mhurhangee/patent-ind-claim-en huggingface dataset:
An orthopedic surgical device for use in operating on a target bone , comprising: a cut guide configured to be adjustably positioned onto or otherwise conform to the target bone , the cut guide comprising: a guide body forming the cut guide , the guide body including one or more guide members each sized, shaped or otherwise configured to constrain and guide a cutting tool along a respective cutting trajectory ; and further comprising a plurality of landing members , each of the plurality of landing members including a respective coupling feature configured to removably couple to a landing site of the target bone , wherein the one or more guide members are configured to guide the cutting tool to cut the target bone along the respective cutting trajectory when the plurality of landing members are coupled to the landing site of the target bone , characterized by the coupling feature of each of the landing members includes a protruding portion configured to be end-user engaged into a respective coupling receptacle on the landing site of the target bone , the coupling receptacle including a recessed portion sized, shaped or otherwise configured to receive and secure the protruding portion of the respective coupling feature of each of the plurality of landing members . a cut guide configured to be adjustably positioned onto or otherwise conform to the target bone , the cut guide comprising: a guide body forming the cut guide , the guide body including one or more guide members each sized, shaped or otherwise configured to constrain and guide a cutting tool along a respective cutting trajectory ; and further comprising a plurality of landing members , each of the plurality of landing members including a respective coupling feature configured to removably couple to a landing site of the target bone , a guide body forming the cut guide , the guide body including one or more guide members each sized, shaped or otherwise configured to constrain and guide a cutting tool along a respective cutting trajectory ; and further comprising a plurality of landing members , each of the plurality of landing members including a respective coupling feature configured to removably couple to a landing site of the target bone , wherein the one or more guide members are configured to guide the cutting tool to cut the target bone along the respective cutting trajectory when the plurality of landing members are coupled to the landing site of the target bone , characterized by the coupling feature of each of the landing members includes a protruding portion configured to be end-user engaged into a respective coupling receptacle on the landing site of the target bone , the coupling receptacle including a recessed portion sized, shaped or otherwise configured to receive and secure the protruding portion of the respective coupling feature of each of the plurality of landing members .
An ostomy accessory for an intestinal stoma of a mammal ostomy patient, adapted to be used together with an implanted constriction device with an artificial closing sphincter function for closing the intestinal passageway, wherein said ostomy accessory is adapted to absorb secretions from the mucosa wall of the part of the intestine which is distal to the constriction device, the ostomy accessory comprising an insertion portion for insertion into said intestinal stoma , said insertion portion comprising an absorbing body for absorbing and retaining liquid matter consisting of liquid secreted from a mucosa wall of the intestine , the accessory also comprising an outer part attached to the insertion portion and adapted to seal said stoma together with the insertion portion , the outer part comprising a liquid non-permeable layer in order to allow the absorbing body to retain absorbed liquid secretions from the mucosa wall so that the mucosa wall does not dehydrate, wherein the outer part comprises an attachment layer comprising a non-adhesive attachment layer material comprising a material which causes a static electrical effect between the skin and the attachment layer for attachment to the outside abdominal wall of the mammal patient.
A transfection complex comprising a lipid aggregate composition comprising at least one cationic lipid, a peptide having the structure: A-L-B, wherein; A is a membrane penetrating peptide, L is a linker peptide; and B is a cationic polypeptide, and a cargo molecule complexed with the peptide, wherein the cationic lipid, the peptide and the cargo molecule are present in the transfection complex in non-covalent association, and wherein peptide A-L-B is a peptide sequence selected from any one of SEQ ID NO.89-99 and 103. A is a membrane penetrating peptide, L is a linker peptide; and B is a cationic polypeptide, and wherein the cationic lipid, the peptide and the cargo molecule are present in the transfection complex in non-covalent association, and wherein peptide A-L-B is a peptide sequence selected from any one of SEQ ID NO.89-99 and 103.
Method for recycling carbon-fiber-reinforced polymers, comprising at least two reactors (R1, R2), wherein a reaction process for separating carbon fibers/carbon fiber mats and polymers takes place in the reactors in such a way that a preheated aqueous fluid is used as solvent, wherein the aqueous fluid is kept in the liquid state under pressure and is injected in the liquid state into the respective reactor (R1, R2), wherein a high pressure greater than 19 bar and a temperature above the boiling-point curve of the aqueous fluid is present in each of the reactors (R1, R2), and after completion of the reaction process the carbon fibers/carbon fiber mats purified from the polymers are separated from the reaction solution formed during the reaction process, wherein solvents in the form of oxygen-containing fluids in the supercritical range are used in the reactors of the unit, and water is used as the oxygen-containing fluid, wherein the temperature in the reactor is higher than 374.12°C and the pressure in the reactor is higher than 221.2 bar, wherein, after completion of the process in the first reactor R1, the heat content of the reactor R1 is extracted from the reactor R1 by means of a heater/cooler 3 and used to heat the reactor R2 provided for the next reaction cycle.
A non-aqueous lithium ion secondary battery comprising a positive electrode, a negative electrode, a separator, and an electrolyte solution, wherein at least one of the positive electrode, the negative electrode, and the separator includes a porous membrane, the porous membrane contains non-conductive particles and a polymer that has a nitrile group and includes an alkylene structural unit, the electrolyte solution contains a non-aqueous solvent and a lithium salt, a propionic acid compound constitutes at least 50 volume% and not more than 90 volume% of the non-aqueous solvent, and the non-aqueous solvent is composed only of the propionic acid compound and a carbonate. at least one of the positive electrode, the negative electrode, and the separator includes a porous membrane, the porous membrane contains non-conductive particles and a polymer that has a nitrile group and includes an alkylene structural unit, the electrolyte solution contains a non-aqueous solvent and a lithium salt, a propionic acid compound constitutes at least 50 volume% and not more than 90 volume% of the non-aqueous solvent, and the non-aqueous solvent is composed only of the propionic acid compound and a carbonate.
Use of system for storing a suction robot cleaner of a swimming pool in a location , the system comprising: - a suction robot cleaner ; - an hydraulic pump ; - a release piston linked to said robot able to move in a pipe (CN2) of said swimming pool ; - means for creating an overpressure in said pipe (CN2) ; and - means for creating a depression in said pipe (CN2), - a valve (C2) positioned substantially at the junction between a filtration pipe (CF1) upstream of the hydraulic pump and a cleaning pipe (CN2) downstream of the hydraulic pump ; sid use comprising; - creating, during a swimming pool cleaning phase by said robot , an overpressure in said pipe (CN2), so as to drive the release piston to a first position at the end of said pipe (CN2) which allows said robot to be removed from its location ; and ; - creating, during a filtration phase of the water in said swimming pool, when said robot is inactive, a depression in said pipe (CN2), so as to suck said release piston up to at a second position of said pipe (CN2) allowing said robot to be stored in said location . - a suction robot cleaner ; - an hydraulic pump ; - a release piston linked to said robot able to move in a pipe (CN2) of said swimming pool ; - means for creating an overpressure in said pipe (CN2) ; and - means for creating a depression in said pipe (CN2), - a valve (C2) positioned substantially at the junction between a filtration pipe (CF1) upstream of the hydraulic pump and a cleaning pipe (CN2) downstream of the hydraulic pump ; - creating, during a swimming pool cleaning phase by said robot , an overpressure in said pipe (CN2), so as to drive the release piston to a first position at the end of said pipe (CN2) which allows said robot to be removed from its location ; and ; - creating, during a filtration phase of the water in said swimming pool, when said robot is inactive, a depression in said pipe (CN2), so as to suck said release piston up to at a second position of said pipe (CN2) allowing said robot to be stored in said location .
Brake plunger of a disc brake of a utility vehicle, having - an actuating spindle with a threaded tube and an actuating spindle head projecting from an end surface of the threaded tube , - a thrust piece which is seated on the actuating spindle head so as to be secured axially in relation to a longitudinal axis of the actuating spindle and which has a receiving opening for receiving the actuating spindle head , - wherein a sliding sleeve is arranged between the thrust piece and the actuating spindle head , - wherein the sliding sleeve is secured axially in a groove of the actuating spindle , characterized in that - the actuating spindle head has the groove near the end surface of the threaded tube , in which groove at least partial regions of an edge of the sliding sleeve are received. - an actuating spindle with a threaded tube and an actuating spindle head projecting from an end surface of the threaded tube , - a thrust piece which is seated on the actuating spindle head so as to be secured axially in relation to a longitudinal axis of the actuating spindle and which has a receiving opening for receiving the actuating spindle head , - wherein a sliding sleeve is arranged between the thrust piece and the actuating spindle head , - wherein the sliding sleeve is secured axially in a groove of the actuating spindle , characterized in that - the actuating spindle head has the groove near the end surface of the threaded tube , in which groove at least partial regions of an edge of the sliding sleeve are received.
A method of wireless communications, comprising: determining , for each of a first codeblock and a second codeblock, a first number of resource elements satisfying a vulnerability condition and a second number of resource elements not satisfying the vulnerability condition; determining , for each of the first codeblock and the second codeblock, a first number of coded bits to be mapped to the first number of resource elements and a second number of coded bits to be mapped to the second number of resource elements; extracting , for each of the first codeblock and the second codeblock, a subset of the first number of coded bits and a subset of the second number of coded bits; concatenating the subsets of the first number of coded bits from the first codeblock and the second codeblock; concatenating the subsets of the second number of coded bits from the first codeblock and the second codeblock; and generating a concatenated codeblock for transmission including the concatenated subsets of the first number of coded bits and the concatenated subsets of the second number of coded bits. determining , for each of a first codeblock and a second codeblock, a first number of resource elements satisfying a vulnerability condition and a second number of resource elements not satisfying the vulnerability condition; determining , for each of the first codeblock and the second codeblock, a first number of coded bits to be mapped to the first number of resource elements and a second number of coded bits to be mapped to the second number of resource elements; extracting , for each of the first codeblock and the second codeblock, a subset of the first number of coded bits and a subset of the second number of coded bits; concatenating the subsets of the first number of coded bits from the first codeblock and the second codeblock; concatenating the subsets of the second number of coded bits from the first codeblock and the second codeblock; and generating a concatenated codeblock for transmission including the concatenated subsets of the first number of coded bits and the concatenated subsets of the second number of coded bits.
A method of creating structural features on a medical device surface, comprising the steps of: a. providing a medical device having a medical device surface; b. applying a photoresist coating to the medical device surface and processing the photoresist so as to make the photoresist photosensitive; c. mounting the medical device on a photomasked transparent apparatus, wherein the photomasked transparent apparatus has a photomask formed from an opaque layer deposited on a transparent apparatus and portions of the opaque layer are selectively removed, wherein the photomasked transparent apparatus is capable of transmitting radiation there through unmasked portions of the photomasked transparent apparatus; d. exposing the photoresist coating on the medical device surface to exposing radiation through the photomasked transparent apparatus; e. removing the medical device from the photomasked transparent apparatus; f. developing the photoresist coating to reveal a pattern imparted by the photomasked transparent apparatus; and g. machining the exposed pattern on the medical device. a. providing a medical device having a medical device surface; b. applying a photoresist coating to the medical device surface and processing the photoresist so as to make the photoresist photosensitive; c. mounting the medical device on a photomasked transparent apparatus, wherein the photomasked transparent apparatus has a photomask formed from an opaque layer deposited on a transparent apparatus and portions of the opaque layer are selectively removed, wherein the photomasked transparent apparatus is capable of transmitting radiation there through unmasked portions of the photomasked transparent apparatus; d. exposing the photoresist coating on the medical device surface to exposing radiation through the photomasked transparent apparatus; e. removing the medical device from the photomasked transparent apparatus; f. developing the photoresist coating to reveal a pattern imparted by the photomasked transparent apparatus; and g. machining the exposed pattern on the medical device.
A photovoltaic cell, comprising: a substrate ; a first passivation layer and a first anti-reflection layer that are sequentially disposed on a front surface of the substrate in a direction away from the substrate; and a second passivation layer , at least one silicon oxynitride layer , and at least one silicon nitride layer that are sequentially disposed on a rear surface of the substrate in a direction away from the substrate; wherein the second passivation layer comprises at least one aluminum oxide layer , wherein a ratio of a number of oxygen atoms to a number of aluminum atoms in the at least one aluminum oxide layer is greater than 0.8 and less than 1.6, a refractive index of the at least one aluminum oxide layer is in a range of 1.4 to 1.6, and a thickness of the at least one aluminum oxide layer is in a range of 4 nm to 20 nm; wherein a number of silicon atoms is greater than a number of oxygen atoms in the at least one silicon oxynitride layer and the number of oxygen atoms is greater than a number of nitrogen atoms in the at least one silicon oxynitride layer, a refractive index of the at least one silicon oxynitride layer is in a range of 1.5 to 1.8, and a thickness of the at least one silicon oxynitride layer is in a range of 1 nm to 30 nm; and wherein a ratio of a number of silicon atoms to a number of nitrogen atoms in the at least one silicon nitride layer is greater than 1 and less than 4, a refractive index of the at least one silicon nitride layer is in a range of 1.9 to 2.5, and a thickness of the at least one silicon nitride layer is in a range of 50 nm to 100 nm. a substrate ; a first passivation layer and a first anti-reflection layer that are sequentially disposed on a front surface of the substrate in a direction away from the substrate; and a second passivation layer , at least one silicon oxynitride layer , and at least one silicon nitride layer that are sequentially disposed on a rear surface of the substrate in a direction away from the substrate; wherein the second passivation layer comprises at least one aluminum oxide layer , wherein a ratio of a number of oxygen atoms to a number of aluminum atoms in the at least one aluminum oxide layer is greater than 0.8 and less than 1.6, a refractive index of the at least one aluminum oxide layer is in a range of 1.4 to 1.6, and a thickness of the at least one aluminum oxide layer is in a range of 4 nm to 20 nm; wherein a number of silicon atoms is greater than a number of oxygen atoms in the at least one silicon oxynitride layer and the number of oxygen atoms is greater than a number of nitrogen atoms in the at least one silicon oxynitride layer, a refractive index of the at least one silicon oxynitride layer is in a range of 1.5 to 1.8, and a thickness of the at least one silicon oxynitride layer is in a range of 1 nm to 30 nm; and wherein a ratio of a number of silicon atoms to a number of nitrogen atoms in the at least one silicon nitride layer is greater than 1 and less than 4, a refractive index of the at least one silicon nitride layer is in a range of 1.9 to 2.5, and a thickness of the at least one silicon nitride layer is in a range of 50 nm to 100 nm.
Method for determining corrected acquisition geometries of projection images of a projection image dataset , comprising the following steps: - Providing a projection image dataset which comprises a plurality of projection images of an object under examination that have been acquired by an acquisition device in different acquisition geometries , - Determining a provisional acquisition geometry for each of the projection images by means of a first optimisation method by minimising a first cost function by varying the provisional acquisition geometry , wherein the first cost function is contingent on a plurality of consistency measures which are determined on the basis of the provisional acquisition geometry for a respective pair of projection images , and - Determining the respective corrected acquisition geometry for each of the projection images by means of a second optimisation method by minimising a second cost function by varying the corrected acquisition geometries , wherein the second cost function is contingent on a measure for an image quality of image data reconstructed on the basis of the projection images and the corrected acquisition geometries , wherein, in a first iteration step of the second optimisation method , the provisional acquisition geometries determined by the first optimisation method are used as corrected acquisition geometries . - Providing a projection image dataset which comprises a plurality of projection images of an object under examination that have been acquired by an acquisition device in different acquisition geometries , - Determining a provisional acquisition geometry for each of the projection images by means of a first optimisation method by minimising a first cost function by varying the provisional acquisition geometry , wherein the first cost function is contingent on a plurality of consistency measures which are determined on the basis of the provisional acquisition geometry for a respective pair of projection images , and - Determining the respective corrected acquisition geometry for each of the projection images by means of a second optimisation method by minimising a second cost function by varying the corrected acquisition geometries , wherein the second cost function is contingent on a measure for an image quality of image data reconstructed on the basis of the projection images and the corrected acquisition geometries , wherein, in a first iteration step of the second optimisation method , the provisional acquisition geometries determined by the first optimisation method are used as corrected acquisition geometries .
Brake system for a trailer of a vehicle combination , which trailer has a front axle , which is steerable by means of a drawbar , and at least one non-steered rear axle , characterized in that the brake system has a control unit which is configured to, in a manner dependent on a directional specification demanded from a source external to the trailer, brake the brake of at least one wheel of one side of at least one axle of the trailer such that the trailer is moved in the desired manoeuvring direction during a movement thereof.