mhurhangee/ep-ind-claims huggingface dataset:
A method for storing digital information into nucleic acid molecules, the method comprising: partitioning identifier nucleic acid sequences into adjacent blocks, each identifier nucleic acid sequence comprising component nucleic acid sequences, at least a portion of which are configured to bind to one or more probes; allocating a string of symbols to a block of the adjacent blocks; mapping the string of symbols to a plurality of identifier nucleic acid sequences within the block; and constructing individual identifier nucleic acid molecules of the plurality of identifier nucleic acid sequences; wherein: said mapping is performed using a codebook that maps words to codewords; said words each comprise one or more symbols of the string; said codewords each comprise one or more identifier nucleic acid sequences of the identifier nucleic acid sequences to which the string is mapped; there is a fixed number of codewords per block of the adjacent blocks; and a range of identifiers encoding the g th instance of the block is calculated as the range encoding codeword instances ( g - 1)* c + 1 through g*c, wherein c is the fixed number of codewords per block of the adjacent blocks. partitioning identifier nucleic acid sequences into adjacent blocks, each identifier nucleic acid sequence comprising component nucleic acid sequences, at least a portion of which are configured to bind to one or more probes; allocating a string of symbols to a block of the adjacent blocks; mapping the string of symbols to a plurality of identifier nucleic acid sequences within the block; and constructing individual identifier nucleic acid molecules of the plurality of identifier nucleic acid sequences; said mapping is performed using a codebook that maps words to codewords; said words each comprise one or more symbols of the string; said codewords each comprise one or more identifier nucleic acid sequences of the identifier nucleic acid sequences to which the string is mapped; there is a fixed number of codewords per block of the adjacent blocks; and a range of identifiers encoding the g th instance of the block is calculated as the range encoding codeword instances ( g - 1)* c + 1 through g*c, wherein c is the fixed number of codewords per block of the adjacent blocks.
An active energy ray-curable composition comprising a urethane (meth)acrylate resin, a polymerization initiator, and a polymerizable diluent, wherein the urethane (meth)acrylate resin is produced by using an aromatic polyisocyanate (a), a hydroxyl group-containing mono(meth)acrylate (b), and a polyol (c) as essential reaction raw materials so that the ratio [(b')/(a')] of the number of moles (b') of hydroxyl groups contained in the hydroxyl group-containing mono(meth)acrylate (b) to the number of moles (a') of isocyanate groups contained in the aromatic polyisocyanate (a) is within a range of 0.99 to 0.40, and the urethane (meth)acrylate resin has a (meth)acryloyl group concentration within a range of 1.5 to 4.0 mmol/g, and the polymerizable diluent is a combination of alkylene oxide-added aliphatic polyhydric alcohol poly(meth)acrylate and alkylene oxide-added bisphenol poly(meth)acrylate.
An authentication system, comprising: first authentication means for performing, based on a similarity between input authentication information that has been input and registered authentication information that has been registered, an authentication of a user to be authenticated, wherein the input authentication information and registered authentication information are face photographs; determination means for determining whether there is a possibility that the user is authenticated as another user, wherein the determination means is configured to determine that there is the possibility that the user is authenticated as another user when a plurality of pieces of registered authentication information are similar to the input authentication information; acquisition means for acquiring, when it is determined that there is the possibility that the user is authenticated as another user for the input authentication information, a plurality of pieces of processed authentication information processed differently from each other, each of the pieces of processed authentication information being generated by processing the input authentication information; and second authentication means for performing, when it is determined that there is the possibility that the user is authenticated as another user, the authentication based on whether a predetermined number or more of the pieces of processed authentication information are more similar to a given piece of registered authentication information than the input authentication information is similar to the given piece of registered information. first authentication means for performing, based on a similarity between input authentication information that has been input and registered authentication information that has been registered, an authentication of a user to be authenticated, wherein the input authentication information and registered authentication information are face photographs; determination means for determining whether there is a possibility that the user is authenticated as another user, wherein the determination means is configured to determine that there is the possibility that the user is authenticated as another user when a plurality of pieces of registered authentication information are similar to the input authentication information; acquisition means for acquiring, when it is determined that there is the possibility that the user is authenticated as another user for the input authentication information, a plurality of pieces of processed authentication information processed differently from each other, each of the pieces of processed authentication information being generated by processing the input authentication information; and second authentication means for performing, when it is determined that there is the possibility that the user is authenticated as another user, the authentication based on whether a predetermined number or more of the pieces of processed authentication information are more similar to a given piece of registered authentication information than the input authentication information is similar to the given piece of registered information.
Method for operating a pump having a pump chamber which has at least one connection (211, 212), and an electromagnetic linear actuator which is acted on by a spring force (F F) and which can be moved counter to the spring force (F 1) by applying a voltage, wherein, by means of a movement of the electromagnetic linear actuator in a first direction (Ri), fluid is sucked into the pump chamber through a connection, and wherein, by means of a movement of the electromagnetic linear actuator in a second direction (R 2), fluid is displaced out of the pump chamber through a connection, wherein, during the movement of the electromagnetic linear actuator in the direction of the spring force (F F), a voltage is applied in such a way that after the start of the movement, the magnetic energy present in the electromagnetic linear actuator is dissipated actively to a predefined proportion of less than 100%, characterized in that the predefined proportion lies between 10% and 50%, wherein the voltage is reapplied before or at the end of the movement, specifically in such a way that the magnetic energy that is still present in the electromagnetic linear actuator is completely actively dissipated, wherein, between the application of the voltage with which the predefined proportion of the magnetic energy is actively dissipated and the application of the voltage with which the magnetic energy present in the electromagnetic linear actuator is completely actively dissipated, at least a predefined time period (Δt') and/or a movement distance of the electromagnetic linear actuator are provided. wherein, by means of a movement of the electromagnetic linear actuator in a second direction (R 2), fluid is displaced out of the pump chamber through a connection, wherein, during the movement of the electromagnetic linear actuator in the direction of the spring force (F F), a voltage is applied in such a way that after the start of the movement, the magnetic energy present in the electromagnetic linear actuator is dissipated actively to a predefined proportion of less than 100%, characterized in that the predefined proportion lies between 10% and 50%, wherein the voltage is reapplied before or at the end of the movement, specifically in such a way that the magnetic energy that is still present in the electromagnetic linear actuator is completely actively dissipated, wherein, between the application of the voltage with which the predefined proportion of the magnetic energy is actively dissipated and the application of the voltage with which the magnetic energy present in the electromagnetic linear actuator is completely actively dissipated, at least a predefined time period (Δt') and/or a movement distance of the electromagnetic linear actuator are provided.
A vehicle component for a vehicle comprising: a top portion (10,110), a bottom portion (12,112), a first side portion (14,114), and a second side portion (16,116), preferably wherein a window opening is located below the top portion (10,110) and above the bottom portion (12,112); wherein the bottom portion (12,112) defines a cavity (18,118), wherein the cavity (18,118) comprises a bottom cavity wall (17,117), cavity side walls (21,23,121,123), and a top portion of the cavity (18,118) having an upper cavity wall (19,119); an insert (24,130) located within the cavity (18,118) and attached to the upper cavity wall (19,119), the bottom cavity wall (17,117), and/or the cavity side walls (21,23,121,123), wherein the insert (24,130) is a load bearing element; and an insert cover attached over the insert, on a side of the insert (24,130) opposite the cavity (18,118), wherein the insert cover is a non-load bearing element, wherein the vehicle component is a lift gate which provides access to a rear of the vehicle or wherein the vehicle component is a front end module which provides access to a front of the vehicle, characterized in that the insert (24, 130) covers the cavity (18, 118) as a lid. a top portion (10,110), a bottom portion (12,112), a first side portion (14,114), and a second side portion (16,116), preferably wherein a window opening is located below the top portion (10,110) and above the bottom portion (12,112); wherein the bottom portion (12,112) defines a cavity (18,118), wherein the cavity (18,118) comprises a bottom cavity wall (17,117), cavity side walls (21,23,121,123), and a top portion of the cavity (18,118) having an upper cavity wall (19,119); an insert (24,130) located within the cavity (18,118) and attached to the upper cavity wall (19,119), the bottom cavity wall (17,117), and/or the cavity side walls (21,23,121,123), wherein the insert (24,130) is a load bearing element; and an insert cover attached over the insert, on a side of the insert (24,130) opposite the cavity (18,118), wherein the insert cover is a non-load bearing element, wherein the vehicle component is a lift gate which provides access to a rear of the vehicle or wherein the vehicle component is a front end module which provides access to a front of the vehicle, characterized in that the insert (24, 130) covers the cavity (18, 118) as a lid.
A surgical access assembly, comprising: an access member having proximal and distal ends, at least one lumen therethrough, and defining a longitudinal axis; a tissue engaging member including a membrane having proximal and distal ends (132a, 132b) with opposing openings, a length of the tissue engaging member being selectively adjustable by a user so as to provide a retraction force; a sleeve (140; 440) extending proximally from a portion of the membrane, the sleeve having a proximal end and a distal end with opposing openings, the distal end of the sleeve defined by a portion of the membrane; and the tissue engaging member has a passage therethrough for receipt of the access member and the sleeve having a passage therethrough to receive the access member and an adjustable fastening member (150; 250; 350) coupling the access member and sleeve which, in use, is tightened around the access member and sleeve to provide a secure coupling characterised in that the fastening member includes a grooved surface and a receiving member that securely engages the grooved surface. an access member having proximal and distal ends, at least one lumen therethrough, and defining a longitudinal axis; a tissue engaging member including a membrane having proximal and distal ends (132a, 132b) with opposing openings, a length of the tissue engaging member being selectively adjustable by a user so as to provide a retraction force; a sleeve (140; 440) extending proximally from a portion of the membrane, the sleeve having a proximal end and a distal end with opposing openings, the distal end of the sleeve defined by a portion of the membrane; and the tissue engaging member has a passage therethrough for receipt of the access member and the sleeve having a passage therethrough to receive the access member and an adjustable fastening member (150; 250; 350) coupling the access member and sleeve which, in use, is tightened around the access member and sleeve to provide a secure coupling characterised in that the fastening member includes a grooved surface and a receiving member that securely engages the grooved surface.
A power seat driving apparatus for a vehicle comprising: a moving unit (21, 22, 23, 24, 25, 26, 27) adapted to be arranged between a seat and a vehicle floor so as to move the seat relative to the vehicle floor; and a decelerating mechanism (3, 30, 300) connected to the moving unit so as to decelerate a driving force outputted by a power supply and transmit the decelerated driving force to the moving unit (21, 22, 23, 24, 25, 26, 27); wherein the decelerating mechanism (3, 30, 300) includes: a driving gear (51, 71); a driven gear (52, 72) engaging with the driving gear (51, 71) and driven to rotate while decelerating a rotational speed of the driving gear (51, 71); a supplemental gear (53, 54, 73) coaxially connected to the driven gear (52, 72) in an interlocking manner, made of a resin material having elasticity and lower rigidity than the driven gear (52, 72), having a larger tooth thickness than a tooth thickness of the driven gear (52, 72) by an amount corresponding to a backlash, and engaging the driving gear (51, 71) together with the driven gear (52, 72); and a housing accommodating and rotatably supporting the driving gear (51, 71), the driven gear (52, 72) and the supplemental gear (53, 54, 73). a moving unit (21, 22, 23, 24, 25, 26, 27) adapted to be arranged between a seat and a vehicle floor so as to move the seat relative to the vehicle floor; and a decelerating mechanism (3, 30, 300) connected to the moving unit so as to decelerate a driving force outputted by a power supply and transmit the decelerated driving force to the moving unit (21, 22, 23, 24, 25, 26, 27); wherein the decelerating mechanism (3, 30, 300) includes: a driving gear (51, 71); a driven gear (52, 72) engaging with the driving gear (51, 71) and driven to rotate while decelerating a rotational speed of the driving gear (51, 71); a supplemental gear (53, 54, 73) coaxially connected to the driven gear (52, 72) in an interlocking manner, made of a resin material having elasticity and lower rigidity than the driven gear (52, 72), having a larger tooth thickness than a tooth thickness of the driven gear (52, 72) by an amount corresponding to a backlash, and engaging the driving gear (51, 71) together with the driven gear (52, 72); and a housing accommodating and rotatably supporting the driving gear (51, 71), the driven gear (52, 72) and the supplemental gear (53, 54, 73). a driving gear (51, 71); a driven gear (52, 72) engaging with the driving gear (51, 71) and driven to rotate while decelerating a rotational speed of the driving gear (51, 71); a supplemental gear (53, 54, 73) coaxially connected to the driven gear (52, 72) in an interlocking manner, made of a resin material having elasticity and lower rigidity than the driven gear (52, 72), having a larger tooth thickness than a tooth thickness of the driven gear (52, 72) by an amount corresponding to a backlash, and engaging the driving gear (51, 71) together with the driven gear (52, 72); and a housing accommodating and rotatably supporting the driving gear (51, 71), the driven gear (52, 72) and the supplemental gear (53, 54, 73).
A method of bonding a first web of material to a second web of material to form a composite material, the method comprising the steps of: (a) providing a first web of material and a second web of material moving in a machine direction; (b) providing a first energy application device extending transverse in the cross-machine direction, the first energy application device including a primary bonding pattern and a secondary bonding pattern, wherein the primary bonding pattern in combination with the secondary bonding pattern extends continuously in the cross-machine direction; (c) providing a second energy application device, wherein the first energy application device comprises an anvil and the second energy application device comprises a rotary ultrasonic horn or the first energy application device comprises a rotary ultrasonic horn and the second energy application device comprises an anvil; and (d) moving the second energy application device in the cross-machine direction, and thereby extending the second energy application device over the first energy application device and operating the first and second energy application devices in combination and thereby applying energy to the first web of material and the second web of material at a line moving progressively across the first web of material and the second web of material to bond the first web of material to the second web of material characterised in that the primary bonding pattern comprises at least one row of discrete bars extending in the machine direction, wherein the discrete bars are spaced apart in the cross-machine direction, wherein the secondary bonding pattern provides support for the second energy application device where the discrete bars are spaced apart. (a) providing a first web of material and a second web of material moving in a machine direction; (b) providing a first energy application device extending transverse in the cross-machine direction, the first energy application device including a primary bonding pattern and a secondary bonding pattern, wherein the primary bonding pattern in combination with the secondary bonding pattern extends continuously in the cross-machine direction; (c) providing a second energy application device, wherein the first energy application device comprises an anvil and the second energy application device comprises a rotary ultrasonic horn or the first energy application device comprises a rotary ultrasonic horn and the second energy application device comprises an anvil; and (d) moving the second energy application device in the cross-machine direction,
An apparatus for monitoring EMG signals of a patient's laryngeal muscles, comprising: an endotracheal tube having an exterior surface; at least one electrode formed on the exterior surface in an electrode region of the endotracheal tube, the at least one electrode configured to receive the EMG signals from the laryngeal muscles when the endotracheal tube is placed in a trachea of the patient; and at least one tube placement marking (3902, 3904, 3906) positioned in the electrode region and configured to facilitate positioning of the at least one electrode within a patient, wherein the at least one tube placement marking includes at least one band (3902, 3904, 3906) that substantially surrounds a circumference of the endotracheal tube, and a vertical line segment that extends in a longitudinal direction along the at least one band, and wherein the at least one band comprises a plurality of solid color bands surrounding a circumference of the endotracheal tube. an endotracheal tube having an exterior surface; at least one electrode formed on the exterior surface in an electrode region of the endotracheal tube, the at least one electrode configured to receive the EMG signals from the laryngeal muscles when the endotracheal tube is placed in a trachea of the patient; and at least one tube placement marking (3902, 3904, 3906) positioned in the electrode region and configured to facilitate positioning of the at least one electrode within a patient, wherein the at least one tube placement marking includes at least one band (3902, 3904, 3906) that substantially surrounds a circumference of the endotracheal tube, and a vertical line segment that extends in a longitudinal direction along the at least one band, and wherein the at least one band comprises a plurality of solid color bands surrounding a circumference of the endotracheal tube.
An article comprising a multilayer structure, the multilayer structure comprising: (a) a first layer comprising a plurality of undercut features formed on and extending from an integral backing, wherein the first layer is formed of a polyolefin; (b) a second layer comprising an adhesive having a Shore D hardness of greater than 59 when cured, wherein the second layer is interlocked with the plurality of undercut features; and (c) a third layer comprising a substrate, wherein the third layer is adhered to the adhesive and wherein the second layer is disposed between the first layer and the third layer. (a) a first layer comprising a plurality of undercut features formed on and extending from an integral backing, wherein the first layer is formed of a polyolefin; (b) a second layer comprising an adhesive having a Shore D hardness of greater than 59 when cured, wherein the second layer is interlocked with the plurality of undercut features; and (c) a third layer comprising a substrate, wherein the third layer is adhered to the adhesive and wherein the second layer is disposed between the first layer and the third layer.
A method for producing [ 18 F]flutemetamol comprising the steps of: (a) reacting a compound represented by the following general formula with a radioactive fluoride to obtain a compound represented by the following general formula; (b) allowing a strong base to act on the reaction mixture of the step (a) containing the compound represented by the general formula and the compound represented by the general formula; (c) after the step (b), purifying the compound represented by the general formula using a reverse phase solid phase extraction cartridge; and (d) removing both protective groups (hydroxy and amine) by acid hydrolysis in the presence of water, an organic solvent or a mixture thereof, to obtain [ 18 F]flutemetamol. wherein R 1 is a protective group of hydroxy, and C R 2 represents a protective group of amino. wherein R 1 and R 2 have the same meaning as in the compound represented by the general formula. (a) reacting a compound represented by the following general formula with a radioactive fluoride to obtain a compound represented by the following general formula; (b) allowing a strong base to act on the reaction mixture of the step (a) containing the compound represented by the general formula and the compound represented by the general formula; (c) after the step (b), purifying the compound represented by the general formula using a reverse phase solid phase extraction cartridge; and (d) removing both protective groups (hydroxy and amine) by acid hydrolysis in the presence of water, an organic solvent or a mixture thereof, to obtain [ 18 F]flutemetamol.