connection opening , wherein the at least two radially arranged connection openings define a base plane B which is formed orthogonally to the axial rotation axis R, and the first arc-shaped connecting channel defines a first connecting channel plane V, characterized in that the first connecting channel plane V has a first angle of inclination □ relative to the base plane B, which is greater than 0°.
A preparation comprising a dispersion of - at least one phospholipid, and - at least one fatty acid salt of a lysine cation with an anion derived from an omega-3 or omega-6 fatty acid. - at least one phospholipid, and - at least one fatty acid salt of a lysine cation with an anion derived from an omega-3 or omega-6 fatty acid.
A method for recycling of tile material comprising compressed mineral fibre material and being in the form of at least one of waste material generated during manufacturing of tiles, residual material generated during installation of tiles, and tiles obtained from installed tile systems after end of life, comprising collecting the tile material , conversion of the tile material into a plurality of body members , characterized in that the method further comprises the steps of : assembling a baseboard by arranging the plurality of body members on a carrier layer and fixing them thereto, and conversion of the baseboard into at least two tiles . collecting the tile material , conversion of the tile material into a plurality of body members , characterized in that the method further comprises the steps of : assembling a baseboard by arranging the plurality of body members on a carrier layer and fixing them thereto, and conversion of the baseboard into at least two tiles . assembling a baseboard by arranging the plurality of body members on a carrier layer and fixing them thereto, and conversion of the baseboard into at least two tiles .
A method of conducting mouse clinical trial comprising the steps of: receiving a dataset of tumor volumes measured in a mouse clinical trial, wherein the mouse clinical trial comprises the steps of: measuring tumor volume of a tumor sample of a treatment group and tumor volume of a control group at a plurality of days, wherein a tumor sample has been obtained from a patient, and grafted to the treatment group comprising m mice and the control group comprising n mice, wherein m and n are integers, wherein a drug has been administered to the treatment group and a vehicle has been administered to the control group; and determining tumor growth curve of the treatment group and tumor growth curve of the control group; determining area under curve (AUC) of the treatment group (AUC T ) and AUC of the control group (AUCc); and evaluating efficacy of the drug based on an AUC ratio between the AUC T and the AUC C , wherein the AUC T = ∫ 0 d T ln V x T dx − d T × ln V 0 T , wherein V 0 T is the tumor volume of the treatment group at day 0, V x T is the tumor volume of the treatment group at day x, d(T) is the number of days the measuring step for the treatment group lasts; and wherein the AUC C = ∫ 0 d ln V x C dx − d × ln V 0 C , wherein V 0 C is the tumor volume of the control group at day 0, V x C is the tumor volume of the control group at day x, d(C) is the number of days the measuring step for the control group lasts, wherein d(T) ≠ d(C), wherein the AUC ratio = AUC T / d T 2 AUC C / d C 2 . measuring tumor volume of a tumor sample of a treatment group and tumor volume of a control group at a plurality of days, wherein a tumor sample has been obtained from a patient, and grafted to the treatment group comprising m mice and the control group comprising n mice, wherein m and n are integers, wherein a drug has been administered to the treatment group and a vehicle has been administered to the control group; and determining tumor growth curve of the treatment group and tumor growth curve of the control group; determining area under curve (AUC) of the treatment group (AUC T ) and AUC of the control group (AUCc); and evaluating efficacy of the drug based on an AUC ratio between the AUC T and the AUC C , wherein the AUC T = ∫ 0 d T ln V x T dx − d T × ln V 0 T , wherein V 0 T is the tumor volume of the treatment group at day 0, V x T is the tumor volume of the treatment group at day x, d(T) is the number of days the measuring step for the treatment group lasts; and wherein the AUC C = ∫ 0 d ln V x C dx − d × ln V 0 C , wherein V 0 C is the tumor volume of the control group at day 0, V x C is the tumor volume of the control group at day x, d(C) is the number of days the measuring step for the control group lasts, wherein d(T) ≠ d(C), wherein the AUC ratio = AUC T / d T 2 AUC C / d C 2 .
Direct printing device for applying a circumferential print onto containers with at least one container seam , comprising a printhead adapted for printing directly onto a container , a detection device which is adapted in such a way that at least one predetermined feature of said container , for example a marking or said container seam , is recorded, a computing device which is configured to determine, based on said at least one feature, whether and, if so, how said container is to be oriented in order to be moved from an actual container orientation to a predetermined target container orientation, and an orientation device configured to orient said container to said target container orientation based on the determination by said computing device , where said target container orientation is predetermined such that the container seam is oriented relative to said printhead such that a print seam , which is created during the application of a circumferential print, substantially coincides with said container seam . a printhead adapted for printing directly onto a container , a detection device which is adapted in such a way that at least one predetermined feature of said container , for example a marking or said container seam , is recorded, a computing device which is configured to determine, based on said at least one feature, whether and, if so, how said container is to be oriented in order to be moved from an actual container orientation to a predetermined target container orientation, and an orientation device configured to orient said container to said target container orientation based on the determination by said computing device , where said target container orientation is predetermined such that the container seam is oriented relative to said printhead such that a print seam , which is created during the application of a circumferential print, substantially coincides with said container seam .
A connector for simultaneously fixing a screw head and a rod (R), the connector comprising: a connecting block in which a head accommodation hole portion (H1) is formed on one side thereof to be able to accommodate at least a portion of a screw head installed in a vertebral body, and a rod accommodation groove portion (H2) is formed on another side thereof to be able to accommodate and engage at least a portion of a rod (R) that extends from the screw head ; a connecting rod formed in a shape extending from the connecting block ; and a fixing device which fixes the connecting block to the screw head , characterised in that the fixing device includes a pressing piece which is installed to be able to move forward and backward along a rail groove (RG) formed in the connecting block so as to enable a leading end thereof to press a neck portion of the screw head and has an inclined surface (F) formed on a rear end thereof and a tightening screw which is screw-coupled to a tightening screw hole groove portion (H3) formed in the connecting block so as to advance the pressing piece by pressing the inclined surface (F) of the pressing piece and has a leading end portion in contact with the inclined surface (F) of the pressing piece . a connecting block in which a head accommodation hole portion (H1) is formed on one side thereof to be able to accommodate at least a portion of a screw head installed in a vertebral body, and a rod accommodation groove portion (H2) is formed on another side thereof to be able to accommodate and engage at least a portion of a rod (R) that extends from the screw head ; a connecting rod formed in a shape extending from the connecting block ; and a fixing device which fixes the connecting block to the screw head , characterised in that the fixing device includes a pressing piece which is installed to be able to move forward and backward along a rail groove (RG) formed in the connecting block so as to enable a leading end thereof to press a neck portion of the screw head and has an inclined surface (F) formed on a rear end thereof and a tightening screw which is screw-coupled to a tightening screw hole groove portion (H3) formed in the connecting block so as to advance the pressing piece by pressing the inclined surface (F) of the pressing piece and has a leading end portion in contact with the inclined surface (F) of the pressing piece .
Awork robot performing a predetermined operation regarding yarns (Y) to at least one yarn processing apparatus , comprising: a robot main body ; an arm member attached to the robot main body ; a retaining portion attached to the arm member and retaining the yarns (Y); and a controller ; characterized in that it includes a first terminal in contact with a first ground member which is grounded, a conductive path being formed to extend from the retaining portion to the first terminal without passing the controller so as to cause the retaining portion to be electrically conductive with the first terminal , and the retaining portion being connected to the first ground member via the conductive path and the first terminal and grounded, the work robot further comprising a running unit which causes the robot main body to run along a guide rail extending in a direction in which a plurality of the at least one yarn processing apparatus are lined up, the first terminal being provided on the running unit , and wherein, the running unit includes a wheel which is insulating at least at a contact surface where the wheel is in contact with the guide rail , and the first terminal is provided at a location different from the wheel . a robot main body ; an arm member attached to the robot main body ; a retaining portion attached to the arm member and retaining the yarns (Y); and a controller ; characterized in that it includes a first terminal in contact with a first ground member which is grounded, a conductive path being formed to extend from the retaining portion to the first terminal without passing the controller so as to cause the retaining portion to be electrically conductive with the first terminal , and the retaining portion being connected to the first ground member via the conductive path and the first terminal and grounded, the work robot further comprising a running unit which causes the robot main body to run along a guide rail extending in a direction in which a plurality of the at least one yarn processing apparatus are lined up, the first terminal being provided on the running unit , and wherein, the running unit includes a wheel which is insulating at least at a contact surface where the wheel is in contact with the guide rail , and the first terminal is provided at a location different from the wheel .
A sealing configuration for a gas turbine engine the sealing configuration comprising: a fan inlet spinner ; a fan rotor ; at least one fan blade platform operably coupled to the fan rotor and the fan inlet spinner, and the at least one fan blade platform being coupled to the fan rotor via a pin , characterized by a space being maintained between the fan inlet spinner and the at least one fan blade platform; and at least one retention seal comprising: a first seal base ; a second seal base ; and a resilient bulb member coupled to the first seal base, wherein the angle formed between the first seal base and the second seal base is an acute angle, the at least one retention seal being affixed to the fan inlet spinner adjacent to the at least one fan blade platform, wherein the second seal base is affixed to an aft end of the fan inlet spinner , and wherein when centrifugal forces are exerted on the at least one retention seal, the first seal base contacts a platform seal landing on the at least one fan blade platform, and the first seal base is substantially parallel with the pin. a fan inlet spinner ; a fan rotor ; at least one fan blade platform operably coupled to the fan rotor and the fan inlet spinner, and the at least one fan blade platform being coupled to the fan rotor via a pin , a first seal base ; a second seal base ; and a resilient bulb member coupled to the first seal base,
A laundry appliance comprising: a drum for processing laundry; a blower that delivers process air through an airflow path that includes the drum ; a lint filter positioned within the airflow path that separates particulate material from the process air to define entrapped lint particles ; a lint disposal mechanism that removes the entrapped lint particles from a surface of the lint filter to define removed lint ; and a holding compartment that receives the removed lint for disposal, wherein the lint disposal mechanism includes a cyclonic separator that operates to separate the entrapped lint particles from the lint filter and direct the removed lint to the holding compartment , characterized in that the cyclonic separator includes a rotating filter that receives a helical flow of the process air and that rotates the rotating filter . a drum for processing laundry; a blower that delivers process air through an airflow path that includes the drum ; a lint filter positioned within the airflow path that separates particulate material from the process air to define entrapped lint particles ; a lint disposal mechanism that removes the entrapped lint particles from a surface of the lint filter to define removed lint ; and a holding compartment that receives the removed lint for disposal, wherein the lint disposal mechanism includes a cyclonic separator that operates to separate the entrapped lint particles from the lint filter and direct the removed lint to the holding compartment , characterized in that the cyclonic separator includes a rotating filter that receives a helical flow of the process air and that rotates the rotating filter .
A polymer composition comprising a polymer and a filler material, wherein the filler material comprises a surface treated metal oxide; wherein the surface treated metal oxide is present in an amount of at least about 5 vol%, or at least about 20 vol%, based on the total dry volume of the polymer composition ; and the polymer composition is characterised in that the polymer is high density polyethylene (HDPE). wherein the surface treated metal oxide is present in an amount of at least about 5 vol%, or at least about 20 vol%, based on the total dry volume of the polymer composition ; and the polymer composition is characterised in that the polymer is high density polyethylene (HDPE).
Formation process for a potassium-ion hybrid supercapacitor, the process comprising: a) supplying the potassium-ion hybrid supercapacitor comprising: - a negative electrode comprising graphite, - a positive electrode comprising activated carbon, - an electrolyte comprising at least one potassium salt, b) charging the supercapacitor at constant current in a protocol of between C x /50 and C x /2, to a charge cutoff voltage of between 3.0 V and 3.3 V, where C x is the formation capacity of the intercalation compound KC 8 , c) holding the supercapacitor at the charge cutoff voltage until the leakage current is between C x /2000 and C x /500, d) discharging the supercapacitor at constant current in a protocol of between C x /50 and C x , to a discharge cutoff voltage of between 0 V and 2 V, where the process further comprises degassing the supercapacitor after one of steps b) to d). a) supplying the potassium-ion hybrid supercapacitor comprising: - a negative electrode comprising graphite, - a positive electrode comprising activated carbon, - an electrolyte comprising at least one potassium salt, - a negative electrode comprising graphite, - a positive electrode comprising activated carbon, - an electrolyte comprising at least one potassium salt, b) charging the supercapacitor at constant current in a protocol of between C x /50 and C x /2, to a charge cutoff voltage of between 3.0 V and 3.3 V, where C x is the formation capacity of the intercalation compound KC 8 , c) holding the supercapacitor at the charge cutoff voltage until the leakage current is between C x /2000 and C x /500, d) discharging the supercapacitor at constant current in a protocol of between C x /50 and C x , to a discharge cutoff voltage of between 0 V and 2 V,
A composition comprising 10 to 50 weight % diced bleached chemical wood pulp fiber particles and 45 to 85 wt % thermoplastic polymer wherein the composition has a brightness of at least 20 as measured by the Brightness Test, wherein the composition comprises a wood pulp fiber average dispersion of 90% or greater as measured by the Dispersion Test, and the wood pulp fiber average dispersion is obtained by providing a single screw extruder between two twin-screw extruders, wherein the Brightness Test is performed as follows: a light from a single source is focused and directed through an aperture onto the dogbone at an angle of 45 degrees and the reflected light passes through a filter having standard spectral characteristics and is then measured by a photodetector located perpendicular to the upper surface of the dogbone, the amount of reflected light is compared with magnesium oxide, which has known spectral characteristics which are stored in the instruments memory, and the ratio of the reflected light to the magnesium oxide is expressed as a percentage; and wherein the wood pulp fiber average dispersion is calculated as follows: weight% of dispersed fibers = 100% - the weight percent of undispersed particles and weight % undispersed particles = 100% Weight undispersed particles/Total weight of fibers in sample.