mhurhangee/ep-ind-claims huggingface dataset:
Underwater vehicle, comprising: - an elongated hull provided at its stem with at least one propeller, which is ducted within a circumferential casing, - an outer tubular shield at least partially surrounding the hull and forming an interspace between the shield and the hull, - wherein said shield extends throughout at least a substantial portion of the length of the hull, starting from a front mouth and ending at the stem, where it defines said casing within which the propeller is ducted, so that the entire flow of water which is directed to the propeller is guided within said interspace defined by said outer shield, starting from said front mouth to an outlet mouth located at the rear of the propeller, said front mouth being forwardly opened and characterized in that it is located at a position displaced rearwardly with respect to the bow of said elongated hull in such a way so as not to compromise the functioning of detecting apparatus and/or devices located on the bow. - an elongated hull provided at its stem with at least one propeller, which is ducted within a circumferential casing, - an outer tubular shield at least partially surrounding the hull and forming an interspace between the shield and the hull, - wherein said shield extends throughout at least a substantial portion of the length of the hull, starting from a front mouth and ending at the stem, where it defines said casing within which the propeller is ducted, so that the entire flow of water which is directed to the propeller is guided within said interspace defined by said outer shield, starting from said front mouth to an outlet mouth located at the rear of the propeller, said front mouth being forwardly opened and characterized in that it is located at a position displaced rearwardly with respect to the bow of said elongated hull in such a way so as not to compromise the functioning of detecting apparatus and/or devices located on the bow.
Method for extracting a non-hydrolyzed α-keratin from animal hair comprising the following steps: degreasing the animal hair with a 30-60% (v degreaser /v total) solution of a degreaser to obtain a solution of degreased animal hair, wherein the step of degreasing is a step of digesting; filtering the solution of degreased animal hair to remove residues and to obtain a solution of keratin using a sieve with a mesh between 0.5-2 mm; concentrating keratin by ultrafiltration; wherein the solution of the degreaser has a pH between 13-14; wherein the step of degreasing is carried out for 4-6 hours; wherein the obtainable keratin has a molecular weight between 40-65 kDa. degreasing the animal hair with a 30-60% (v degreaser /v total) solution of a degreaser to obtain a solution of degreased animal hair, wherein the step of degreasing is a step of digesting; filtering the solution of degreased animal hair to remove residues and to obtain a solution of keratin using a sieve with a mesh between 0.5-2 mm; concentrating keratin by ultrafiltration; wherein the solution of the degreaser has a pH between 13-14; wherein the step of degreasing is carried out for 4-6 hours; wherein the obtainable keratin has a molecular weight between 40-65 kDa.
Anti-constipation and anti-flatulence device, comprising at least one piston with a support foot at one end, intended to be placed in use on a patient's belly, and movement means of said piston, wherein said piston is movably mounted inside an outer casing, the movement means being configured so that said piston passes from a condition of maximum extraction from the outer casing of the support foot, to a condition of minimum extraction and/or insertion of the support foot and vice versa and such that, in the maximum extraction condition, in use, said support foot translates linearly along a work plane, which work plane substantially identifies the patient's belly during use, said movement means comprising a rack cooperating with a pinion, said rack being integral with and mounted inside the outer casing and, in use, arranged entirely in a plane perpendicular to said work plane, with said rack forming a closed rectangular path with at least one side parallel to said work plane, said pinion being integral with said piston. comprising at least one piston with a support foot at one end, intended to be placed in use on a patient's belly, and movement means of said piston, wherein said piston is movably mounted inside an outer casing, the movement means being configured so that said piston passes from a condition of maximum extraction from the outer casing of the support foot, to a condition of minimum extraction and/or insertion of the support foot and vice versa and such that, in the maximum extraction condition, in use, said support foot translates linearly along a work plane, which work plane substantially identifies the patient's belly during use, said movement means comprising a rack cooperating with a pinion, said rack being integral with and mounted inside the outer casing and, in use, arranged entirely in a plane perpendicular to said work plane, with said rack forming a closed rectangular path with at least one side parallel to said work plane, said pinion being integral with said piston.
An enclosed microfluidics cassette device for intracytoplasmic sperm injection assisted fertilization comprising: a) an oocyte reservoir comprising an oocyte chamber, an inlet and an outlet; b) an oocyte cumulus removal channel in selective fluid communication with the oocyte reservoir outlet; c) an oocyte immobilizing station in selective fluid communication with the oocyte cumulus removal channel; d) a spermatozoa reservoir comprising a spermatozoa chamber, an inlet and outlet; e) a motile spermatozoa isolating channel in selective fluid communication with the spermatozoa reservoir outlet; f) a motile spermatozoa immobilization station in selective fluid communication with the motile spermatozoa isolating channel and in selective fluid communication with the oocyte immobilization station; and g) an embryo culturing chamber in selective fluid communication with the oocyte immobilization station; wherein selective fluid communication is controlled by one or more piezoelectric gates comprising nanoelectrode modules, and wherein the oocyte cumulus removal channel comprises one or more piezoelectric gates configured to facilitate cumulus cell removal. a) an oocyte reservoir comprising an oocyte chamber, an inlet and an outlet; b) an oocyte cumulus removal channel in selective fluid communication with the oocyte reservoir outlet; c) an oocyte immobilizing station in selective fluid communication with the oocyte cumulus removal channel; d) a spermatozoa reservoir comprising a spermatozoa chamber, an inlet and outlet; e) a motile spermatozoa isolating channel in selective fluid communication with the spermatozoa reservoir outlet; f) a motile spermatozoa immobilization station in selective fluid communication with the motile spermatozoa isolating channel and in selective fluid communication with the oocyte immobilization station; and g) an embryo culturing chamber in selective fluid communication with the oocyte immobilization station;
A preparation method of a non-polar blue light LED epitaxial wafer based on a LAO substrate, the wafer having a LAO substrate, and a non-polar m face GaN buffer layer, a first non-polar non-doped u-GaN layer, a first non-polar n-type doped GaN film layer, a non-polar InGaN/GaN quantum well layer, a non-polar m face AlGaN electron barrier layer and a second non-polar p-type doped GaN film layer being sequentially arranged on the LAO substrate, wherein the method comprises the following steps: a) adopting the LAO substrate, selecting the crystal orientation, and cleaning the surface of the LAO substrate; b) annealing the LAO substrate, and forming an AlN seed crystal layer on the surface of the LAO substrate; and c) sequentially forming the non-polar m face GaN buffer layer, the first non-polar non-doped u-GaN layer, the first non-polar n-type doped GaN film, the non-polar InGaN/GaN quantum well layer, the non-polar m face AlGaN electron barrier layer and the second non-polar p-type doped GaN film layer on the LAO substrate by adopting metal organic chemical vapor deposition; characterised in that said step b) comprises the following process: baking the LAO substrate at high temperature of 900-1200 °C for 1-4 h followed by cooling to the room temperature in air, then passing N2 plasma to keep the temperature for 30-80 minutes, and forming the AlN seed crystal layer on the surface of the LAO substrate by radio frequency plasma enhanced metal organic chemical vapor deposition, the flow of the N plasma is 40-90 sccm, and the radio frequency power for generating the plasma nitrogen is 200-500W. a) adopting the LAO substrate, selecting the crystal orientation, and cleaning the surface of the LAO substrate; b) annealing the LAO substrate, and forming an AlN seed crystal layer on the surface of the LAO substrate; and c) sequentially forming the non-polar m face GaN buffer layer, the first non-polar non-doped u-GaN layer, the first non-polar n-type doped GaN film, the non-polar InGaN/GaN quantum well layer, the non-polar m face AlGaN electron barrier layer and the second non-polar p-type doped GaN film layer on the LAO substrate by adopting metal organic chemical vapor deposition; characterised in that said step b) comprises the following process: baking the LAO substrate at high temperature of 900-1200 °C for 1-4 h followed by cooling to the room temperature in air, then passing N2 plasma to keep the temperature for 30-80 minutes, and forming the AlN seed crystal layer on the surface of the LAO substrate by radio frequency plasma enhanced metal organic chemical vapor deposition, the flow of the N plasma is 40-90 sccm, and the radio frequency power for generating the plasma nitrogen is 200-500W. baking the LAO substrate at high temperature of 900-1200 °C for 1-4 h followed by cooling to the room temperature in air, then passing N2 plasma to keep the temperature for 30-80 minutes, and forming the AlN seed crystal layer on the surface of the LAO substrate by radio frequency plasma enhanced metal organic chemical vapor deposition, the flow of the N plasma is 40-90 sccm, and the radio frequency power for generating the plasma nitrogen is 200-500W.
An implantable medical lead, comprising: a lead body including a proximal end adapted to be coupled to a pulse generator and a distal region; and at least one conductor extending within the lead body from the proximal end to an electrode located on the distal region of the lead body, the electrode operatively coupled to the at least one conductor; characterized in that the distal region of the lead body includes including a distal tip having a tapered cross-sectional profile from a proximal end to a distal end of the distal tip and a recessed portion formed in an outer surface of the tip, and a drug-eluting component is disposed in the recessed portion formed in the distal tip, wherein the drug-eluting component has a tapered cross-sectional profile corresponding to the profile of the tip. a lead body including a proximal end adapted to be coupled to a pulse generator and a distal region; and at least one conductor extending within the lead body from the proximal end to an electrode located on the distal region of the lead body, the electrode operatively coupled to the at least one conductor; characterized in that the distal region of the lead body includes including a distal tip having a tapered cross-sectional profile from a proximal end to a distal end of the distal tip and a recessed portion formed in an outer surface of the tip, and a drug-eluting component is disposed in the recessed portion formed in the distal tip, wherein the drug-eluting component has a tapered cross-sectional profile corresponding to the profile of the tip.
A compound of formula I: wherein, L is a C 2 -C 22 aliphatic radical or a C 3 -C 22 aromatic radical forming an amide bond at the carboxylic group; R 1, R 2 and R 3 are, independently at each occurrence, a C 1 -C 40 aliphatic radical or a C 3 -C 40 aromatic radical; at least one of R 1, R 2, or R 3 comprises at least 2 carbon atoms; and wherein the compound having only one of R 1, R 2 or R 3 as C 10 H 21, the remaining two of R 1, R 2, or R 3 as methyl groups, and L as -(CH 2) 3 -NH- is disclaimed.
A fluorescent nanoparticle diluent, comprising: 1 to 5%(W/W) of a protein having a molecular weight of 40,000 or higher; and 1 to 3%(W/W) of a protein having a molecular weight of less than 40,000, wherein said protein having a molecular weight of 40,000 or higher is BSA and said protein having a molecular weight of less than 40,000 is casein. 1 to 5%(W/W) of a protein having a molecular weight of 40,000 or higher; and 1 to 3%(W/W) of a protein having a molecular weight of less than 40,000, wherein said protein having a molecular weight of 40,000 or higher is BSA and said protein having a molecular weight of less than 40,000 is casein.
A method for producing an articulated joint between two components (1, 2), wherein a joint bushing is provided in at least one opening of the one component for accommodating a joint bolt, wherein the further component can be fastened on a bolt end (6.3) of an accommodated joint bolt, which bolt end protrudes out of the joint bushing, characterized in that the introduction of the joint bushing into the one component is carried out in a manufacturing tool used for the production of the first component and the manufacturing tool is a progressive or multi-stage tool, and wherein the introduction of the joint bushing in the progressive or multi-stage tool is carried out using a work tool, which is mounted in a floating manner and/or spring-mounted, and/or a calibration of the joint bushing in the progressive or multi-stage tool is carried out using a work tool, which is mounted in a floating manner and/or spring-mounted, and/or an at least partial fixing of the joint bushing is carried out by folding a bushing edge (5.3) in the progressive or multi-stage tool using a work tool, which is mounted in a floating manner and/or spring-mounted.
A medical device for irrigation of a wound site, comprising: a hand piece; and a tube having a proximal portion adapted to receive an irrigation solution, a distal tip having a nozzle and an intermediate portion for transporting the solution, the tube having a manipulable barrel to position the device relative to the wound site, wherein the nozzle has a body formed with a distally leading channel presenting a semispherical first spatial conformation and a proximally leading opening formed in the body presenting a second spatial conformation intersecting the semispherical terminus, defining an effective diameter of the nozzle that determines a corresponding spray pattern from the nozzle onto the wound; wherein the hand piece captures the nozzle at the distal tip of the tube, including complementary anti-rotation structures preventing relative motion therebetween. a hand piece; and a tube having a proximal portion adapted to receive an irrigation solution, a distal tip having a nozzle and an intermediate portion for transporting the solution, the tube having a manipulable barrel to position the device relative to the wound site, wherein the nozzle has a body formed with a distally leading channel presenting a semispherical first spatial conformation and a proximally leading opening formed in the body presenting a second spatial conformation intersecting the semispherical terminus, defining an effective diameter of the nozzle that determines a corresponding spray pattern from the nozzle onto the wound; wherein the hand piece captures the nozzle at the distal tip of the tube, including complementary anti-rotation structures preventing relative motion therebetween.
Method of pickling and/or passivating at least an inside of a container, comprising the steps of: - holding the container by a manipulator; - arranging a pickling and/or passivation liquid inside the container; - manipulating the container along a pre-determined trajectory, thereby successively: - distributing the pickling and/or passivation liquid inside said container; and - draining the pickling and/or passivation liquid out of said container, characterized in that - the step of arranging the pickling and/or passivation liquid inside the container comprises the step of at least partly submerging said container in a bath containing said pickling and/or passivation liquid; and - the step of manipulating the container in the pre-determined trajectory is preceded by the step of determining said trajectory in dependence of the position of at least one opening in one or more than one wall of said container, wherein said at least one opening is selected for allowing a fluid to leave said container. - holding the container by a manipulator; - arranging a pickling and/or passivation liquid inside the container; - manipulating the container along a pre-determined trajectory, thereby successively: - distributing the pickling and/or passivation liquid inside said container; and - draining the pickling and/or passivation liquid out of said container, - distributing the pickling and/or passivation liquid inside said container; and - draining the pickling and/or passivation liquid out of said container, - the step of arranging the pickling and/or passivation liquid inside the container comprises the step of at least partly submerging said container in a bath containing said pickling and/or passivation liquid; and - the step of manipulating the container in the pre-determined trajectory is preceded by the step of determining said trajectory in dependence of the position of at least one opening in one or more than one wall of said container, wherein said at least one opening is selected for allowing a fluid to leave said container.
A circuit breaker, comprising: a first stationary contact connected to a line power terminal of the circuit breaker; a second stationary contact connected to a neutral terminal of the circuit breaker; a first moveable contact coupled to a load power terminal of the circuit breaker, the first moveable contact mounted on a moveable actuator and juxtaposed with the first stationary contact to form a power circuit between the line power terminal and the load power terminal when the first moveable and first stationary contacts are closed; a second moveable contact connected to a load neutral terminal of the circuit breaker, the second moveable contact mounted on the moveable actuator juxtaposed with the second stationary contact to form a neutral circuit between the neutral terminal and the load neutral terminal when the second moveable and second stationary contacts are closed; the movable actuator configured to move the first and second moveable contacts in unison to open the power circuit between the first stationary and first moveable contacts and simultaneously to open the neutral circuit between the second stationary and second moveable contacts; characterized by a load-powered circuit board configured to write a fault type of a tripping event, via an opto-coupler, to a line-powered circuit board, at the same time that the first and second stationary contacts and the first and second moveable contacts are opened; and light emitting diodes (LEDs) directly connected across the line power terminal and the neutral terminal, configured to display the type of fault. a first stationary contact connected to a line power terminal of the circuit breaker; a second stationary contact connected to a neutral terminal of the circuit breaker; a first moveable contact coupled to a load power terminal of the circuit breaker, the first moveable contact mounted on a moveable actuator and juxtaposed with the first stationary contact to form a power circuit between the line power terminal and the load power terminal when the first moveable and first stationary contacts are closed; a second moveable contact connected to a load neutral terminal of the circuit breaker, the second moveable contact mounted on the moveable actuator juxtaposed with the second stationary contact to form a neutral circuit between the neutral terminal and the load neutral terminal when the second moveable and second stationary contacts are closed; the movable actuator configured to move the first and second moveable contacts in unison to open the power circuit between the first stationary and first moveable contacts and simultaneously to open the neutral circuit between the second stationary and second moveable contacts; characterized by a load-powered circuit board configured to write a fault type of a tripping event, via an opto-coupler, to a line-powered circuit board, at the same time that the first and second stationary contacts and the first and second moveable contacts are opened; and light emitting diodes (LEDs) directly connected across the line power terminal and the neutral terminal, configured to display the type of fault.
A binding polypeptide specifically binding to the amino acid sequence W-V-N-X 1 -F-Y-X 2 (SEQ ID NO:1), wherein X 1 represents any amino acid, wherein X 2 represents any amino acid, in a norovirus polypeptide, wherein said binding polypeptide comprises the complementarity determining regions (CDRs): CDR1: GSIFSIYA (SEQ ID NO:6), CDR2: ISSGGGTN (SEQ ID NO:7), and CDR3: KREDYSAYAPPSGS (SEQ ID NO:8), wherein said binding polypeptide comprises an amino acid sequence having at least 70 % sequence identity to SEQ ID NO:9, and wherein said binding polypeptide is a single-domain antibody. wherein said binding polypeptide comprises the complementarity determining regions (CDRs): CDR1: GSIFSIYA (SEQ ID NO:6), CDR2: ISSGGGTN (SEQ ID NO:7), and CDR3: KREDYSAYAPPSGS (SEQ ID NO:8), wherein said binding polypeptide comprises an amino acid sequence having at least 70 % sequence identity to SEQ ID NO:9, and wherein said binding polypeptide is a single-domain antibody.
A method for determining a value representative for the load on a plunger of a baler for forming bales of agricultural material, comprising at least a drive system for the plunger, the drive system comprising at least one moving drive element, characterized in that the method comprising the steps of: obtaining the speed of movement of the drive element; and determining the estimate of the load on the plunger based upon the obtained speed of movement of the drive element by use of a predetermined relationship between this speed of movement of the drive element and the load on the plunger.
Blade carrier, for windmill blades, in particular for offshore windmills, comprising a frame, where said frame comprises a number of modules each having a root receiving end and a tip receiving end for accommodating one windmill blade, characterized in, that said root receiving end comprises an annular root receiving pneumatic clamp (3, 6) adapted to receive the root end of a windmill blade, that said annular root receiving pneumatic clamp is arranged for establishing an open and a closed state, that said annular root receiving pneumatic clamp (3, 6) comprises an actuator which is operated to change between the two states (3, 6), and where said tip receiving end comprises a tip receiving pneumatic clamp (7, 9, 10) adapted to support part of a windmill blade edge and that said tip receiving pneumatic clamp is arranged for establishing an open and a closed state, that said tip receiving pneumatic clamp comprises an actuator which is operated to change between the two states (7, 9), and that the blade carrier comprises pneumatic conduits connecting the pneumatic clamps (3, 6, 7, 9, 10) with a pressure source and that said closed states (3, 7) provides a securing of the blade in the blade carrier whereas the open states (6, 9) makes it possible to insert or remove the blade.