mhurhangee/ep-ind-claims huggingface dataset:
A rotary molding machine comprising: first and second molds (3b, 3c); a camshaft; and a cam track member, wherein the first and second molds (3b, 3c) and the camshaft are configured to rotate around a revolving axis, the cam track member has a cam track, the camshaft is configured to move along the cam track as the first and second molds (3b, 3c) and the camshaft rotates, the first and second molds (3b, 3c) are configured to open and close as the camshaft moves, and an angle between a first axial direction and a second axial direction is 45 degrees or less, the first axial direction is a longitudinal direction of the camshaft when the first and second molds (3b, 3c) are closed, the second axial direction is the longitudinal direction of the camshaft when the first and second molds (3b, 3c) are most opened, characterized in that the first and second molds (3b, 3c) are configured to open and close by transmitting movement of the camshaft to the first and second molds (3b, 3c) through a gear mechanism. first and second molds (3b, 3c); a camshaft; and a cam track member, wherein the first and second molds (3b, 3c) and the camshaft are configured to rotate around a revolving axis, the cam track member has a cam track, the camshaft is configured to move along the cam track as the first and second molds (3b, 3c) and the camshaft rotates, the first and second molds (3b, 3c) are configured to open and close as the camshaft moves, and an angle between a first axial direction and a second axial direction is 45 degrees or less, the first axial direction is a longitudinal direction of the camshaft when the first and second molds (3b, 3c) are closed, the second axial direction is the longitudinal direction of the camshaft when the first and second molds (3b, 3c) are most opened, the first axial direction is a longitudinal direction of the camshaft when the first and second molds (3b, 3c) are closed, the second axial direction is the longitudinal direction of the camshaft when the first and second molds (3b, 3c) are most opened, characterized in that the first and second molds (3b, 3c) are configured to open and close by transmitting movement of the camshaft to the first and second molds (3b, 3c) through a gear mechanism.
A solid solution pharmaceutical composition comprising: a) one or more propionic acid derivative non-steroidal anti-inflammatory drugs (NSAIDs) comprising 5% to 55% by weight of the pharmaceutical composition; b) one or more room temperature solid lipids that are solid at 20°C comprising 30% to 75% by weight of the pharmaceutical composition, the one or more room temperature solid lipids having a melting point of 40°C to 50°C and comprise one or more glycerolipids, wherein the one or more glycerolipids comprise a triglyceride with one saturated or unsaturated fatty acid having a carbon length of C 12 -C 24, two saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24, or three saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24; c) one or more room temperature liquid lipids that are liquid at 20°C comprising 8% to 30% by weight of the pharmaceutical composition, the one or more room temperature liquid lipids comprising a mixture of one or more partially hydrolyzed fats; d) one or more stabilizing agents, the one or more stabilizing agents comprising a liquid PEG polymer, wherein the solid solution pharmaceutical composition has a melting point of 30°C or higher. a) one or more propionic acid derivative non-steroidal anti-inflammatory drugs (NSAIDs) comprising 5% to 55% by weight of the pharmaceutical composition; b) one or more room temperature solid lipids that are solid at 20°C comprising 30% to 75% by weight of the pharmaceutical composition, the one or more room temperature solid lipids having a melting point of 40°C to 50°C and comprise one or more glycerolipids, wherein the one or more glycerolipids comprise a triglyceride with one saturated or unsaturated fatty acid having a carbon length of C 12 -C 24, two saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24, or three saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24; c) one or more room temperature liquid lipids that are liquid at 20°C comprising 8% to 30% by weight of the pharmaceutical composition, the one or more room temperature liquid lipids comprising a mixture of one or more partially hydrolyzed fats; d) one or more stabilizing agents, the one or more stabilizing agents comprising a liquid PEG polymer,
A camera comprising: an image pickup unit for receiving an optical signal of an object to be photographed, for converting the optical signal to an electric signal, and outputting the electric signal; and a timing generator for outputting a timing signal used to reset the image pickup unit; a signal processor for converting the electric signal output from the image pickup unit to an image signal; a storage unit for storing the image signal, and a controller for controlling the image pickup unit and writing the image signal onto the storage unit; wherein the controller is arranged to: stop writing the image signal onto the storage unit and to start a pre-set delay time when velocity information of the object derived from the electric signal is greater than or equal to a pre-set velocity and/or facial pattern information derived from the electric signal comprises pre-set facial pattern information, and to output the timing signal after the pre-set delay time, thereby resetting the image pickup unit and restarting converting the optical signal of the object after the pre-set delay time. an image pickup unit for receiving an optical signal of an object to be photographed, for converting the optical signal to an electric signal, and outputting the electric signal; and a timing generator for outputting a timing signal used to reset the image pickup unit; a signal processor for converting the electric signal output from the image pickup unit to an image signal; a storage unit for storing the image signal, and a controller for controlling the image pickup unit and writing the image signal onto the storage unit; wherein the controller is arranged to: stop writing the image signal onto the storage unit and to start a pre-set delay time when velocity information of the object derived from the electric signal is greater than or equal to a pre-set velocity and/or facial pattern information derived from the electric signal comprises pre-set facial pattern information, and to output the timing signal after the pre-set delay time, thereby resetting the image pickup unit and restarting converting the optical signal of the object after the pre-set delay time.
A header configured for coupling to a feeder housing of an agricultural vehicle, the header including: a flexible cutter bar, and at least one endless belt positioned rearwardly of the flexible cutter bar and configured to travel in a direction of travel for transporting a crop material to the feeder housing, said at least one endless belt including: a first belt having a first width transverse to said direction of travel; and a second belt having a second width transverse to said direction of travel and a front edge, said second belt including: a plurality of elongated protrusions transverse to said direction of travel and configured for contacting the crop material; characterized in that said second belt is movably attached to the first belt and includes an engaging feature adjacent to the front edge configured for moving the second belt in accordance with said flexible cutter bar. a flexible cutter bar, and at least one endless belt positioned rearwardly of the flexible cutter bar and configured to travel in a direction of travel for transporting a crop material to the feeder housing, said at least one endless belt including: a first belt having a first width transverse to said direction of travel; and a second belt having a second width transverse to said direction of travel and a front edge, said second belt including: a plurality of elongated protrusions transverse to said direction of travel and configured for contacting the crop material; characterized in that said second belt is movably attached to the first belt and includes an engaging feature adjacent to the front edge configured for moving the second belt in accordance with said flexible cutter bar. a first belt having a first width transverse to said direction of travel; and a second belt having a second width transverse to said direction of travel and a front edge, said second belt including: a plurality of elongated protrusions transverse to said direction of travel and configured for contacting the crop material; characterized in that said second belt is movably attached to the first belt and includes an engaging feature adjacent to the front edge configured for moving the second belt in accordance with said flexible cutter bar. a plurality of elongated protrusions transverse to said direction of travel and configured for contacting the crop material; characterized in that said second belt is movably attached to the first belt and includes an engaging feature adjacent to the front edge configured for moving the second belt in accordance with said flexible cutter bar.
A display apparatus comprising: a wireless/optical interface arranged to perform one of wireless communication and optical communication with a wireless external apparatus; a power supply unit arranged to supply power to the wireless/optical interface; a user interface through which an external apparatus (200, 10, 20, 30, 40) is selected; and a controller arranged to control power supply from the power supply unit to the wireless/optical interface of the display apparatus, wherein the controller is arranged to supply power to the wireless/optical interface when a said wireless external apparatus is selected, and the controller is arranged to not supply power to the wireless/optical interface when no wireless external apparatus is selected. a wireless/optical interface arranged to perform one of wireless communication and optical communication with a wireless external apparatus; a power supply unit arranged to supply power to the wireless/optical interface; a user interface through which an external apparatus (200, 10, 20, 30, 40) is selected; and a controller arranged to control power supply from the power supply unit to the wireless/optical interface of the display apparatus, wherein the controller is arranged to supply power to the wireless/optical interface when a said wireless external apparatus is selected, and the controller is arranged to not supply power to the wireless/optical interface when no wireless external apparatus is selected.
An infrared thermographic inspection system (250, 650) for inspection of a unitized composite structure (100, 200, 500, 600) comprising at least a first frame (220, 520, 620) and a second frame (222, 522, 622), which are spaced apart by a distance, and wherein each frame has an edge, the system comprising: a thermography camera (270, 570, 670); one or more lights (280, 680); and, a carriage (260, 360, 361, 362, 660) comprising, a carriage body, wherein the thermography camera (270, 570) and the one or more lights (280, 680) are secured to the carriage body, a first support disposed on the carriage body, and a second support disposed on the carriage body, wherein the first support and the second support are spaced apart at a distance for the first support to rest on the edge of the first frame (220, 520, 620) and the second support to rest on the edge of the second frame (222, 522, 622) of the unitized composite structure (100, 200, 500, 600). a thermography camera (270, 570, 670); one or more lights (280, 680); and, a carriage (260, 360, 361, 362, 660) comprising, a carriage body, wherein the thermography camera (270, 570) and the one or more lights (280, 680) are secured to the carriage body, a first support disposed on the carriage body, and a second support disposed on the carriage body, wherein the first support and the second support are spaced apart at a distance for the first support to rest on the edge of the first frame (220, 520, 620) and the second support to rest on the edge of the second frame (222, 522, 622) of the unitized composite structure (100, 200, 500, 600). a carriage body, wherein the thermography camera (270, 570) and the one or more lights (280, 680) are secured to the carriage body, a first support disposed on the carriage body, and a second support disposed on the carriage body, wherein the first support and the second support are spaced apart at a distance for the first support to rest on the edge of the first frame (220, 520, 620) and the second support to rest on the edge of the second frame (222, 522, 622) of the unitized composite structure (100, 200, 500, 600).
A patient therapy system for delivering spinal cord stimulation, comprising: a pulse generator configured to deliver an electrical therapy signal to a patient; a power source; a processor operatively coupled to the pulse generator and programmed with instructions for delivering the electrical therapy signal that, when executed: receive an input corresponding to an available voltage, obtained from the power source, for the pulse generator; identify a value of a signal delivery parameter of an electrical therapy signal based on a correlation between values of signal delivery amplitudes and values of pulse width or duty cycle, wherein the identified value of the signal delivery parameter is increased in response to a decrease in the available voltage; and direct the pulse generator to deliver the electrical therapy signal at the identified signal delivery parameter value using a voltage within a margin of the available voltage. a pulse generator configured to deliver an electrical therapy signal to a patient; a power source; a processor operatively coupled to the pulse generator and programmed with instructions for delivering the electrical therapy signal that, when executed: receive an input corresponding to an available voltage, obtained from the power source, for the pulse generator; identify a value of a signal delivery parameter of an electrical therapy signal based on a correlation between values of signal delivery amplitudes and values of pulse width or duty cycle, wherein the identified value of the signal delivery parameter is increased in response to a decrease in the available voltage; and direct the pulse generator to deliver the electrical therapy signal at the identified signal delivery parameter value using a voltage within a margin of the available voltage. receive an input corresponding to an available voltage, obtained from the power source, for the pulse generator; identify a value of a signal delivery parameter of an electrical therapy signal based on a correlation between values of signal delivery amplitudes and values of pulse width or duty cycle, wherein the identified value of the signal delivery parameter is increased in response to a decrease in the available voltage; and direct the pulse generator to deliver the electrical therapy signal at the identified signal delivery parameter value using a voltage within a margin of the available voltage.
A frequency synthesiser for synthesising frequencies with reduced noise, the synthesiser comprising: a signal source for generating an input signal having a prescribed frequency; a first and second oscillator (42, 44) coupled via a first signal processing path with each other and with the signal source to generate a first intermediate signal; characterised in that the frequency synthesiser further comprises: an array of frequency dividers coupled via a second signal processing path with the signal source; at least one frequency multiplier (14, 16) coupled to at least one of the frequency dividers, the dividers and the at least one multiplier being configured to generate a plurality of harmonic frequencies coherent with the prescribed frequency; a switch for selecting one of the harmonic frequencies; and a mixer for combining the selected one of the plurality of harmonic frequencies with the first intermediate signal and providing said synthesized frequencies with reduced noise, the array of frequency dividers and at least one multiplier (14, 16) being arranged to generate the harmonic frequencies such that they are evenly spaced relative to each other. a signal source for generating an input signal having a prescribed frequency; a first and second oscillator (42, 44) coupled via a first signal processing path with each other and with the signal source to generate a first intermediate signal; characterised in that the frequency synthesiser further comprises: an array of frequency dividers coupled via a second signal processing path with the signal source; at least one frequency multiplier (14, 16) coupled to at least one of the frequency dividers, the dividers and the at least one multiplier being configured to generate a plurality of harmonic frequencies coherent with the prescribed frequency; a switch for selecting one of the harmonic frequencies; and a mixer for combining the selected one of the plurality of harmonic frequencies with the first intermediate signal and providing said synthesized frequencies with reduced noise, the array of frequency dividers and at least one multiplier (14, 16) being arranged to generate the harmonic frequencies such that they are evenly spaced relative to each other. an array of frequency dividers coupled via a second signal processing path with the signal source; at least one frequency multiplier (14, 16) coupled to at least one of the frequency dividers, the dividers and the at least one multiplier being configured to generate a plurality of harmonic frequencies coherent with the prescribed frequency; a switch for selecting one of the harmonic frequencies; and a mixer for combining the selected one of the plurality of harmonic frequencies with the first intermediate signal and providing said synthesized frequencies with reduced noise, the array of frequency dividers and at least one multiplier (14, 16) being arranged to generate the harmonic frequencies such that they are evenly spaced relative to each other.
A vacuum chuck adapted for mounting on a lower turret assembly, the lower turret assembly being part of a sealant liner applicator, the sealant liner applicator includes an upper turret assembly and a sealant gun, the sealant gun under computer control, the sealant gun used for applying a sealant around a periphery of an inside of a can or jar lid, the vacuum chuck comprising: an annular-shaped impeller; spiral vanes formed in the impeller, the spiral vanes creating vacuum air when the vacuum chuck is rotated at high speeds on the lower turret assembly; and a plurality of vacuum ports disposed in the impeller for drawing the vacuum air through the spiral vanes, the vacuum chuck being characterised in that it further includes an annular shaped involute, the involute attached to a bottom of the impeller, the involute adapted for mounting on the lower turret assembly. an annular-shaped impeller; spiral vanes formed in the impeller, the spiral vanes creating vacuum air when the vacuum chuck is rotated at high speeds on the lower turret assembly; and a plurality of vacuum ports disposed in the impeller for drawing the vacuum air through the spiral vanes, the vacuum chuck being characterised in that it further includes an annular shaped involute, the involute attached to a bottom of the impeller, the involute adapted for mounting on the lower turret assembly.
A composite semipermeable membrane which is a reverse osmosis membrane and comprises: a substrate; a porous layer provided on the substrate; a membrane separation layer consisting of a crosslinked polyamide and provided on the porous layer; and a crystalline polymer contained in the porous layer and having a crystallinity of 30% or more and 50% or less as measured according to the description, wherein the porous layer consists of a fluoropolymer or consists of a polymer selected from polyetherimide and polyamideimide and has an average pore diameter from 5 nm to 50 nm on the surface and extends from said surface with a thickness of 10 μm to 100 μm and is a layer formed by a non-solvent-induced phase separation method or a thermally-induced phase separation method with forming the porous layer on a substrate, and the membrane separation layer is a layer formed by immersion of a polyfunctional amine compound and thereafter contacting the porous layer with a solution of an acid halide compound to perform interfacial polymerization, and wherein a compression ratio of a portion including the porous layer and the membrane separation layer when subjected to a pressure of 5.5 MPa is 60% or less as measured according to the description. a substrate; a porous layer provided on the substrate; a membrane separation layer consisting of a crosslinked polyamide and provided on the porous layer; and a crystalline polymer contained in the porous layer and having a crystallinity of 30% or more and 50% or less as measured according to the description, wherein the porous layer consists of a fluoropolymer or consists of a polymer selected from polyetherimide and polyamideimide and has an average pore diameter from 5 nm to 50 nm on the surface and extends from said surface with a thickness of 10 μm to 100 μm and is a layer formed by a non-solvent-induced phase separation method or a thermally-induced phase separation method with forming the porous layer on a substrate, and the membrane separation layer is a layer formed by immersion of a polyfunctional amine compound and thereafter contacting the porous layer with a solution of an acid halide compound to perform interfacial polymerization, and wherein a compression ratio of a portion including the porous layer and the membrane separation layer when subjected to a pressure of 5.5 MPa is 60% or less as measured according to the description.
A benzoxazine-based monomer represented by Formula 5 or Formula 12 below: wherein R 2 in Formula 5 is one of the groups represented by the following formulae.
Formulation of an antibiotic dry syrup preparation prepared as a powder combining good flowability and high segregation stability containing the following components: a beta-lactam antibiotic, 80.0 to 95.0 wt% powdered sugar, up to 1.0 wt% a preservative, up to 2.0 wt% silicon dioxide, whereas at least 95% of weight of the powdered sugar has a particle diameter less than 250 μ m.
A glass article comprising: a glass body with via hole structures formed on at least a part of periphery on the glass body, wherein the via hole structures have a size of the center which is larger than the open size of both ends; and a plastic layer adhered to the periphery of the glass body with adhesive coated therebetween, wherein the plastic layer is adhered to the glass body via the via hole structures, wherein the diameter of via hole structures is 1 to 10 times of the thickness of the glass body at the periphery, and the spacing between neighboring via hole structures is 1 to 10 times as large as the diameter of the via hole structures. a glass body with via hole structures formed on at least a part of periphery on the glass body, wherein the via hole structures have a size of the center which is larger than the open size of both ends; and a plastic layer adhered to the periphery of the glass body with adhesive coated therebetween, wherein the plastic layer is adhered to the glass body via the via hole structures, wherein the diameter of via hole structures is 1 to 10 times of the thickness of the glass body at the periphery, and the spacing between neighboring via hole structures is 1 to 10 times as large as the diameter of the via hole structures.