mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method for an artificial shuttlecock, comprising: providing a semi-finished shuttlecock, the semi-finished shuttlecock comprising a ball head, a plurality of stems and a plurality of feathers, one end of each of the stems inserted at the ball head, the feathers connected to one other end of each of the stems; placing the semi-finished shuttlecock in a male mold, the male mold comprising a cone frustum and a plurality of first annular grooves, the first annular grooves disposed apart on an outside of the cone frustum, the semi-finished shuttlecock disposed on the outside of the cone frustum; placing the semi-finished shuttlecock and the male mold into a female mold, the female mold comprising a tapered slot, a plurality of second annular grooves and an injection channel, the second annular grooves disposed apart on an inner surface of the tapered slot, the injection channel communicating with the second annular grooves, each of the first annular grooves corresponding to each of the second annular grooves to form a plurality of molded grooves, the molded grooves communicating with the injection channel through the second annular grooves; and injecting a plastic material from the injection channel, the plastic material solidifying in the molded grooves to form a plurality of connecting members. providing a semi-finished shuttlecock, the semi-finished shuttlecock comprising a ball head, a plurality of stems and a plurality of feathers, one end of each of the stems inserted at the ball head, the feathers connected to one other end of each of the stems; placing the semi-finished shuttlecock in a male mold, the male mold comprising a cone frustum and a plurality of first annular grooves, the first annular grooves disposed apart on an outside of the cone frustum, the semi-finished shuttlecock disposed on the outside of the cone frustum; placing the semi-finished shuttlecock and the male mold into a female mold, the female mold comprising a tapered slot, a plurality of second annular grooves and an injection channel, the second annular grooves disposed apart on an inner surface of the tapered slot, the injection channel communicating with the second annular grooves, each of the first annular grooves corresponding to each of the second annular grooves to form a plurality of molded grooves, the molded grooves communicating with the injection channel through the second annular grooves; and injecting a plastic material from the injection channel, the plastic material solidifying in the molded grooves to form a plurality of connecting members.
An adhesive composition for a wafer processing film, comprising: an acrylic polymer; and a photosensitive gas generating agent, wherein the photosensitive gas generating agent comprises an ester of 2-diazonaphtholsulfonic acid or an oxime ester-based compound. an acrylic polymer; and a photosensitive gas generating agent, wherein the photosensitive gas generating agent comprises an ester of 2-diazonaphtholsulfonic acid or an oxime ester-based compound.
A sensor pod for sensing acoustic signals of a body comprising: a housing having an interior chamber and a circular opening at one end, and a connector at the opposing end of the housing, configured for attachment to a support structure; a piezoelectric element in the form of a circular disk having a first side and an opposing second side contained in the interior chamber of the housing and aligned with the circular opening; an acoustic coupling pad having a flat surface portion on a first side contacting the first side of the piezoelectric element, and a body contacting portion on a second side, the body contacting portion extending through the circular opening in the housing; a first O-ring positioned on and in contact with the first side of the piezoelectric element; and, a second O-ring positioned on and in contact with the second side of the piezoelectric element; the sensor pod being characterized in that: said connector is in the form of a swivel ball, such that the sensor pod is configured to pivot about the connection; and the first and second O-rings are formed by metalized rubber and configured to conduct electrical signals generated by the piezoelectric element. a housing having an interior chamber and a circular opening at one end, and a connector at the opposing end of the housing, configured for attachment to a support structure; a piezoelectric element in the form of a circular disk having a first side and an opposing second side contained in the interior chamber of the housing and aligned with the circular opening; an acoustic coupling pad having a flat surface portion on a first side contacting the first side of the piezoelectric element, and a body contacting portion on a second side, the body contacting portion extending through the circular opening in the housing; a first O-ring positioned on and in contact with the first side of the piezoelectric element; and, a second O-ring positioned on and in contact with the second side of the piezoelectric element; the sensor pod being characterized in that: said connector is in the form of a swivel ball, such that the sensor pod is configured to pivot about the connection; and the first and second O-rings are formed by metalized rubber and configured to conduct electrical signals generated by the piezoelectric element. said connector is in the form of a swivel ball, such that the sensor pod is configured to pivot about the connection; and the first and second O-rings are formed by metalized rubber and configured to conduct electrical signals generated by the piezoelectric element.
A method for preparing a modified conjugated diene-based polymer, the method comprising: a step of polymerizing a conjugated diene-based monomer in the presence of an organometal compound in a hydrocarbon solvent to prepare an active polymer which is coupled with an organometal; and a step of reacting or coupling the active polymer prepared in step with a modifier, wherein the modifier comprises a compound represented by the following Formula 3: in Formula 3, A 1 and A 2 are each independently a divalent hydrocarbon group of 1 to 20 carbon atoms, which includes an oxygen atom or not, R 17 to R 20 are each independently a monovalent hydrocarbon group of 1 to 20 carbon atoms, and L 1 to L 4 are each independently a divalent, trivalent or tetravalent alkylsilyl group which is substituted with an alkyl group of 1 to 10 carbon atoms, or a monovalent hydrocarbon group of 1 to 20 carbon atoms, or L 1 and L 2, and L 3 and L 4 are connected with each other to form a ring of 1 to 5 carbon atoms, where if L 1 and L 2, and L 3 and L 4 are connected with each other to form a ring, the ring thus formed comprises one to three of one or more heteroatoms selected from the group consisting of N, O and S. a step of polymerizing a conjugated diene-based monomer in the presence of an organometal compound in a hydrocarbon solvent to prepare an active polymer which is coupled with an organometal; and a step of reacting or coupling the active polymer prepared in step with a modifier, wherein the modifier comprises a compound represented by the following Formula 3: A 1 and A 2 are each independently a divalent hydrocarbon group of 1 to 20 carbon atoms, which includes an oxygen atom or not, R 17 to R 20 are each independently a monovalent hydrocarbon group of 1 to 20 carbon atoms, and L 1 to L 4 are each independently a divalent, trivalent or tetravalent alkylsilyl group which is substituted with an alkyl group of 1 to 10 carbon atoms, or a monovalent hydrocarbon group of 1 to 20 carbon atoms, or L 1 and L 2, and L 3 and L 4 are connected with each other to form a ring of 1 to 5 carbon atoms, where if L 1 and L 2, and L 3 and L 4 are connected with each other to form a ring, the ring thus formed comprises one to three of one or more heteroatoms selected from the group consisting of N, O and S.
Compressed air supply installation (10, 11, 12, 20, 30) for operating a pneumatic installation, in particular an air spring installation on a vehicle, having: - a compressed air feed, - a compressed air port leading to the pneumatic installation, - a vent port leading to the environment, - a main pneumatic line between the compressed air feed and the compressed air port, which line has an air dryer and a nonreturn valve, - a vent line between the compressed air port and the vent port, characterized in that the nonreturn valve is in the form of a pilot-operated nonreturn valve (63, 64). - a compressed air feed, - a compressed air port leading to the pneumatic installation, - a vent port leading to the environment, - a main pneumatic line between the compressed air feed and the compressed air port, which line has an air dryer and a nonreturn valve, - a vent line between the compressed air port and the vent port,
A method comprising: identifying a process model (302, 402, 504) and associated uncertainties (304, 404, 506) representing an industrial process (100, 600), the industrial process comprises a pH neutralization process, the identification of the process model comprises: obtaining a nominal process model and linearizing the nominal process model at different pH values to identify multiple transfer functions, the transfer functions having similar time constants and different steady-state gains; obtaining controller specifications for an industrial process controller (106, 114, 122, 130, 138, 502, 614); identifying a controller design comprising one or more parameters for the industrial process controller using the process model, the uncertainties (304, 404, 506) associated with the process model, and the one or more parameters, the controller design of the industrial process controller is configured to cause the industrial process controller to control a pH of one or more materials in the pH neutralization process; validating the controller design of the industrial process controller for use in a closed-loop control system; and deploying the controller design if validated to the industrial process controller. identifying a process model (302, 402, 504) and associated uncertainties (304, 404, 506) representing an industrial process (100, 600), the industrial process comprises a pH neutralization process, the identification of the process model comprises: obtaining a nominal process model and linearizing the nominal process model at different pH values to identify multiple transfer functions, the transfer functions having similar time constants and different steady-state gains; obtaining controller specifications for an industrial process controller (106, 114, 122, 130, 138, 502, 614); identifying a controller design comprising one or more parameters for the industrial process controller using the process model, the uncertainties (304, 404, 506) associated with the process model, and the one or more parameters, the controller design of the industrial process controller is configured to cause the industrial process controller to control a pH of one or more materials in the pH neutralization process; validating the controller design of the industrial process controller for use in a closed-loop control system; and deploying the controller design if validated to the industrial process controller.
An ink manifold for an inkjet printhead, said manifold comprising an inlet or outlet port; a substantially planar body (203, 204) which is longer in a length direction than a width direction and having, formed in a surface thereof, a first transverse channel for direct connection to ejection locations of said printhead along the length of said first channel, said first channel extending substantially parallel to the length direction of the body (203, 204); and an adjacent transverse channel extending substantially parallel to the length direction of the body (203, 204), said adjacent transverse channel being in fluid communication with said inlet or outlet port and hence to a supply or sink of ink respectively, and arranged between said inlet or outlet port and said first transverse channel to receive ink from said supply or pass ink to said sink and supply ink to or receive it from said first transverse channel, wherein said adjacent transverse channel is not directly connected to the ejection locations; wherein two or more connecting passages are arranged between adjacent ones of said transverse channels (709, 713), operable to allow ink to flow between the transverse channels (709, 713); wherein each connecting passage is sized such that it provides a greater flow restriction to ink flowing between the transverse channels (709, 713) than the restriction to flow of ink along the length of each transverse channel (709, 713) so that the pressure distribution of ink within said first transverse channel is substantially uniform along the length of said channel.
A process of preparing a compound having structural Formula: comprising reacting a compound having structural Formula with NH 3 or NH 3 ·H 2 O, wherein X is C 1 -C 12 alkyl, -Y-C OR 2, or -Y-C -NH-R 2; Y is C 1 -C 12 alkylene or C 1 -C 12 alkenylene; R 2 is hydrogen or C 1 -C 12 alkyl; and R 7 is a leaving group selected from the group consisting of halo, -OMs, -OTs, and -OTf. X is C 1 -C 12 alkyl, -Y-C OR 2, or -Y-C -NH-R 2; Y is C 1 -C 12 alkylene or C 1 -C 12 alkenylene; R 2 is hydrogen or C 1 -C 12 alkyl; and R 7 is a leaving group selected from the group consisting of halo, -OMs, -OTs, and -OTf.
A method of constructing large diameter underground piles, which method comprises the steps of: a) providing an underground, small diameter cylindrical pilot core made of mechanically erodible material(s) extending along the central axis of a large diameter pile to be constructed; b) excavating the soil around the pilot core using the same core as a guide for a drilling tool, the tool comprising: - a central, cylindrical guiding cavity adapted to fit around the core; - first lower cutter means (21, 21') for drilling the soil underneath the tool; - second inner cutter means (28, 28') located above the cylindrical cavity, for milling the top of the core as the tool moves downwards guided along the same core. a) providing an underground, small diameter cylindrical pilot core made of mechanically erodible material(s) extending along the central axis of a large diameter pile to be constructed; b) excavating the soil around the pilot core using the same core as a guide for a drilling tool, the tool comprising: - a central, cylindrical guiding cavity adapted to fit around the core; - first lower cutter means (21, 21') for drilling the soil underneath the tool; - second inner cutter means (28, 28') located above the cylindrical cavity, for milling the top of the core as the tool moves downwards guided along the same core. - a central, cylindrical guiding cavity adapted to fit around the core; - first lower cutter means (21, 21') for drilling the soil underneath the tool; - second inner cutter means (28, 28') located above the cylindrical cavity, for milling the top of the core as the tool moves downwards guided along the same core.
A phase error estimator, for estimating a phase error in an inputted base band electric signal characterized in that the phase error estimator feeds back said phase error and comprises: a pre-decider, for judging a phase of data in said base band electric signal in accordance with said feedback phase error; a phase error complex value extracting section, for extracting a real part and an imaginary part of the phase error in accordance with the judgment result of said pre-decider; a phase error determining section, for determining said phase error in accordance with the real part and the imaginary part of the phase error extracted by the phase error complex value extracting section; and a time delay feeding back section, for delaying said phase error by N number of symbols and feeding back the delayed phase error to said pre-decider, wherein N is an integer greater than 1. a pre-decider, for judging a phase of data in said base band electric signal in accordance with said feedback phase error; a phase error complex value extracting section, for extracting a real part and an imaginary part of the phase error in accordance with the judgment result of said pre-decider; a phase error determining section, for determining said phase error in accordance with the real part and the imaginary part of the phase error extracted by the phase error complex value extracting section; and a time delay feeding back section, for delaying said phase error by N number of symbols and feeding back the delayed phase error to said pre-decider, wherein N is an integer greater than 1.
A cracking aerosol composition to be filled into an aerosol container including a pressure-resistant container having an aerosol valve, wherein the cracking aerosol composition comprises a liquefied petroleum gas, water, a defoaming oil, a lower alcohol, carbon dioxide, an emulsifier and an emulsifying aid, a proportion of the liquefied petroleum gas is 20.0 to 55.0 mass %, a proportion of the defoaming oil is 0.5 to 12.0 mass %, a proportion of the lower alcohol is 5.0 to 30.0 mass %, a proportion of the carbon dioxide is 0.1 to 3.5 mass % and a proportion of the emulsifier is 0.02 to 1.2 mass %, and the emulsifier includes two types of nonionic surfactants having different HLB values, and a mass ratio of the two types of nonionic surfactants is 1:10 to 10:1. the cracking aerosol composition comprises a liquefied petroleum gas, water, a defoaming oil, a lower alcohol, carbon dioxide, an emulsifier and an emulsifying aid, a proportion of the liquefied petroleum gas is 20.0 to 55.0 mass %, a proportion of the defoaming oil is 0.5 to 12.0 mass %, a proportion of the lower alcohol is 5.0 to 30.0 mass %, a proportion of the carbon dioxide is 0.1 to 3.5 mass % and a proportion of the emulsifier is 0.02 to 1.2 mass %, and the emulsifier includes two types of nonionic surfactants having different HLB values, and a mass ratio of the two types of nonionic surfactants is 1:10 to 10:1.
A method for creating network devices, comprising: creating multiple virtual hardware systems of control planes on a hardware system of a control plane of a physical network device; creating multiple virtual hardware systems of forwarding planes on a hardware system of a forwarding plane of the physical network device; characterized by loading multiple software systems of the control planes to the multiple virtual hardware systems of the control planes, respectively, wherein the multiple virtual hardware systems of the control planes and the multiple software systems of the control planes are in one-to-one correspondence; loading multiple software systems of the forwarding planes to the multiple virtual hardware systems of the forwarding planes, respectively, wherein the multiple virtual hardware systems of the forwarding planes and the multiple software systems of the forwarding planes are in one-to-one correspondence; and creating multiple communication channels, wherein the multiple communication channels are communication channels between the multiple software systems of the control planes and the multiple software systems of the forwarding planes, the multiple communication channels and the multiple software systems of the control planes are in one-to-one correspondence, and the multiple communication channels and the multiple software systems of the forwarding planes are in one-to-one correspondence. creating multiple virtual hardware systems of control planes on a hardware system of a control plane of a physical network device; creating multiple virtual hardware systems of forwarding planes on a hardware system of a forwarding plane of the physical network device; characterized by loading multiple software systems of the control planes to the multiple virtual hardware systems of the control planes, respectively, wherein the multiple virtual hardware systems of the control planes and the multiple software systems of the control planes are in one-to-one correspondence; loading multiple software systems of the forwarding planes to the multiple virtual hardware systems of the forwarding planes, respectively, wherein the multiple virtual hardware systems of the forwarding planes and the multiple software systems of the forwarding planes are in one-to-one correspondence; and creating multiple communication channels, wherein the multiple communication channels are communication channels between the multiple software systems of the control planes and the multiple software systems of the forwarding planes, the multiple communication channels and the multiple software systems of the control planes are in one-to-one correspondence, and the multiple communication channels and the multiple software systems of the forwarding planes are in one-to-one correspondence.
A method for a wireless communication system that supports operation in a single resource block narrowband region (615-a) of a system bandwidth, the method comprising: identifying (1105; 2705), by a base station (105-c; 105), a location of the narrowband region (615-a) of the system bandwidth as a particular single resource block within a wideband region of the system bandwidth; and transmitting (1120; 2710), by the base station (105-c; 105) to a user equipment (115-c; 115), UE, an indication of the location of the particular single resource block within the wideband region of the system bandwidth, wherein the indication is transmitted in one or more of a master information block, MIB, or a system information block, SIB including signaling that the narrowband region (615-a) is within the system bandwidth. identifying (1105; 2705), by a base station (105-c; 105), a location of the narrowband region (615-a) of the system bandwidth as a particular single resource block within a wideband region of the system bandwidth; and transmitting (1120; 2710), by the base station (105-c; 105) to a user equipment (115-c; 115), UE, an indication of the location of the particular single resource block within the wideband region of the system bandwidth, wherein the indication is transmitted in one or more of a master information block, MIB, or a system information block, SIB including signaling that the narrowband region (615-a) is within the system bandwidth.