mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing a polyamide powder (PP) comprising at least one semicrystalline polyamide (P) and at least one additive (A) selected from the group consisting of inorganic pigments and stabilizers, comprising the steps of a) compounding the at least one semicrystalline polyamide (P) and the at least one additive (A) in an extruder to obtain a compounded mixture (cM) comprising the at least one semicrystalline polyamide (P) and the at least one additive (A), b) extruding the compounded mixture (cM) obtained in step a) from the extruder to obtain an extruded mixture (eM) comprising the at least one semicrystalline polyamide (P) and the at least one additive (A), c) introducing the extruded mixture (eM) obtained in step b) into a solvent (SV) to obtain a first suspension (S1) comprising the extruded mixture (eM) and the solvent (SV), wherein the solvent (SV) comprises lactam and water, d) heating the first suspension (S1) obtained in step c) to a first temperature (T1) wherein the at least one semicrystalline polyamide (P) present in the extruded mixture (eM) dissolves in the solvent (SV) to obtain a mixture (G) comprising the at least one semicrystalline polyamide (P) dissolved in the solvent (SV) and the at least one additive (A), e) cooling the mixture (G) obtained in step d) to a second temperature (T2) wherein the at least one semicrystalline polyamide (P) crystallizes to obtain a second suspension (S2) comprising the polyamide powder (PP) suspended in the solvent (SV), f) separating the polyamide powder (PP) from the second suspension (S2) obtained in step e). a) compounding the at least one semicrystalline polyamide (P) and the at least one additive (A) in an extruder to obtain a compounded mixture (cM) comprising the at least one semicrystalline polyamide (P) and the at least one additive (A), b) extruding the compounded mixture (cM) obtained in step a) from the extruder to obtain an extruded mixture (eM) comprising the at least one semicrystalline polyamide (P) and the at least one additive (A), c) introducing the extruded mixture (eM) obtained in step b) into a solvent (SV) to obtain a first suspension (S1) comprising the extruded mixture (eM) and the solvent (SV), wherein the solvent (SV) comprises lactam and water, d) heating the first suspension (S1) obtained in step c) to a first temperature (T1) wherein the at least one semicrystalline polyamide (P) present in the extruded mixture (eM) dissolves in the solvent (SV) to obtain a mixture (G) comprising the at least one semicrystalline polyamide (P) dissolved in the solvent (SV) and the at least one additive (A), e) cooling the mixture (G) obtained in step d) to a second temperature (T2) wherein the at least one semicrystalline polyamide (P) crystallizes to obtain a second suspension (S2) comprising the polyamide powder (PP) suspended in the solvent (SV), f) separating the polyamide powder (PP) from the second suspension (S2) obtained in step e).
A composite material comprising: a commingled yarn (2, 21-24) that contains a continuous reinforcing fiber and a continuous thermoplastic resin fiber as fiber components thereof; and a thermoplastic resin fiber (C) that keeps the commingled yarn (2, 21-24) in place, a thermoplastic resin that composes the thermoplastic resin fiber (C) having a melting point 15°C or more higher than the melting point of a thermoplastic resin that composes the continuous thermoplastic resin fiber, with the melting point being defined by a temperature at the endothermic peak top in differential scanning calorimetry during a heating process. a commingled yarn (2, 21-24) that contains a continuous reinforcing fiber and a continuous thermoplastic resin fiber as fiber components thereof; and a thermoplastic resin fiber (C) that keeps the commingled yarn (2, 21-24) in place, a thermoplastic resin that composes the thermoplastic resin fiber (C) having a melting point 15°C or more higher than the melting point of a thermoplastic resin that composes the continuous thermoplastic resin fiber, with the melting point being defined by a temperature at the endothermic peak top in differential scanning calorimetry during a heating process.
A gas turbine engine having a spool, further comprising: a first rotary electric machine mechanically coupled with the spool and having connected therewith a first power converter to interface the electric machine with a first dc network operating at a first voltage; a second rotary electric machine having connected therewith a second power converter to interface the electric machine with a second dc network ; characterized in that: the second electric machine is mechanically coupled with the same spool as the first electric machine; the second dc network operates at a second voltage greater than said first voltage; and the first electric machine and the second electric machine are operable as a motor-generator set for transfer of electrical power to the first dc network from the second dc network via the spool. a first rotary electric machine mechanically coupled with the spool and having connected therewith a first power converter to interface the electric machine with a first dc network operating at a first voltage; a second rotary electric machine having connected therewith a second power converter to interface the electric machine with a second dc network ; characterized in that: the second electric machine is mechanically coupled with the same spool as the first electric machine; the second dc network operates at a second voltage greater than said first voltage; and the first electric machine and the second electric machine are operable as a motor-generator set for transfer of electrical power to the first dc network from the second dc network via the spool. the second electric machine is mechanically coupled with the same spool as the first electric machine; the second dc network operates at a second voltage greater than said first voltage; and the first electric machine and the second electric machine are operable as a motor-generator set for transfer of electrical power to the first dc network from the second dc network via the spool.
Method for producing a metallic edge cover, which is V-shaped in cross section, for covering an edge region of a blade component for an aircraft engine or a gas turbine, characterized by the following steps: - three-dimensional forming of a metallic tubular semi-finished product in at least one forming step in order to form a tubular shaped body , such that a part of the three-dimensional geometry of the inner wall of the shaped body corresponds to a negative of the three-dimensional geometry of the edge region to be covered, - application of a metallic material to the outer side of the tubular shaped body , in the region of a rounded edge of the shaped body , said edge being formed by forming technology, - mechanical machining of regions of the outer side of the tubular shaped body in order to form a defined outer contour, - removal of one or more sections of the tubular shaped body in order to form the V-shaped edge cover . - three-dimensional forming of a metallic tubular semi-finished product in at least one forming step in order to form a tubular shaped body , such that a part of the three-dimensional geometry of the inner wall of the shaped body corresponds to a negative of the three-dimensional geometry of the edge region to be covered, - application of a metallic material to the outer side of the tubular shaped body , in the region of a rounded edge of the shaped body , said edge being formed by forming technology, - mechanical machining of regions of the outer side of the tubular shaped body in order to form a defined outer contour, - removal of one or more sections of the tubular shaped body in order to form the V-shaped edge cover .
Door lock drive mechanism comprising an electromotor having a stator, a shaft which is adapted to be rotated by energization of the stator, and a magnet blocker having a through-hole , through which the shaft extends, such that the magnet blocker surrounds the shaft in its entire circumferential direction, such that the through-hole in a neutral position, is coaxial to the shaft and not in contact with an outer circumferential surface of the shaft , the through-hole defines an inner circumferential surface of the magnet blocker , the magnet blocker comprises a material which can be attracted by an external magnet , wherein the magnet blocker is adapted in that upon bringing the external magnet from a direction perpendicular to an extension direction of the shaft in a vicinity of the magnet blocker , the magnet blocker is moved from its neutral position into an engagement position with the shaft such that the inner circumferential surface of the magnet blocker comes into contact with the outer circumferential surface of the shaft , such that a form- and/or force fit is provided therebetween, such that a rotation of the shaft due to induction of a magnetic force in the stator, when the external magnet is moved around the shaft in the circumferential direction, is prevented. an electromotor having a stator, a shaft which is adapted to be rotated by energization of the stator, and a magnet blocker having a through-hole , through which the shaft extends, such that the magnet blocker surrounds the shaft in its entire circumferential direction, such that the through-hole in a neutral position, is coaxial to the shaft and not in contact with an outer circumferential surface of the shaft , the through-hole defines an inner circumferential surface of the magnet blocker , the magnet blocker comprises a material which can be attracted by an external magnet , wherein the magnet blocker is adapted in that upon bringing the external magnet from a direction perpendicular to an extension direction of the shaft in a vicinity of the magnet blocker , the magnet blocker is moved from its neutral position into an engagement position with the shaft such that the inner circumferential surface of the magnet blocker comes into contact with the outer circumferential surface of the shaft , such that a form- and/or force fit is provided therebetween, such that a rotation of the shaft due to induction of a magnetic force in the stator, when the external magnet is moved around the shaft in the circumferential direction, is prevented.
A disposable chip for testing a biological fluid, said chip comprising: (a) a substrate comprising a surface; (b) a non-fouling polymer layer on said surface, wherein said non-fouling polymer layer comprises a plurality of brush molecules; (c) at least one stable capture spot on said polymer layer, wherein said capture spot comprises at least one capture agent, wherein said at least one capture agent remains bound to said polymer layer when exposed to said biological fluid; and (d) at least one labile spot on said polymer layer, wherein said at least one labile spot comprises at least one detection agent and an excipient, wherein said at least one detection agent solubilizes upon contact with said biological fluid, wherein said at least one capture spot and said at least one labile spot are spatially separated from each other. (a) a substrate comprising a surface; (b) a non-fouling polymer layer on said surface, wherein said non-fouling polymer layer comprises a plurality of brush molecules; (c) at least one stable capture spot on said polymer layer, wherein said capture spot comprises at least one capture agent, wherein said at least one capture agent remains bound to said polymer layer when exposed to said biological fluid; and (d) at least one labile spot on said polymer layer, wherein said at least one labile spot comprises at least one detection agent and an excipient, wherein said at least one detection agent solubilizes upon contact with said biological fluid,
Device, comprising (i) at least one hollow body , each hollow body having at least one open end; (ii) at least one type of solid or gelly matrix material binding, adsorbing, absorbing, chelating or retaining compounds contaminating any desired biomolecule, (iii) optionally at least one porous liquid-permeable element inside of the hollow body; (iv) optionally at least one removable closing device to seal at least one of the open ends, characterized in that said device comprises at least one barrier which is non-permeable for liquids and solids under ambience conditions, however, becomes irreversibly liquid-permeable by applying an external force to said barrier , and the matrix is selected from a chelating resin, an cationic or anionic ion exchanging matrix material; a matrix comprising specific binding sites for undesired compounds, polysaccharides, HIC particles; size exclusion materials; minerals; InhibitEX®; ID ; NTA and derivatives of the last two mentioned, a resin or other substrate with IDA or NTA groups or derivates of them; EDTA; specific antibodies; amphipol; charcoal; PVP; superabsorbing polymers; non-fat milk cocktails; Polysaccharides, like chitosane, starch, glycogen, cellulose or derivates of them.
A management system comprising: a management apparatus ; and a first management server , wherein the management apparatus comprises: a detector configured to detect an operating status of a piece of electric equipment installed in a house; and a transmitter configured to transmit, to the first management server , operation information of the operating status; and the first management server comprises: a receiver configured to receive the operation information from the management apparatus ; and a calculator configured to calculate a responsivity index based on operation information of a piece of entertainment equipment among a plurality of the pieces of electric equipment, the responsivity index indicating a possibility that a user of the piece of electric equipment is capable of responding to an external request, characterized in that the calculator is configured to increase a value of the responsivity index in response to detecting that the entertainment equipment is used for longer than a predetermined time. a management apparatus ; and a first management server , wherein the management apparatus comprises: a detector configured to detect an operating status of a piece of electric equipment installed in a house; and a transmitter configured to transmit, to the first management server , operation information of the operating status; and a detector configured to detect an operating status of a piece of electric equipment installed in a house; and a transmitter configured to transmit, to the first management server , operation information of the operating status; and the first management server comprises: a receiver configured to receive the operation information from the management apparatus ; and a calculator configured to calculate a responsivity index based on operation information of a piece of entertainment equipment among a plurality of the pieces of electric equipment, the responsivity index indicating a possibility that a user of the piece of electric equipment is capable of responding to an external request, characterized in that the calculator is configured to increase a value of the responsivity index in response to detecting that the entertainment equipment is used for longer than a predetermined time. a receiver configured to receive the operation information from the management apparatus ; and a calculator configured to calculate a responsivity index based on operation information of a piece of entertainment equipment among a plurality of the pieces of electric equipment, the responsivity index indicating a possibility that a user of the piece of electric equipment is capable of responding to an external request, characterized in that the calculator is configured to increase a value of the responsivity index in response to detecting that the entertainment equipment is used for longer than a predetermined time.
Method for operating a medical system characterised by - acquiring (S1) ID tags of objects which are combined to form the medical system, - determining (S2) a situation identifier corresponding to a medical procedure from the acquired ID tags of the objects, - checking (S4) the ID tags of the objects by means of corresponding values in a database from which the corresponding values are obtained on the basis of the determined situation identifier, and - outputting (S5) a notification if, for the determined situation identifier, the corresponding values in the database reveal that at least one object is missing from the objects combined to form the medical system, or - automatically setting (S6) a device, which corresponds to one of the objects of the medical system, according to one of the corresponding values from the database. - acquiring (S1) ID tags of objects which are combined to form the medical system, - determining (S2) a situation identifier corresponding to a medical procedure from the acquired ID tags of the objects, - checking (S4) the ID tags of the objects by means of corresponding values in a database from which the corresponding values are obtained on the basis of the determined situation identifier, and - outputting (S5) a notification if, for the determined situation identifier, the corresponding values in the database reveal that at least one object is missing from the objects combined to form the medical system, or - automatically setting (S6) a device, which corresponds to one of the objects of the medical system, according to one of the corresponding values from the database.
A propulsion unit comprising: a support strut extending downwards from a hull of a vessel, a casing attached to a lower end of the support strut ,a propeller being arranged to an end of the casing , an annular nozzle surrounding the outer perimeter of the propeller blades and being fixedly supported on the casing with a support construction comprising at least three vanes , said nozzle having an inlet opening and an outlet opening , whereby a duct for water flow is formed between the inlet opening and the outlet opening through the interior of the annular nozzle , the propeller is configured to pull the vessel in a driving direction (S1), wherein the propulsion unit is configured so that the water enters the blades of the propeller freely from the inlet opening of the nozzle , and characterized in that the support construction is positioned between the propeller and the support strut in the driving direction (S1) of the vessel, and the support construction is positioned fully inside the nozzle , and the vanes of the support construction are arranged between an outer perimeter of the casing and an inner perimeter of the nozzle to receive the water flow from the blades of the propeller. a support strut extending downwards from a hull of a vessel, a casing attached to a lower end of the support strut ,a propeller being arranged to an end of the casing , an annular nozzle surrounding the outer perimeter of the propeller blades and being fixedly supported on the casing with a support construction comprising at least three vanes , said nozzle having an inlet opening and an outlet opening , whereby a duct for water flow is formed between the inlet opening and the outlet opening through the interior of the annular nozzle , the propeller is configured to pull the vessel in a driving direction (S1), wherein the propulsion unit is configured so that the water enters the blades of the propeller freely from the inlet opening of the nozzle , and characterized in that the support construction is positioned between the propeller and the support strut in the driving direction (S1) of the vessel, and the support construction is positioned fully inside the nozzle , and the vanes of the support construction are arranged between an outer perimeter of the casing and an inner perimeter of the nozzle to receive the water flow from the blades of the propeller.
Method for manufacturing a dental prosthesis intended for fixing on to an implant, comprising a step of manufacturing of the outer wall (E5) of the dental prosthesis and a step of manufacturing of at least one connection (E6) intended for fixing on to at least one implant in one and the same operation on one and the same manufacturing device from a solid block , these steps of manufacturing of the dental prosthesis (E5, E6) being machining steps which use one and the same machining tool , characterized in that the geometry of said connection suited to said at least one implant concerned is selected from a library stored in an electronic memory.
A power conversion device, comprising - a plurality of converter cells connected in series with one another, for converting electrical power, and also each one of the plurality of converter cells , including: - two power terminals (Po, No), - a bypass element (BP) electrically coupled between the two power terminals (Po, No), - an electrical energy storage element (ES), and - semiconductor devices (21-24, 31-34) arranged as a plurality of converter arms that are electrically coupled with the electrical energy storage element (ES) and configured to perform electrical power conversion between the two power terminals (Po, No) and the electrical energy storage element (ES) during a normal operation of the converter cells , - a fault detection unit configured to detect abnormality in any of the plurality of converter cells , and - a gate drive unit configured to drive each of the semiconductor devices (21-24, 31-34), characterised in that : - the fault detection unit is configured to control the bypass element (BP) to be close-circuited with respect to a particular converter cell when abnormality is detected therewith in any one of the converter cells , - the gate drive unit is configured to drive the semiconductor devices (21-24, 31-34) of the particular converter cell to form an electric current path in parallel with the bypass element (BP) without including the bypass element, at the same time that the bypass element (BP) is set close-circuited or in advance thereof, wherein the particular converter cell is set to perform a turn-on operation by the fault detection unit . - a plurality of converter cells connected in series with one another, for converting electrical power, and also - two power terminals (Po, No), - a bypass element (BP) electrically coupled between the two power terminals (Po, No), - an electrical energy storage element (ES), and - semiconductor devices (21-24, 31-34) arranged as a plurality of converter arms that are electrically coupled with the electrical energy storage element (ES) and configured to perform electrical power conversion between the two power terminals (Po, No) and the electrical energy storage element (ES) during a normal operation of the converter cells , - a fault detection unit configured to detect abnormality in any of the plurality of converter cells , and - a gate drive unit configured to drive each of the semiconductor devices (21-24, 31-34), - the fault detection unit is configured to control the bypass element (BP) to be close-circuited with respect to a particular converter cell when abnormality is detected therewith in any one of the converter cells , - the gate drive unit is configured to drive the semiconductor devices (21-24, 31-34) of the particular converter cell to form an electric current path in parallel with the bypass element (BP) without including the bypass element, at the same time that the bypass element (BP) is set close-circuited or in advance thereof, wherein the particular converter cell is set to perform a turn-on operation by the fault detection unit .