mhurhangee/ep-ind-claims huggingface dataset:
A method for transforming data into frequency data to be processed by a computer device, the method comprising: detecting, by a sensor of a sensor device located on a location of a machine, acceleration forces caused by a vibration being experienced at the location of the machine; and transforming, by a processor of the sensor device, the acceleration forces into sensor data represented in a time domain; and further comprising transforming, by the processor of the sensor device, the sensor data represented in the time domain into spectrum data represented in a frequency domain, wherein the sensor and the processor are embedded on a same printed circuit board of the sensor device such that the sensor and the processor are located on the location of the machine; executing, by the processor of the sensor device, a spectrum analysis on the spectrum data; generating, by the processor of the sensor device, a packet that comprises a result of the spectrum analysis as a payload of the packet, wherein a format of the packet is based on a protocol of a serial communication link between the sensor device and the computer device; and sending, by the processor of the sensor device, the packet comprising the result of the spectrum analysis to the computer device through the serial communication link, wherein the result of the spectrum analysis indicates that a frequency that corresponds to a frequency bin with a largest amplitude among the spectrum data is identified for operating a tuned mass damper. detecting, by a sensor of a sensor device located on a location of a machine, acceleration forces caused by a vibration being experienced at the location of the machine; and transforming, by a processor of the sensor device, the acceleration forces into sensor data represented in a time domain; and further comprising transforming, by the processor of the sensor device, the sensor data represented in the time domain into spectrum data represented in a frequency domain, wherein the sensor and the processor are embedded on a same printed circuit board of the sensor device such that the sensor and the processor are located on the location of the machine; executing, by the processor of the sensor device, a spectrum analysis on the spectrum data; generating, by the processor of the sensor device, a packet that comprises a result of the spectrum analysis as a payload of the packet, wherein a format of the packet is based on a protocol of a serial communication link between the sensor device and the computer device; and sending, by the processor of the sensor device, the packet comprising the result of the spectrum analysis to the computer device through the serial communication link, wherein the result of the spectrum analysis indicates that a frequency that corresponds to a frequency bin with a largest amplitude among the spectrum data is identified for operating a tuned mass damper.
A re-dissolvable mortar consolidation comprising: a hydraulic inorganic cementitious material, an aggregate, a soluble binding agent, and at least one optional additional component selected from the group consisting of an admixture, an additive and a fiber; the soluble binding agent binds the hydraulic inorganic cementitious material, the aggregate and the additional component into a whole; wherein the content of the soluble binding agent in the mortar consolidation is greater than 0 wt% and no greater than 1.5 wt%, based on the total weight of the mortar consolidation; the soluble binding agent is water-soluble and is soluble in at least one organic solvent selected from the group consisting of ketones, alcohols, amines, amides, aliphatic hydrocarbon, aromatic hydrocarbon, halogenated hydrocarbon, nitriles, ethers, aldehydes, sulfones, phenols and esters.
A storage part structure of a saddle-ride-type vehicle comprising: a head pipe; a main frame which extends rearward from the head pipe; a storage box which is arranged in the vicinity of the main frame in a state where the storage box opens upward; and a box lid which covers an opening portion of the upwardly openable storage box in an openable and closable manner, a key cylinder which operates a box-side locking mechanism for locking the box lid is arranged behind a handle holder and in front of the storage box, and the box lid includes an arm portion positioned on a side of the key cylinder, characterised in that the box lid includes a lower-side box lid which covers the opening portion of the storage box, and a plate-like upper-side box lid which covers the lower-side box lid from above, wherein the lower-side box lid includes: a lid base which is brought into contact with an upper edge portion of the storage box and directly covers the opening portion; and a lid cover which is mounted on an upper surface of the lid base, wherein a hinge mechanism is mounted on a rear end portion of the lid base, wherein the arm portion is formed on the upper-side box lid, and further includes a recessed portion (135, 125) formed in the upper-side box lid thus forming a bag mounting hole, wherein the bag mounting hole is formed so as to allow air to flow toward an inside in a vehicle width direction from an outside in a vehicle width direction and rearward.
A RFID label (100,100') comprising: a combined structure comprising an RFID component layer and an inductive component layer separated by and placed on opposite sides of a dielectric substrate; the RFID component layer comprising an antenna segment having a first antenna segment and a second antenna segment, an integrated circuit located along the first antenna segment, a first capacitor segment attached to the first and second antenna segments (112b, 112a), and a second capacitor segment attached to the first and second antenna segments (112b, 112a), with the first capacitor segment being located on opposite distal ends of the antenna segment from the second capacitor segment; the inductive component layer having a first capacitor segment and a second capacitor segment being joined by a trace; the first capacitor segment of the inductive component layer aligning and coupling with the first capacitor segment of the RFID component layer, thereby forming a first capacitor assembly; the second capacitor segment of the inductive component layer aligning and coupling with the second capacitor segment of the RFID component layer, thereby forming a second capacitor assembly; the first and second capacitor assembly coupling the RFID component layer and the inductive component layer; the combined structure adhered to a spacer layer; wherein the antenna segment radiates a plane wave when the combined structure is coupled to a ground plane via the spacer layer. a combined structure comprising an RFID component layer and an inductive component layer separated by and placed on opposite sides of a dielectric substrate; the RFID component layer comprising an antenna segment having a first antenna segment and a second antenna segment, an integrated circuit located along the first antenna segment, a first capacitor segment attached to the first and second antenna segments (112b, 112a), and a second capacitor segment attached to the first and second antenna segments (112b, 112a), with the first capacitor segment being located on opposite distal ends of the antenna segment from the second capacitor segment; the inductive component layer having a first capacitor segment and a second capacitor segment being joined by a trace; the first capacitor segment of the inductive component layer aligning and coupling with the first capacitor segment of the RFID component layer, thereby forming a first capacitor assembly; the second capacitor segment of the inductive component layer aligning and coupling with the second capacitor segment of the RFID component layer, thereby forming a second capacitor assembly; the first and second capacitor assembly coupling the RFID component layer and the inductive component layer; the combined structure adhered to a spacer layer; wherein the antenna segment radiates a plane wave when the combined structure is coupled to a ground plane via the spacer layer.
A method for stabilizing the potency of a LP2086 (fHBP) Subfamily A polypeptide and a LP2086 (fHBP) Subfamily B polypeptide in an immunogenic composition by storing the LP2086 (fHBP) Subfamily A polypeptide and the LP2086 (fHBP) Subfamily B polypeptide in a buffer with between about 0.1 mg/ml and about 1 mg/ml aluminum and a molar ratio of detergent to protein of between about 0.5:1 and about 10:1, wherein the immunogenic composition does not include further active immunogens.
Sliding element guide system (43, 56, 58, 65, 68) for an item of furniture or for a domestic appliance, for example for a kitchen apparatus, wherein the sliding element guide system has a cabinet unit rail, a central rail, and a sliding element rail, wherein the sliding element guide system has a carriage (20, 21) such that the cabinet unit rail, the central rail, and the sliding element rail are mounted so as to be movable in relation to one another, wherein the sliding element guide system comprises synchronization means so as to synchronize movements of elements (17 - 21) of the sliding element guide system, wherein the synchronization means have a synchronization element, wherein two identical synchronization elements are present on the central rail, wherein the synchronization elements are rotatably disposed on the central rail, wherein the synchronization elements are disposed so as to be mutually opposite and mutually spaced apart on both sides of the central rail, characterized in that the synchronization elements are configured on mutually opposite end sides of the central rail or on mutually opposite external sides (44, 45) of the central rail.
Use of an excipient selected from the group consisting of creatine, creatinine, carnitine and mixtures thereof to reduce the viscosity of an aqueous liquid pharmaceutical solution suitable for parenteral administration, said solution comprising a therapeutic protein at a concentration of at least 70 mg/ml.
An exhaust gas purification apparatus of an internal combustion engine comprising: a catalyst carrier that is provided with electrodes (61a, 61b); a case that has said catalyst carrier accommodated therein; a mat member that is arranged between said catalyst carrier and said case; a through-hole (63a, 63b) that extends from said catalyst carrier to said case while passing through said mat member; and electrode terminals (64a, 64b) that are accommodated in said through-hole (63a, 63b) for supplying electric power to said electrodes (61a, 61b); characterized by further comprising a pressure supply unit (66, 67) that supplies a positive pressure to said through-hole (63a, 63b). a catalyst carrier that is provided with electrodes (61a, 61b); a case that has said catalyst carrier accommodated therein; a mat member that is arranged between said catalyst carrier and said case; a through-hole (63a, 63b) that extends from said catalyst carrier to said case while passing through said mat member; and electrode terminals (64a, 64b) that are accommodated in said through-hole (63a, 63b) for supplying electric power to said electrodes (61a, 61b); characterized by further comprising a pressure supply unit (66, 67) that supplies a positive pressure to said through-hole (63a, 63b).
A method for producing cells with a hepatic stellate cell phenotype, comprising: a. culturing pluripotent cells with 1 ng/ml to 200 ng/ml BMP4; b. then culturing the cells obtained after step (a) with 1 ng/ml to 200 ng/ml FGF1 and 1 ng/ml to 200 ng/ml FGF3; c. then cuituring the ceiis obtained after step (b) with 0.5 μM to 50 μM retinol and 10 μM to 1 mM palmitic acid; and d. isolating hepatic stellate cells produced by the differentiation protocol of steps (a) to (c). a. culturing pluripotent cells with 1 ng/ml to 200 ng/ml BMP4; b. then culturing the cells obtained after step (a) with 1 ng/ml to 200 ng/ml FGF1 and 1 ng/ml to 200 ng/ml FGF3; c. then cuituring the ceiis obtained after step (b) with 0.5 μM to 50 μM retinol and 10 μM to 1 mM palmitic acid; and d. isolating hepatic stellate cells produced by the differentiation protocol of steps (a) to (c).
An image processing apparatus comprising: difficulty calculation means for calculating a degree of detection difficulty indicating a degree of difficulty in detection of a target cell contained in a sample, on the basis of the evenness of the thickness of the sample, the staining degree of a nucleus contained in the sample, and/or a content percentage of white blood cells in a sample as a ratio of pixels whose color is lighter than a predetermined density in a captured image of the sample; and setting means for setting a detection parameter on a process of the detection of the target cell from the captured image of the sample, on the basis of the degree of detection difficulty, wherein the detection parameter includes information for defining a setting condition for setting determination target areas on which determination as to whether or not the captured image contains a target cell area is made. difficulty calculation means for calculating a degree of detection difficulty indicating a degree of difficulty in detection of a target cell contained in a sample, on the basis of the evenness of the thickness of the sample, the staining degree of a nucleus contained in the sample, and/or a content percentage of white blood cells in a sample as a ratio of pixels whose color is lighter than a predetermined density in a captured image of the sample; and setting means for setting a detection parameter on a process of the detection of the target cell from the captured image of the sample, on the basis of the degree of detection difficulty, wherein the detection parameter includes information for defining a setting condition for setting determination target areas on which determination as to whether or not the captured image contains a target cell area is made.
A pharmaceutical composition in the form of a solution for administration to the inner ear, designed for changing the sensory perception of an animal, including a human, comprising a serotype 5 adenoviral vector comprising a nucleic acid sequence encoding a human atonal homolog 1 (Hath1) protein operably linked to a promoter that functions in supporting cells of the inner ear, wherein the nucleic acid sequence is expressed to produce the Hath1 protein resulting in generation of sensory hair cells that allow perception of stimuli in the inner ear, and wherein the adenoviral vector comprises (i) a deletion of the E1 region of the serotype 5 adenoviral genome, (ii) a deletion of the E3 region of the serotype 5 adenoviral genome, and (iii) a deletion of the E4 region of the serotype 5 adenoviral genome.
A compound having the formula or combinations thereof, for use in the treatment or prevention of an allergic disorder, wherein R 1, R 2, R 3, R 4, R 5 and R 6 are independently, a long chain fatty acid having between 16 and 20 carbons.
A propulsion system comprising: a pressurized gas source (120,140); and a multinozzle grid plate (124, 144) operatively coupled to the pressurized gas source, wherein the multinozzle grid plate is substantially cylindrical, having major surfaces (170 and 171); wherein the multinozzle grid plate has plural convergent-divergent nozzles therein that are canted nozzles, angled relative to the major surfaces of the multinozzle grid plate; wherein the nozzles are arranged in a series of rows that are axially separated from each other at different axial distances along an axis of the multinozzle grid plate; and wherein pressurized gas from the pressurized gas source is ejected from the nozzles of the multinozzle grid plate. a pressurized gas source (120,140); and a multinozzle grid plate (124, 144) operatively coupled to the pressurized gas source, wherein the multinozzle grid plate is substantially cylindrical, having major surfaces (170 and 171); wherein the multinozzle grid plate has plural convergent-divergent nozzles therein that are canted nozzles, angled relative to the major surfaces of the multinozzle grid plate; wherein the nozzles are arranged in a series of rows that are axially separated from each other at different axial distances along an axis of the multinozzle grid plate; and wherein pressurized gas from the pressurized gas source is ejected from the nozzles of the multinozzle grid plate.
A negative pressure wound therapy (NPWT) dressing comprising a backing layer, an adhesive skin contact layer and an absorbent structure arranged between said backing layer and said adhesive skin contact layer; said adhesive skin contact layer being configured to detachably adhere the dressing to a dermal surface, wherein said backing layer comprises a coupling member comprising a tubing configured to connect the dressing to a negative pressure source and to a remote fluid collection means, characterized in that the dressing comprises a liquid spreading layer arranged between said absorbent structure and said backing layer wherein said backing layer and at least a portion of said absorbent structure comprises an opening; said opening being arranged underneath said coupling member, wherein said liquid spreading layer is void of an opening.
A method for sealing and flushing a delivery member associated with a handle assembly, the delivery member including: a guidewire tube having a guidewire lumen; a suture catheter which receives the guidewire tube, the suture catheter having at least one suture lumen for receiving a suture that connects the handle assembly to an interventional device at a distal end of the delivery member; a delivery catheter disposed about both the suture catheter and the guidewire tube; and an outer sheath disposed about the delivery catheter, the handle assembly comprising: a suture catheter holder having a passageway therethrough, a proximal end of the suture catheter being disposed within the passageway in the suture catheter holder; a flush block associated with the suture catheter holder, the flush block having a flush port and a flush chamber, the flush chamber being in fluid communication with the flush port and the passageway in the suture catheter holder; and a gasket assembly closing off a proximal end of the flush chamber, the guidewire tube and the suture passing through the gasket assembly, and the method comprising: sealing the guidewire lumen of the guidewire tube; sealing the at least one suture lumen of the suture catheter; sealing the delivery catheter; sealing the outer sheath; and flushing a fluid from the guidewire lumen, the at least one suture lumen, a lumen associated with the delivery catheter, and a lumen of the outer sheath. a guidewire tube having a guidewire lumen; a suture catheter which receives the guidewire tube, the suture catheter having at least one suture lumen for receiving a suture that connects the handle assembly to an interventional device at a distal end of the delivery member; a delivery catheter disposed about both the suture catheter and the guidewire tube; and an outer sheath disposed about the delivery catheter, a suture catheter holder having a passageway therethrough, a proximal end of the suture catheter being disposed within the passageway in the suture catheter holder; a flush block associated with the suture catheter holder, the flush block having a flush port and a flush chamber, the flush chamber being in fluid communication with the flush port and the passageway in the suture catheter holder; and a gasket assembly closing off a proximal end of the flush chamber, the guidewire tube and the suture passing through the gasket assembly, and sealing the guidewire lumen of the guidewire tube; sealing the at least one suture lumen of the suture catheter; sealing the delivery catheter; sealing the outer sheath; and flushing a fluid from the guidewire lumen, the at least one suture lumen, a lumen associated with the delivery catheter, and a lumen of the outer sheath.
A method performed by a first wireless communication device (205; 305), the method comprising: obtaining data for a transmission to a second wireless communication device; including one or more medium access control, MAC, data units in a physical, PHY, frame, wherein the one or more MAC data units encapsulate the data; determining a length of a MAC layer pad (420a, 420b) based on a number of symbols associated with the PHY frame, wherein the MAC layer pad includes a MAC pad; including, in response to the length of the MAC layer pad being greater than zero, the MAC layer pad in the PHY frame after the one or more MAC data units; determining a length of a PHY layer pad (425a, 425b, 425c) based on remaining available bits in the PHY frame; including, in response to the length of the PHY layer pad being greater than zero, the PHY layer pad in the PHY frame after the MAC layer pad; and transmitting the PHY frame to the second wireless communication device; characterized in that the MAC layer pad further includes one or more padding delimiters, wherein the one or more padding delimiters include an end-of-frame flag to inform the second communication device to stop receiving a remaining portion of the PHY frame. obtaining data for a transmission to a second wireless communication device; including one or more medium access control, MAC, data units in a physical, PHY, frame, wherein the one or more MAC data units encapsulate the data; determining a length of a MAC layer pad (420a, 420b) based on a number of symbols associated with the PHY frame, wherein the MAC layer pad includes a MAC pad; including, in response to the length of the MAC layer pad being greater than zero, the MAC layer pad in the PHY frame after the one or more MAC data units; determining a length of a PHY layer pad (425a, 425b, 425c) based on remaining available bits in the PHY frame; including, in response to the length of the PHY layer pad being greater than zero, the PHY layer pad in the PHY frame after the MAC layer pad; and transmitting the PHY frame to the second wireless communication device; characterized in that the MAC layer pad further includes one or more padding delimiters, wherein the one or more padding delimiters include an end-of-frame flag to inform the second communication device to stop receiving a remaining portion of the PHY frame.
A transition device comprising a mode transformer between a conductive strip line integrated into a printed circuit board, and a rectangular waveguide, characterized in that the board comprises a housing containing the waveguide having a large sidewall (31 s) coplanar and coaxial to the strip of the line and another large sidewall (31 i) fixed onto a portion of a metallic layer of the board at the bottom of the housing, and the device comprises a gap bridged by a linking metallic element and located between the mode transformer and the said large sidewall of the waveguide coplanar and coaxial to the strip of the line.