mhurhangee/patent-ind-claim-en huggingface dataset:
A method for simultaneously manufacturing a plurality of porous three-dimensional parts, by manufacturing a three-dimensional structure of the plurality of porous three-dimensional parts connected to each other, the method including depositing interconnected filaments of a build material in a predetermined arrangement in a plurality of consecutively stacked layers , wherein the build material comprises a viscous material composition comprising an inorganic particulate material, wherein the filaments of the consecutive layers are connected to one another at least at contact points between filaments of consecutive layers to obtain the porous structure with interconnected pores between the filaments , the filaments of the consecutive layers being at an angle to each other, wherein a plurality of less frangible regions are formed in the arrangement of filaments to form the plurality of three-dimensional parts, wherein one or more preselected frangible regions are formed in the arrangement of filaments between the plurality of three-dimensional parts, and wherein the filaments are deposited such that the one or more frangible regions of the porous structure are connected to the plurality of less-frangible regions , wherein the frangible regions connect adjacently positioned three-dimensional parts together, wherein the predetermined arrangement of interconnected filaments is configured such that the one or more frangible regions form structurally weakened zones of the porous structure such that the porous structure breaks along said one or more frangible regions under influence of a load and/or a stress which does not break the less frangible regions , in order to make the plurality of three-dimensional parts releasable under influence of the load and/or stress.
Push-off device , in particular for agricultural transport goods, comprising a loading space having a loading floor , two side walls laterally adjacent thereto and a push-off wall , which is slidable in the longitudinal direction (x) of the loading space relative to a sliding floor , which in turn is slidable in the longitudinal direction (x) of the loading space relative to the loading floor of the loading space , wherein - the push-off device has a first hydraulic cylinder arrangement comprising at least one first hydraulic cylinder piston that is movable in a first hydraulic cylinder tube , - the push-off device has a second hydraulic cylinder arrangement comprising at least one second hydraulic cylinder piston that is movable in a second hydraulic cylinder tube , characterised in that - the push-off wall is slidably mounted on the second hydraulic cylinder tube in the longitudinal direction (x) of the loading space and is slidable by means of the first hydraulic cylinder arrangement relative to the sliding floor , which is slidable by means of the second hydraulic cylinder arrangement relative to the loading floor of the loading space . - the push-off device has a first hydraulic cylinder arrangement comprising at least one first hydraulic cylinder piston that is movable in a first hydraulic cylinder tube , - the push-off device has a second hydraulic cylinder arrangement comprising at least one second hydraulic cylinder piston that is movable in a second hydraulic cylinder tube , characterised in that - the push-off wall is slidably mounted on the second hydraulic cylinder tube in the longitudinal direction (x) of the loading space and is slidable by means of the first hydraulic cylinder arrangement relative to the sliding floor , which is slidable by means of the second hydraulic cylinder arrangement relative to the loading floor of the loading space .
A composition comprising: a. a polymeric dispersant comprising: i. an average of at least two polyether pendant groups per molecule, wherein the at least two polyether pendant groups are made up of monomeric units, wherein at least half of the monomeric units are poly(ethylene oxide) monomeric units and/or poly(propylene oxide) monomeric units, and wherein the at least two polyether pendant groups make up at least 50 weight percent of the polymeric dispersant, based on the total weight of the polymeric dispersant; and ii. an average of at least two amine groups per molecule, wherein the at least two amine groups are not present in the at least two polyether pendant groups; and b. a functionalized acid component comprising sulfonic acid and/or phosphoric acid functionalized with at least one of an aromatic functional group or a fatty functional group; and wherein at least 60 percent of the amine groups present in the polymeric dispersant are each individually neutralized with a molecule of the functionalized acid component. a. a polymeric dispersant comprising: i. an average of at least two polyether pendant groups per molecule, wherein the at least two polyether pendant groups are made up of monomeric units, wherein at least half of the monomeric units are poly(ethylene oxide) monomeric units and/or poly(propylene oxide) monomeric units, and wherein the at least two polyether pendant groups make up at least 50 weight percent of the polymeric dispersant, based on the total weight of the polymeric dispersant; and ii. an average of at least two amine groups per molecule, wherein the at least two amine groups are not present in the at least two polyether pendant groups; and i. an average of at least two polyether pendant groups per molecule, wherein the at least two polyether pendant groups are made up of monomeric units, wherein at least half of the monomeric units are poly(ethylene oxide) monomeric units and/or poly(propylene oxide) monomeric units, and wherein the at least two polyether pendant groups make up at least 50 weight percent of the polymeric dispersant, based on the total weight of the polymeric dispersant; and ii. an average of at least two amine groups per molecule, wherein the at least two amine groups are not present in the at least two polyether pendant groups; and b. a functionalized acid component comprising sulfonic acid and/or phosphoric acid functionalized with at least one of an aromatic functional group or a fatty functional group; and
A footwear comprising an upper part (UP) and a sole , the upper part (UP) being attached to the sole , the upper part being formed by at least two footwear defining parts, the at least two footwear defining parts comprising a vamp and a quarter , wherein at least one of the at least two footwear defining parts are formed by a leather laminate , the leather laminate being formed as a composite laminate having a leather layer laminated to a reinforcing fabric by means of an adhesive , wherein the leather layer is at least a part of an outer surface of the footwear, and characterised in that the tensile strength of the reinforcing fabric is at least above 1GPa. the upper part being formed by at least two footwear defining parts, the at least two footwear defining parts comprising a vamp and a quarter , wherein at least one of the at least two footwear defining parts are formed by a leather laminate , the leather laminate being formed as a composite laminate having a leather layer laminated to a reinforcing fabric by means of an adhesive , wherein the leather layer is at least a part of an outer surface of the footwear, and characterised in that the tensile strength of the reinforcing fabric is at least above 1GPa.
A method for an imaging system, comprising: during a scan, transmitting data to a remote computing system; controlling the imaging system according to results of remote processing of the data via the remote computing system responsive to receiving the results of the remote processing before a latency deadline; and controlling the imaging system according to results of local processing at the imaging system responsive to receiving the results of the remote processing after the latency deadline. during a scan, transmitting data to a remote computing system; controlling the imaging system according to results of remote processing of the data via the remote computing system responsive to receiving the results of the remote processing before a latency deadline; and controlling the imaging system according to results of local processing at the imaging system responsive to receiving the results of the remote processing after the latency deadline.
A metal-organic coordination compound, which is neutrally charged and wherein the coordination compound comprises at least one divalent lanthanide coordinated by a cyclic organic ligand, wherein the cyclic organic ligand contains two monoanionic groups covalently linked with the cyclic organic ligand and being separated from each other by a sequence of at least two intervening atoms.
A spa sanitation system for use with a water-containing vessel, comprising: two or more electrodes ; an oxidation reduction potential (ORP) sensor ; a pH sensor ; a temperature sensor ; a power source ; and a controller operatively connected to the power source, pH sensor , temperature sensor , ORP sensor , and the two or more electrodes , the controller configured to: determine a voltage and a current to be delivered to the two or more electrodes ; determine a time period for which to run the two or more electrodes ; and select a polarity configuration of the two or more electrodes ; wherein the polarity configuration is selected from a first polarity where a first electrode of the two or more electrodes acts as anode and a second electrode of the two or more electrodes acts as cathode, or a second polarity where the first electrode of the two or more electrodes acts as cathode and the second electrode of the two or more electrodes acts as anode; and wherein the controller is configured to measure impedance of the two or more electrodes in the first polarity, and is configured to measure impedance of the two or more electrodes in the second polarity; wherein the controller is configured to select the polarity configuration with the lower impedance and to switch the polarity configuration such that the polarity configuration with the lower impedance is used. two or more electrodes ; an oxidation reduction potential (ORP) sensor ; a pH sensor ; a temperature sensor ; a power source ; and a controller operatively connected to the power source, pH sensor , temperature sensor , ORP sensor , and the two or more electrodes , the controller configured to: determine a voltage and a current to be delivered to the two or more electrodes ; determine a time period for which to run the two or more electrodes ; and select a polarity configuration of the two or more electrodes ; determine a voltage and a current to be delivered to the two or more electrodes ; determine a time period for which to run the two or more electrodes ; and select a polarity configuration of the two or more electrodes ; wherein the polarity configuration is selected from a first polarity where a first electrode of the two or more electrodes acts as anode and a second electrode of the two or more electrodes acts as cathode, or a second polarity where the first electrode of the two or more electrodes acts as cathode and the second electrode of the two or more electrodes acts as anode; and wherein the controller is configured to measure impedance of the two or more electrodes in the first polarity, and is configured to measure impedance of the two or more electrodes in the second polarity; wherein the controller is configured to select the polarity configuration with the lower impedance and to switch the polarity configuration such that the polarity configuration with the lower impedance is used.
A semiconductor device, comprising: a plurality of semiconductor fins disposed above a semiconductor substrate , each semiconductor fin having a doped sub-fin portion below a protruding portion , the sub-fin portion narrower than the protruding portion ; a solid state dopant source layer and a capping layer disposed above the semiconductor substrate , conformal with the sub-fin portion but not the protruding portion of each of the plurality of semiconductor fin, wherein the solid state dopant source layer and the capping layer are patterned to be confined to the sub-fin portions with a spacing between the capping layers of each sub-fin portion ; an isolation layer disposed above the solid state dopant source layer and on the capping layer and between the sub-fin portions of the plurality of semiconductor fins ; a gate stack disposed above the isolation layer and conformal with the protruding portions of each of the plurality of semiconductor fins , the gate stack comprising a gate dielectric layer and gate electrode; and source and drain regions disposed in the protruding portions of each of the plurality of semiconductor fins , on either side of the gate stack. a plurality of semiconductor fins disposed above a semiconductor substrate , each semiconductor fin having a doped sub-fin portion below a protruding portion , the sub-fin portion narrower than the protruding portion ; a solid state dopant source layer and a capping layer disposed above the semiconductor substrate , conformal with the sub-fin portion but not the protruding portion of each of the plurality of semiconductor fin, wherein the solid state dopant source layer and the capping layer are patterned to be confined to the sub-fin portions with a spacing between the capping layers of each sub-fin portion ; an isolation layer disposed above the solid state dopant source layer and on the capping layer and between the sub-fin portions of the plurality of semiconductor fins ; a gate stack disposed above the isolation layer and conformal with the protruding portions of each of the plurality of semiconductor fins , the gate stack comprising a gate dielectric layer and gate electrode; and source and drain regions disposed in the protruding portions of each of the plurality of semiconductor fins , on either side of the gate stack.
An image processing device, comprising: an imaging unit for taking an image (IM to IM ) of a measuring object (W); a stage configured to be mountable with the measuring object (W) and to be shiftable relatively with respect to the imaging unit ; and a control unit for shifting the imaging unit relatively with respect to the stage to take an image (IM to IM ) of the measuring object (W) at a plurality of places by the imaging unit and thereby obtain a plurality of images (IM to IM ), and for generating a composite image (IMa) of the measuring object (W) having a range which is wider than an imaging range of the imaging unit by combining the obtained plurality of images or images obtained by a certain processing from the obtained plurality of images (IM to IM ), characterized in that the control unit shifts the imaging unit relatively with respect to the stage such that parts of images adjacent to one another obtained by the imaging unit overlap, the control unit performs an image matching processing that performs image matching of an overlapping portion (RIM to RIM ) of the adjacent images, the control unit generates the composite image (IMa) of the measuring object (W) by joining the adjacent images at a position where the image matching is performed in the image matching processing, and the control unit calculates a misalignment amount of angles of coordinates systems in the composite image (IMa) and the stage by the image matching processing, and controls shifting of the imaging unit with respect to the stage based on the misalignment amount of the angles. an imaging unit for taking an image (IM to IM ) of a measuring object (W); a stage configured to be mountable with the measuring object (W) and to be shiftable relatively with respect to the imaging unit ; and a control unit for shifting the imaging unit relatively with respect to the stage to take an image (IM to IM ) of the measuring object (W) at a plurality of places by the imaging unit and thereby obtain a plurality of images (IM to IM ), and for generating a composite image (IMa) of the measuring object (W) having a range which is wider than an imaging range of the imaging unit by combining the obtained plurality of images or images obtained by a certain processing from the obtained plurality of images (IM to IM ), characterized in that the control unit shifts the imaging unit relatively with respect to the stage such that parts of images adjacent to one another obtained by the imaging unit overlap, the control unit performs an image matching processing that performs image matching of an overlapping portion (RIM to RIM ) of the adjacent images, the control unit generates the composite image (IMa) of the measuring object (W) by joining the adjacent images at a position where the image matching is performed in the image matching processing, and the control unit calculates a misalignment amount of angles of coordinates systems in the composite image (IMa) and the stage by the image matching processing, and controls shifting of the imaging unit with respect to the stage based on the misalignment amount of the angles.
A computer-implemented method comprising: receiving a data set comprising a plurality of data fields, wherein at least one data field comprises personal information, and further wherein at least one data field does not comprise personal information; reviewing meta-information for the data set, the meta-information comprising a categorization for the plurality of data fields, the categorization comprising, for each of the plurality of data fields: a first parameter specifying field data type, and for data fields comprising personal information, a second parameter specifying personal data consent information; converting the data set into a columnar data storage format using the meta-information, wherein converting the data set further comprises storing the at least one data field comprising personal information in a column marked as comprising personal information; and applying at least one personal information privacy control to the at least one marked column. receiving a data set comprising a plurality of data fields, wherein at least one data field comprises personal information, and further wherein at least one data field does not comprise personal information; reviewing meta-information for the data set, the meta-information comprising a categorization for the plurality of data fields, the categorization comprising, for each of the plurality of data fields: a first parameter specifying field data type, and for data fields comprising personal information, a second parameter specifying personal data consent information; converting the data set into a columnar data storage format using the meta-information, wherein converting the data set further comprises storing the at least one data field comprising personal information in a column marked as comprising personal information; and applying at least one personal information privacy control to the at least one marked column. a first parameter specifying field data type, and for data fields comprising personal information, a second parameter specifying personal data consent information; converting the data set into a columnar data storage format using the meta-information, wherein converting the data set further comprises storing the at least one data field comprising personal information in a column marked as comprising personal information; and applying at least one personal information privacy control to the at least one marked column.
Method for adjusting the pile inclination in an attachment, wherein the attachment comprises a table for clamping and rotating a pipe and a base plate lying opposite at a vertical distance, wherein at least one actuator is provided for adjusting the inclination of the table relative to the horizontal, wherein at least one sensor for detecting the table inclination is installed on the attachment and a computer unit of the attachment is provided that is configured to align the pipe at a defined target angle as a function of the sensor values, wherein the sensor is an acceleration sensor for detecting the acceleration forces at the table , wherein the computer unit is configured to calculate the table inclination taking account of the gravitational acceleration detected and acting on the table , and wherein the table is fixedly connected via at least one steering rod to a fixed superstructure of the attachment, wherein a pivot movement of the steering rod can be executed via at least one steering cylinder as steering actuator, wherein the method comprises the following steps: a. setting a target angle at which the pipe is to be introduced into the ground, b. detecting the actual angle of the pipe by means of the detected table inclination angle relative to the horizontal and c. activating at least one actuator to adjust the inclination of the table if the target angle of the pipe deviates from the determined actual angle, and wherein the method is characterised in that adaptation of the actual angle takes place as soon as the base plate has ground contact, wherein ground contact of the base plate is determined by means of one or more pressure sensors integrated in a least one lift cylinder or in the hydraulic circuit of the lift cylinder. and wherein the table is fixedly connected via at least one steering rod to a fixed superstructure of the attachment, wherein a pivot movement of the steering rod can be executed via at least one steering cylinder as steering actuator, wherein the method comprises the following steps: a. setting a target angle at which the pipe is to be introduced into the ground, b. detecting the actual angle of the pipe by means of the detected table inclination angle relative to the horizontal and c. activating at least one actuator to adjust the inclination of the table if the target angle of the pipe deviates from the determined actual angle, a. setting a target angle at which the pipe is to be introduced into the ground, b. detecting the actual angle of the pipe by means of the detected table inclination angle relative to the horizontal and c. activating at least one actuator to adjust the inclination of the table if the target angle of the pipe deviates from the determined actual angle, and wherein the method is characterised in that adaptation of the actual angle takes place as soon as the base plate has ground contact, wherein ground contact of the base plate is determined by means of one or more pressure sensors integrated in a least one lift cylinder or in the hydraulic circuit of the lift cylinder.