mhurhangee/ep-ind-claims huggingface dataset:
A method of processing microparticles comprising: providing a composition comprising a plurality of solid microparticles and at least one non-volatile material; providing a non-solvent comprising an aqueous solution containing at least one free multivalent cation comprising uncomplexed Zn 2+ cations; exposing the composition to the non-solvent to form a mixture containing one or more liquid phases and the solid microparticles; and removing at least a portion of the one or more liquid phases while retaining at least the microparticles, thereby removing at least a portion of the non-volatile material from the composition, wherein the non-volatile material is more soluble in the non-solvent than are the microparticles, wherein the non-volatile material comprises a non-ionic aqueous-soluble polymer or a non-ionic aqueous-miscible polymer, wherein the solid microparticles comprise at least one bioactive macromolecule that is an antibody, and wherein the solid microparticles are spherical. providing a composition comprising a plurality of solid microparticles and at least one non-volatile material; providing a non-solvent comprising an aqueous solution containing at least one free multivalent cation comprising uncomplexed Zn 2+ cations; exposing the composition to the non-solvent to form a mixture containing one or more liquid phases and the solid microparticles; and removing at least a portion of the one or more liquid phases while retaining at least the microparticles, thereby removing at least a portion of the non-volatile material from the composition, wherein the non-volatile material is more soluble in the non-solvent than are the microparticles, wherein the non-volatile material comprises a non-ionic aqueous-soluble polymer or a non-ionic aqueous-miscible polymer, wherein the solid microparticles comprise at least one bioactive macromolecule that is an antibody, and wherein the solid microparticles are spherical.
A method of making an electrostatically-associated immunogenic complex comprising a negatively-charged organic complex and a positively-charged antigen, consisting essentially of admixing: a pre-formed, negatively charged organic complex that comprises a saponin and an isolated, positively charged antigen, thereby forming an immunogenic complex wherein said organic complex and antigen are associated by electrostatic interaction. a pre-formed, negatively charged organic complex that comprises a saponin and an isolated, positively charged antigen, thereby forming an immunogenic complex wherein said organic complex and antigen are associated by electrostatic interaction.
A cable fixation device for fixing a plate to a surface of a bone by means of a wire or cable, wherein the cable fixation device comprises: a wire or cable with a proximal end suitable to be inserted into a bone and a distal end; a clamp including a head portion and a body portion with a lumen extending therethrough, the head portion removably coupleable with an actuating mechanism, the lumen sized and shaped to slidably accommodate the proximal end of the wire or cable; and a clamping ring including a channel extending therethrough, the channel including a first portion and a second portion, the first portion being sized and shaped to slidably accommodate the proximal end of the wire or cable therethrough, the second portion being sized and shaped to engage the clamp; wherein a portion of the clamp is movable between a first configuration and a second configuration, the proximal end of the wire or cable slidable therethrough in the first configuration, the portion of the clamp moving radially inward in the second configuration to clamp the proximal end of the wire or cable; characterized in that the proximal end of the wire or cable is suitable to be inserted through the plate and the bone until the distal end of the wire or cable abuts the plate. a wire or cable with a proximal end suitable to be inserted into a bone and a distal end; a clamp including a head portion and a body portion with a lumen extending therethrough, the head portion removably coupleable with an actuating mechanism, the lumen sized and shaped to slidably accommodate the proximal end of the wire or cable; and a clamping ring including a channel extending therethrough, the channel including a first portion and a second portion, the first portion being sized and shaped to slidably accommodate the proximal end of the wire or cable therethrough, the second portion being sized and shaped to engage the clamp; wherein a portion of the clamp is movable between a first configuration and a second configuration, the proximal end of the wire or cable slidable therethrough in the first configuration, the portion of the clamp moving radially inward in the second configuration to clamp the proximal end of the wire or cable; characterized in that the proximal end of the wire or cable is suitable to be inserted through the plate and the bone until the distal end of the wire or cable abuts the plate.
A wind turbine blade, comprising: an external aerodynamic surface having a longitudinally-extending spanwise axis, a chordwise axis extending transverse to the spanwise axis, and a thickness axis extending transverse to both the chordwise and spanwise axes; and a plurality of longitudinally-extending spars providing internal support for the aerodynamic surface, wherein at least one of the spars includes a laminate of precured composite material, the laminate of precured composite material including: a plurality of stacked precured composite layers, each of the precured composite layers including a precured composite pultrusion; and a plurality of adhesive layers interposed between adjacent precured composite layers. an external aerodynamic surface having a longitudinally-extending spanwise axis, a chordwise axis extending transverse to the spanwise axis, and a thickness axis extending transverse to both the chordwise and spanwise axes; and a plurality of longitudinally-extending spars providing internal support for the aerodynamic surface, wherein at least one of the spars includes a laminate of precured composite material, the laminate of precured composite material including: a plurality of stacked precured composite layers, each of the precured composite layers including a precured composite pultrusion; and a plurality of adhesive layers interposed between adjacent precured composite layers. a plurality of stacked precured composite layers, each of the precured composite layers including a precured composite pultrusion; and a plurality of adhesive layers interposed between adjacent precured composite layers.
A laundry treatment apparatus including: an upper treatment device that includes a drying drum for receiving a target laundry to be dried, an upper driver to rotate the drying drum, a circulation passage unit through which air flows into or out of the drying drum, a heat exchanger to dehumidify and/or heat the air, and a steam generator for supplying steam to the drying drum; and a lower treatment device that includes a tub to store wash water therein, a washing drum provided in the tub for washing and/or drying target laundry, a tub heater provided in the tub to heat the wash water, and a lower driver to rotate the washing drum; wherein the laundry treatment apparatus is configured to: - perform, by the lower treatment device, a washing course including at least one of a water supply step, a washing step, a rinsing step, and a dehydration step; and - perform, by the upper treatment device, a drying course including at least one of a hot air supply step, a fan operation step, and a dryness sensing step; and wherein the lower treatment device is configured to perform the washing course including changing a configuration of at least one of an operation of the tub heater, an execution time of the washing course, and an operation of the lower driver, according to a progress state of the drying course. an upper treatment device that includes a drying drum for receiving a target laundry to be dried, an upper driver to rotate the drying drum, a circulation passage unit through which air flows into or out of the drying drum, a heat exchanger to dehumidify and/or heat the air, and a steam generator for supplying steam to the drying drum; and a lower treatment device that includes a tub to store wash water therein, a washing drum provided in the tub for washing and/or drying target laundry, a tub heater provided in the tub to heat the wash water, and a lower driver to rotate the washing drum; wherein the laundry treatment apparatus is configured to: - perform, by the lower treatment device, a washing course including at least one of a water supply step, a washing step, a rinsing step, and a dehydration step; and - perform, by the upper treatment device, a drying course including at least one of a hot air supply step, a fan operation step, and a dryness sensing step; and - perform, by the lower treatment device, a washing course including at least one of a water supply step, a washing step, a rinsing step, and a dehydration step; and - perform, by the upper treatment device, a drying course including at least one of a hot air supply step, a fan operation step, and a dryness sensing step; and wherein the lower treatment device is configured to perform the washing course including changing a configuration of at least one of an operation of the tub heater, an execution time of the washing course, and an operation of the lower driver, according to a progress state of the drying course.
A method for preparing magnetite comprising the steps of: a) reacting at a temperature of 100 to 500°C, a material containing wüstite with water, the water being the water of an aqueous solution whose pH is 2 to 5 when said aqueous solution is at 25°C and at 1 bar, to obtain a solid comprising the magnetite, then b) recovering the magnetite in the form of particles of which more than 25% by weight are nanoscale. a) reacting at a temperature of 100 to 500°C, a material containing wüstite with water, the water being the water of an aqueous solution whose pH is 2 to 5 when said aqueous solution is at 25°C and at 1 bar, to obtain a solid comprising the magnetite, then b) recovering the magnetite in the form of particles of which more than 25% by weight are nanoscale.
Satellite vehicle for automated warehouse, of the type provided with tracks for the vehicle displacement, comprising a frame, a support surface for supporting a load provided above said frame, first wheels and second wheels supported by said frame along a first side and a second side, respectively, and suitable for rolling on the tracks of the automatic warehouse, and actuating means for actuating said first wheels and second wheels for advancing the vehicle along the tracks, characterised in that said first wheels and second wheels are arranged according to at least two pairs in which the first wheel and the second wheel of at least one of said pairs respectively have a first rotation axle and a second rotation axle not coinciding with one another and offset or not aligned with respect to the rotation axle of the wheels of all the other pairs of wheels of said vehicle.
A catheter system comprising: a leadless pacemaker having a docking end, the docking end having a docking projection extending from a surface; a docking cap having a body defining a chamber, the docking cap having a proximal opening into the chamber, the proximal opening being coaxial with a longitudinal axis of a lumen of a catheter; and a retriever having a flexible grasper with a first arm including a first flexible loop disposed opposite a second arm including a second flexible loop, each of the first arm and the second arm forming a hinge biased radially outwards from the longitudinal axis, the docking cap locking the first arm and the second arm on the docking projection when the body is sheathed over the retriever until the flexible grasper is disposed within the chamber. a leadless pacemaker having a docking end, the docking end having a docking projection extending from a surface; a docking cap having a body defining a chamber, the docking cap having a proximal opening into the chamber, the proximal opening being coaxial with a longitudinal axis of a lumen of a catheter; and a retriever having a flexible grasper with a first arm including a first flexible loop disposed opposite a second arm including a second flexible loop, each of the first arm and the second arm forming a hinge biased radially outwards from the longitudinal axis, the docking cap locking the first arm and the second arm on the docking projection when the body is sheathed over the retriever until the flexible grasper is disposed within the chamber.
A method for controlling a plurality of joints (18; 112) in a robotic device, at least a portion of the joints having respective joint travel limits, the method comprising: determining if a desired movement command for the robotic device would cause at least a first joint travel limit of the robotic device to be violated; constructing a revised movement command for the robotic device utilizing a current state of the robotic device, the desired movement command, and weighting factors to weight respective movements of the joints, the revised movement command avoiding the at least a first joint travel limit from being violated, wherein the revised movement command is not identical to the desired movement command and when processed by the robotic device causes movement of the robotic device; and utilizing the revised movement command in place of the desired movement command to cause corresponding movement of the robotic device; wherein the robotic device comprises n joints for an m -dimensional task space of an end-effector of the robotic device, in which the desired movement command would cause L of the n joints to violate their respective joint travel limits, and wherein constructing the revised joint movement command for the robotic device comprises solving the following equation: q ̇ mod = J mod ⁢ J mod T ⁢ W 2 ⁢ J mod - 1 ⁢ J mod T ⁢ W 2 ⁢ x ̇ cmd, wherein q̇ mod is an (n-L)×1 joint velocity command for joints that are not currently being limited, J mod is an mx(n-L) matrix, J mod T is the transpose of J mod, W is an mxm matrix comprising the weighting factors, and ẋ cmd is the desired movement command for the end-effector. determining if a desired movement command for the robotic device would cause at least a first joint travel limit of the robotic device to be violated; constructing a revised movement command for the robotic device utilizing a current state of the robotic device, the desired movement command, and weighting factors to weight respective movements of the joints, the revised movement command avoiding the at least a first joint travel limit from being violated, wherein the revised movement command is not identical to the desired movement command and when processed by the robotic device causes movement of the robotic device; and utilizing the revised movement command in place of the desired movement command to cause corresponding movement of the robotic device; wherein the robotic device comprises n joints for an m -dimensional task space of an end-effector of the robotic device, in which the desired movement command would cause L of the n joints to violate their respective joint travel limits, and wherein constructing the revised joint movement command for the robotic device comprises solving the following equation: q ̇ mod = J mod ⁢ J mod T ⁢ W 2 ⁢ J mod - 1 ⁢ J mod T ⁢ W 2 ⁢ x ̇ cmd, wherein q̇ mod is an (n-L)×1 joint velocity command for joints that are not currently being limited, J mod is an mx(n-L) matrix, J mod T is the transpose of J mod, W is an mxm matrix comprising the weighting factors, and ẋ cmd is the desired movement command for the end-effector.
A two-wheeled vehicle overturn prevention method, wherein a) maximum allowable lean angles corresponding to vehicle body velocities are preset in relation to lean angles of a vehicle body, b) an estimated lean angle, which is a lean angle of the vehicle body after a predetermined amount of time, is estimated on the basis of a temporal change in an actual lean angle of the vehicle body, c) an estimated vehicle body velocity, which is a vehicle body velocity of the vehicle body after the predetermined amount of time, is estimated on the basis of a temporal change in an actual vehicle body velocity of the vehicle body, and d) in a case where the estimated lean angle exceeds or looks to exceed a maximum allowable lean angle corresponding to the estimated vehicle body velocity, the two-wheeled vehicle overturn prevention method is adapted to accelerate the vehicle body or keep the vehicle body from decelerating. a) maximum allowable lean angles corresponding to vehicle body velocities are preset in relation to lean angles of a vehicle body, b) an estimated lean angle, which is a lean angle of the vehicle body after a predetermined amount of time, is estimated on the basis of a temporal change in an actual lean angle of the vehicle body, c) an estimated vehicle body velocity, which is a vehicle body velocity of the vehicle body after the predetermined amount of time, is estimated on the basis of a temporal change in an actual vehicle body velocity of the vehicle body, and d) in a case where the estimated lean angle exceeds or looks to exceed a maximum allowable lean angle corresponding to the estimated vehicle body velocity, the two-wheeled vehicle overturn prevention method is adapted to accelerate the vehicle body or keep the vehicle body from decelerating.
Method of controlling an electrical household system, comprising: starting a pyrolysis process in an oven, wherein the oven is connected in signal communication to a household range hood characterized by: starting a suction device of the household range hood as a function of a communication signal from the oven, wherein said signal is correlated to the pyrolysis process in the oven, and in the that the method comprises: turning on the household range hood in a stand by status when the pyrolysis process in the oven starts; and then starting the suction device. starting a suction device of the household range hood as a function of a communication signal from the oven, wherein said signal is correlated to the pyrolysis process in the oven, and in the that the method comprises: turning on the household range hood in a stand by status when the pyrolysis process in the oven starts; and then starting the suction device. turning on the household range hood in a stand by status when the pyrolysis process in the oven starts; and then starting the suction device.
Joint for systems for transporting a high temperature heat transfer fluid, comprising: - a fixed conduit comprising a fixed tubular element having extension along a rectilinear axis between an outer end and an opposing inner end; - a first sealing ring joined to the fixed conduit; - a rotatable conduit permanently in contact with the sealing ring; - an outer casing which delimits a chamber from which said fixed conduit and said rotatable conduit extend, wherein the contact region is arranged between the rotatable conduit and the first sealing ring; wherein the outer casing is sealingly engaged with the rotatable conduit by means of a second sealing ring and with the fixed conduit, wherein the first sealing ring is permanently pressed in contact with the rotatable conduit, wherein the fixed conduit comprises an elastic conduit deformable axially in an elastic manner, coaxial to the fixed tubular element and made as a metallic bellows, wherein the outer casing comprises an annular outlet wall, through which the rotatable conduit passes, and the second sealing ring is permanently compressed axially against the outlet wall and radially against the rotatable conduit, and wherein the joint comprises a stuffing box device operating on the second sealing ring. - a fixed conduit comprising a fixed tubular element having extension along a rectilinear axis between an outer end and an opposing inner end; - a first sealing ring joined to the fixed conduit; - a rotatable conduit permanently in contact with the sealing ring; - an outer casing which delimits a chamber from which said fixed conduit and said rotatable conduit extend, wherein the contact region is arranged between the rotatable conduit and the first sealing ring;
A computer implemented method of testing software, comprising: obtaining a test scenario having at least one test case, the test scenario configured to test an application; applying machine learning to perform natural language processing, NLP, to determine features of the test scenario; using the determined features to automatically select a testing template corresponding to the test scenario from a template repository; matching the determined features to template metadata describing the selected testing template; using the matched template metadata to automatically fill fields in the selected testing template; and using the filled test template to execute the test scenario identifying at least one empty field in the selected testing template after the matched template metadata is used to automatically fill fields; identifying at least one database table and corresponding column in an application database that is mapped to the at least one identified empty field, wherein the application database stores information related to the application; using the at least one database table and corresponding column to generate a structured query language, SQL, statement; executing the SQL statement to search for data corresponding to the at least one identified empty field; and using the data to fill the at least one identified empty field to produce a fully filled test template, wherein using the filled test template to execute the test scenario includes using the fully filled test template. obtaining a test scenario having at least one test case, the test scenario configured to test an application; applying machine learning to perform natural language processing, NLP, to determine features of the test scenario; using the determined features to automatically select a testing template corresponding to the test scenario from a template repository; matching the determined features to template metadata describing the selected testing template; using the matched template metadata to automatically fill fields in the selected testing template; and using the filled test template to execute the test scenario identifying at least one empty field in the selected testing template after the matched template metadata is used to automatically fill fields; identifying at least one database table and corresponding column in an application database that is mapped to the at least one identified empty field, wherein the application database stores information related to the application; using the at least one database table and corresponding column to generate a structured query language, SQL, statement; executing the SQL statement to search for data corresponding to the at least one identified empty field; and using the data to fill the at least one identified empty field to produce a fully filled test template, wherein using the filled test template to execute the test scenario includes using the fully filled test template.