mhurhangee/ep-ind-claims huggingface dataset:
A process for forming a lipid or a mixture of lipids from a starting material, which comprises at least one alcohol and a soap or a soap precursor, characterized by - adding a mineral salt of an alkaline earth metal to the starting material to transform the soap into a precipitate, whereby a mixture is formed, which contains an insoluble phase and a liquid phase, - separating the insoluble phase from the liquid phase to recover the precipitate, - contacting a lipid-producing microorganism with the liquid phase on a culturing substrate, whereby the microorganism cells begin producing lipid, and - collecting the lipids. - adding a mineral salt of an alkaline earth metal to the starting material to transform the soap into a precipitate, whereby a mixture is formed, which contains an insoluble phase and a liquid phase, - separating the insoluble phase from the liquid phase to recover the precipitate, - contacting a lipid-producing microorganism with the liquid phase on a culturing substrate, whereby the microorganism cells begin producing lipid, and - collecting the lipids.
A turbine static nozzle airfoil for a steam turbine comprising: a concave pressure wall having a slot extending therethrough; a convex suction wall adjoined with the concave pressure wall at respective end joints; and a pocket fluidly connected with the slot and located between the convex suction wall and the concave pressure wall, wherein at least one of the convex suction wall or the concave pressure wall includes a thinned segment proximate the end joint located at the trailing edge of the turbine static nozzle airfoil, the thinned segment configured to extend the pocket toward the trailing edge of the turbine static nozzle airfoil, wherein the thinned segment defines a neck within the pocket, the neck forming two sub-pockets (12A,12B) between the convex suction wall and the concave pressure wall, wherein the slot fluidly connects to the sub-pocket proximate a trailing edge of the two sub-pockets (12A,12B) a concave pressure wall having a slot extending therethrough; a convex suction wall adjoined with the concave pressure wall at respective end joints; and a pocket fluidly connected with the slot and located between the convex suction wall and the concave pressure wall, wherein at least one of the convex suction wall or the concave pressure wall includes a thinned segment proximate the end joint located at the trailing edge of the turbine static nozzle airfoil, the thinned segment configured to extend the pocket toward the trailing edge of the turbine static nozzle airfoil,
A photocurable coating composition for forming a low refractive layer, comprising two or more types of photopolymerizable compounds, a photoinitiator, a surface-treated hollow inorganic nanoparticle, and a surface-treated solid inorganic nanoparticle, wherein the surface-treated hollow inorganic nanoparticle is used in an amount of 150 to 250 parts by weight based on 100 parts by weight of the photopolymerizable compounds, wherein at least one photopolymerizable compound of the two or more types of photopolymerizable compounds is a compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R 1 is X is any one of hydrogen, a monovalent residue derived from an aliphatic hydrocarbon having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, and an alkoxycarbonyl group having 1 to 4 carbon atoms, Y is a single bond, -CO-, or -COO-, R 2 is a divalent residue derived from an aliphatic hydrocarbon having 1 to 20 carbon atoms, or a divalent residue in which at least one hydrogen of the divalent residue is substituted with a hydroxyl group, a carboxyl group, or an epoxy group, or a divalent residue in which at least one -CH 2 - of the divalent residue is replaced by -O-,-CO-O-, -O-CO-, or -O-CO-O- so that oxygen atoms are not directly connected thereto, A is any one of hydrogen and a monovalent residue derived from an aliphatic hydrocarbon having 1 to 6 carbon atoms, B is any one of a monovalent residue derived from an aliphatic hydrocarbon n is an integer of 0 to 2. wherein, in Chemical Formula 1, R 1 is X is any one of hydrogen, a monovalent residue derived from an aliphatic hydrocarbon having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, and an alkoxycarbonyl group having 1 to 4 carbon atoms, Y is a single bond, -CO-, or -COO-, R 2 is a divalent residue derived from an aliphatic hydrocarbon having 1 to 20 carbon atoms, or a divalent residue in which at least one hydrogen of the divalent residue is substituted with a hydroxyl group, a carboxyl group, or an epoxy group, or a divalent residue in which at least one -CH 2 - of the divalent residue is replaced by -O-,-CO-O-, -O-CO-, or -O-CO-O- so that oxygen atoms are not directly connected thereto, A is any one of hydrogen and a monovalent residue derived from an aliphatic hydrocarbon having 1 to 6 carbon atoms, B is any one of a monovalent residue derived from an aliphatic hydrocarbon n is an integer of 0 to 2.
A method for fabricating a ceramic casting mold using direct light processing, DLP, comprising: (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic casting mold is formed, the ceramic casting mold comprising: a core portion and a shell portion with at least one cavity between the core portion and the shell portion, the at least one cavity defining the shape of a cast component upon casting and removal of the ceramic casting mold, and a plurality of filaments joining the core portion and the shell portion where each filament spans between the core and shell and defines a hole in the cast component upon removal of the mold, wherein at least a portion of the plurality of filaments and/or the core portion is in the shape of a hollow tube. (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic casting mold is formed, the ceramic casting mold comprising: a core portion and a shell portion with at least one cavity between the core portion and the shell portion, the at least one cavity defining the shape of a cast component upon casting and removal of the ceramic casting mold, and a plurality of filaments joining the core portion and the shell portion where each filament spans between the core and shell and defines a hole in the cast component upon removal of the mold, wherein at least a portion of the plurality of filaments and/or the core portion is in the shape of a hollow tube. a core portion and a shell portion with at least one cavity between the core portion and the shell portion, the at least one cavity defining the shape of a cast component upon casting and removal of the ceramic casting mold, and a plurality of filaments joining the core portion and the shell portion where each filament spans between the core and shell and defines a hole in the cast component upon removal of the mold, wherein at least a portion of the plurality of filaments and/or the core portion is in the shape of a hollow tube.
A system comprising: a bus; multiple master modules connected to the bus, each comprising respective bus communication logic operable to initiate a transaction over the bus, the bus communication logic being configured to detect a busy state of the bus, and in response to refrain from initiating a transaction until the busy state is cleared; and a distributed reset sub-system comprising an instance of a reset mechanism at each respective one of a plurality of the master modules, the reset mechanism at each respective master module being configured to recognize a timeout condition indicative of the detected busy state being due to error, and to perform a staged reset in response to recognizing the timeout condition; wherein the staged reset first attempts a local reset which resets the respective bus communication logic of the respective master module, and if the local reset fails to clear the error, subsequently attempts one or more further resets to reset bus communication logic (10, 11) of one or more other modules (6, 8) connected to the bus. a bus; multiple master modules connected to the bus, each comprising respective bus communication logic operable to initiate a transaction over the bus, the bus communication logic being configured to detect a busy state of the bus, and in response to refrain from initiating a transaction until the busy state is cleared; and a distributed reset sub-system comprising an instance of a reset mechanism at each respective one of a plurality of the master modules, the reset mechanism at each respective master module being configured to recognize a timeout condition indicative of the detected busy state being due to error, and to perform a staged reset in response to recognizing the timeout condition; wherein the staged reset first attempts a local reset which resets the respective bus communication logic of the respective master module, and if the local reset fails to clear the error, subsequently attempts one or more further resets to reset bus communication logic (10, 11) of one or more other modules (6, 8) connected to the bus.
A communication method, characterized by comprising: receiving a physical broadcast channel, PBCH, from a network device; wherein PBCH is comprised in a synchronization signal burst set, SS burst set, and a period of the SS burst set is one of a plurality of periods; processing a transport block carried by the PBCH by descrambling, to obtain information bits of the PBCH, the descrambling is performed by using one of a plurality of segments of a pseudo-random sequence, wherein the one of a plurality of segments of the pseudo-random sequence implicitly indicates a part of bits of a system frame number of a radio system frame in which the PBCH is located, the part of bits includes only the 2 nd and 3 rd least significant bits of the system frame number; wherein: a length of the system frame number is 10 bits, the 2 nd least significant bit of the system frame number is a ninth bit of the system frame number, and the 3 rd least significant bit of the system frame number is an eighth bit of the system frame number; the information bits of the PBCH comprise the bits other than the 2 nd and 3 rd least significant bits of the system frame number of the radio system frame in which the PBCH is located; wherein: the PBCH corresponding to the system frame number is received on a first half-frame or a second half-frame of the radio system frame; the first half-frame or the second half-frame on which the PBCH is received is indicated by one bit of the PBCH. receiving a physical broadcast channel, PBCH, from a network device; wherein PBCH is comprised in a synchronization signal burst set, SS burst set, and a period of the SS burst set is one of a plurality of periods; processing a transport block carried by the PBCH by descrambling, to obtain information bits of the PBCH, the descrambling is performed by using one of a plurality of segments of a pseudo-random sequence, wherein the one of a plurality of segments of the pseudo-random sequence implicitly indicates a part of bits of a system frame number of a radio system frame in which the PBCH is located, the part of bits includes only the 2 nd and 3 rd least significant bits of the system frame number; wherein: a length of the system frame number is 10 bits, the 2 nd least significant bit of the system frame number is a ninth bit of the system frame number, and the 3 rd least significant bit of the system frame number is an eighth bit of the system frame number; the information bits of the PBCH comprise the bits other than the 2 nd and 3 rd least significant bits of the system frame number of the radio system frame in which the PBCH is located; wherein: the PBCH corresponding to the system frame number is received on a first half-frame or a second half-frame of the radio system frame; the first half-frame or the second half-frame on which the PBCH is received is indicated by one bit of the PBCH. the PBCH corresponding to the system frame number is received on a first half-frame or a second half-frame of the radio system frame; the first half-frame or the second half-frame on which the PBCH is received is indicated by one bit of the PBCH.
A vehicular airbag device comprising an airbag which opens an airbag door openably sealing an opening formed on an instrument panel, which deploys and expands rearward in a vehicle longitudinal direction from the opening toward an occupant sitting on a front seat of a vehicle, and which catches the occupant while being supported by the instrument panel, wherein an outer shape of the airbag when fully deployed and expanded is line-symmetrical with respect to a center line of the opening in a vehicle left-right width direction, and a width dimension (#WB) in the vehicle width direction at a rear edge position of the instrument panel in the vehicle longitudinal direction is greater than a width dimension (#WC) in the vehicle width direction at a center position of the opening in the vehicle longitudinal direction which is more forward in the vehicle longitudinal direction than the rear edge position of the instrument panel, characterized in that the width dimension (#WB) in the vehicle width direction at the rear edge position of the instrument panel and the width dimension (#WC) in the vehicle width direction at the center position of the opening in the vehicle longitudinal direction which is more forward in the vehicle longitudinal direction than the rear edge position of the instrument panel are both greater than a maximum width dimension in the vehicle width direction at a vertical section (#RL3) including an apex position of the airbag which is more rearward in the vehicle longitudinal direction than the rear edge position of the instrument panel.
A membrane carrier for a test kit for detecting a substance to be detected in a liquid sample, the membrane carrier comprising: a flow channel having a detection zone, wherein the flow channel has a rough structure A having protrusions, at least in the detection zone, a rough microstructure B is formed on a surface of the protrusion, a silane coupling agent is attached to a surface of the rough microstructure B, and a maximum peak height Rp of a roughness curve of the protrusion at which the rough microstructure B is formed, as measured according to JIS B0601: 2013 using a three-dimensional roughness analysis scanning electron microscope, is equal to or more than 0.005 μm and equal to or less than 10 μm, and an average length RSm of a roughness curve element is equal to or more than 0.01 μm and equal to or less than 15 μm. a flow channel having a detection zone, wherein the flow channel has a rough structure A having protrusions, at least in the detection zone, a rough microstructure B is formed on a surface of the protrusion, a silane coupling agent is attached to a surface of the rough microstructure B, and a maximum peak height Rp of a roughness curve of the protrusion at which the rough microstructure B is formed, as measured according to JIS B0601: 2013 using a three-dimensional roughness analysis scanning electron microscope, is equal to or more than 0.005 μm and equal to or less than 10 μm, and an average length RSm of a roughness curve element is equal to or more than 0.01 μm and equal to or less than 15 μm.
A location pad, comprising: multiple field-generators (36A, 36B, 36C, 36D), which are configured to generate respective magnetic fields in a region-of-interest of a patient body, for measuring a position of a medical instrument in the region-of-interest; a frame, which is configured to fix the multiple field-generators (36A, 36B, 36C, 36D) at respective positions surrounding the region-of-interest, wherein the frame is open on at least one side of the region-of-interest; and wherein at least one of the field-generators comprises three non-concentric coils (62, 64, 66) that are arranged in a single plane, wherein the non-concentric coils are oriented along three mutually-orthogonal axes, and characterized in that at least two of the non-concentric coils (64, 66) are arranged side-by-side in the single plane, and wherein a third coil is located around the at least two non-concentric coils. multiple field-generators (36A, 36B, 36C, 36D), which are configured to generate respective magnetic fields in a region-of-interest of a patient body, for measuring a position of a medical instrument in the region-of-interest; a frame, which is configured to fix the multiple field-generators (36A, 36B, 36C, 36D) at respective positions surrounding the region-of-interest, wherein the frame is open on at least one side of the region-of-interest; and wherein at least one of the field-generators comprises three non-concentric coils (62, 64, 66) that are arranged in a single plane, wherein the non-concentric coils are oriented along three mutually-orthogonal axes, and characterized in that at least two of the non-concentric coils (64, 66) are arranged side-by-side in the single plane, and wherein a third coil is located around the at least two non-concentric coils.
A sensor unit actuating mechanism comprising: a frame disposed around an object to be measured; a sensor unit comprising a sensor for measuring a physical quantity from the object to be measured, the sensor unit disposed inside the frame; a guide member configured to guide the sensor unit to move in an X direction linearly, the X direction being a direction from inside the frame to a measurement position; a spring member configured to expand or contract in a first Y direction, the spring member having one end fixed to the sensor unit and the other end fixed to the frame; and an actuator (5, 15) configured to expand or contract in a second Y direction, the actuator (5, 15) disposed to move the sensor unit when the actuator (5, 15) is energized to contract, the first and second Y directions being a direction having an angle of 45 to 135 degrees or -45 to -135 degrees relative to the X direction and non-parallel to each other, wherein the sensor unit is linearly moved from inside the frame to the measurement position in the X direction by energizing the actuator to contract against resilience of the spring. a frame disposed around an object to be measured; a sensor unit comprising a sensor for measuring a physical quantity from the object to be measured, the sensor unit disposed inside the frame; a guide member configured to guide the sensor unit to move in an X direction linearly, the X direction being a direction from inside the frame to a measurement position; a spring member configured to expand or contract in a first Y direction, the spring member having one end fixed to the sensor unit and the other end fixed to the frame; and an actuator (5, 15) configured to expand or contract in a second Y direction, the actuator (5, 15) disposed to move the sensor unit when the actuator (5, 15) is energized to contract, the first and second Y directions being a direction having an angle of 45 to 135 degrees or -45 to -135 degrees relative to the X direction and non-parallel to each other, wherein the sensor unit is linearly moved from inside the frame to the measurement position in the X direction by energizing the actuator to contract against resilience of the spring.
A communication device, comprising: a processor configured to receive an indication of a first signal power of a first base station and a second signal power of a second base station; and characterized by a channel estimation module, implemented at least in part in circuitry, configured to compute an estimate of a channel from the first and second base stations (102, 104) based at least in part on a transmit precoder scaled according to the indication of the first signal power and the indication of the second signal power. a processor configured to receive an indication of a first signal power of a first base station and a second signal power of a second base station; and characterized by a channel estimation module, implemented at least in part in circuitry, configured to compute an estimate of a channel from the first and second base stations (102, 104) based at least in part on a transmit precoder scaled according to the indication of the first signal power and the indication of the second signal power.
A tip section of a multi-camera endoscope, the tip section comprising: a front looking camera and a front discrete illuminator (240a, 240b, 240c) to essentially illuminate the Field Of View of said front looking camera; a right side looking camera and a right discrete illuminator to essentially illuminate the FOV of said right side looking camera; a left side looking camera and a left discrete illuminator (250a, 250b) to essentially illuminate the FOV of said left side looking camera; and, a multi component cover configured to cover and seal said tip section such as to essentially prevent entry of fluids from the environment of said endoscope to inner parts of said tip section, wherein the tip section is characterised in that said multi component cover comprises a first and a second part, the first part comprising a front-side component configured to cover a front part and a first side part of said tip section; and the second part comprising a side component configured to cover a second side part, opposite said first side part, of said tip section, wherein said front-side component and said side component are configured to abut to cover said tip section. a front-side component configured to cover a front part and a first side part of said tip section; and the second part comprising a side component configured to cover a second side part, opposite said first side part, of said tip section, wherein said front-side component and said side component are configured to abut to cover said tip section.