mhurhangee/ep-ind-claims huggingface dataset:
A coating composition comprising: (a) a dispersion comprising the melt blending of: one or more base polymers wherein said one or more base polymers are selected from the group consisting of ethylene-alpha olefin copolymers, and propylene-alpha olefin copolymers; at least one first pigment, wherein said first pigment is a metal oxide selected from the group consisting of TiO 2, SiO 2, ZnO, A1 2 O 3, combinations thereof; one or more stabilizing agents in the presence of water and one or more neutralizing agent in an extruder, wherein said at least one first pigment is partially encapsulated by said one or more base polymers, and (b) a binder composition. (a) a dispersion comprising the melt blending of: one or more base polymers wherein said one or more base polymers are selected from the group consisting of ethylene-alpha olefin copolymers, and propylene-alpha olefin copolymers; at least one first pigment, wherein said first pigment is a metal oxide selected from the group consisting of TiO 2, SiO 2, ZnO, A1 2 O 3, combinations thereof; one or more stabilizing agents in the presence of water and one or more neutralizing agent in an extruder, wherein said at least one first pigment is partially encapsulated by said one or more base polymers, and one or more base polymers wherein said one or more base polymers are selected from the group consisting of ethylene-alpha olefin copolymers, and propylene-alpha olefin copolymers; at least one first pigment, wherein said first pigment is a metal oxide selected from the group consisting of TiO 2, SiO 2, ZnO, A1 2 O 3, combinations thereof; one or more stabilizing agents in the presence of water and one or more neutralizing agent in an extruder, wherein said at least one first pigment is partially encapsulated by said one or more base polymers, and (b) a binder composition.
Method for emptying a reactor containing at least one bed of spent catalyst particles and comprising at least one dump tube, which opens into the reactor at the bottom of the said bed of particles or underneath the latter, the method comprising the following successive steps: - a first step consisting in causing a proportion of the bed of catalyst to flow out of the reactor via the said dump tube, then - a second step of expelling the vestiges of catalyst from the reactor, this step being performed by driving towards the opening of the dump tube the particles of catalyst that have remained in the reactor at the end of the first step, using a removable device comprising at least one rotary brush fixed to the end of an articulated arm introduced into the reactor via the said dump tube. - a first step consisting in causing a proportion of the bed of catalyst to flow out of the reactor via the said dump tube, then - a second step of expelling the vestiges of catalyst from the reactor, this step being performed by driving towards the opening of the dump tube the particles of catalyst that have remained in the reactor at the end of the first step, using a removable device comprising at least one rotary brush fixed to the end of an articulated arm introduced into the reactor via the said dump tube.
A rotor hub, comprising: a yoke configured to attach a plurality of rotor blades; a constant velocity joint configured to drive torque from a rotor mast to the yoke and further configured to enable the yoke to pivot relative to the rotor mast; and a rotor control system configured to adjust an orientation of the plurality of rotor blades, wherein the rotor control system comprises: a swashplate; an adapter ring; a plurality of actuators (221a-c) configured to adjust an orientation of the swashplate based on a flight control input; a plurality of lower pitch links (222a-c) configured to transfer motion between the swashplate and the adapter ring; a plurality of phase adjustment levers (213a-c) configured to adjust a control phase associated with motion transferred between the swashplate and the adapter ring; and a plurality of upper pitch links (224a-f) configured to transfer motion between the adapter ring and the plurality of rotor blades to adjust a pitch of the plurality of rotor blades, wherein the plurality of upper pitch links comprises a larger number of pitch links than the plurality of lower pitch links. a yoke configured to attach a plurality of rotor blades; a constant velocity joint configured to drive torque from a rotor mast to the yoke and further configured to enable the yoke to pivot relative to the rotor mast; and a rotor control system configured to adjust an orientation of the plurality of rotor blades, wherein the rotor control system comprises: a swashplate; an adapter ring; a plurality of actuators (221a-c) configured to adjust an orientation of the swashplate based on a flight control input; a plurality of lower pitch links (222a-c) configured to transfer motion between the swashplate and the adapter ring; a plurality of phase adjustment levers (213a-c) configured to adjust a control phase associated with motion transferred between the swashplate and the adapter ring; and a plurality of upper pitch links (224a-f) configured to transfer motion between the adapter ring and the plurality of rotor blades to adjust a pitch of the plurality of rotor blades, wherein the plurality of upper pitch links comprises a larger number of pitch links than the plurality of lower pitch links. a swashplate; an adapter ring; a plurality of actuators (221a-c) configured to adjust an orientation of the swashplate based on a flight control input; a plurality of lower pitch links (222a-c) configured to transfer motion between the swashplate and the adapter ring; a plurality of phase adjustment levers (213a-c) configured to adjust a control phase associated with motion transferred between the swashplate and the adapter ring; and a plurality of upper pitch links (224a-f) configured to transfer motion between the adapter ring and the plurality of rotor blades to adjust a pitch of the plurality of rotor blades, wherein the plurality of upper pitch links comprises a larger number of pitch links than the plurality of lower pitch links.
A method comprising: generating, at a wireless device, a report associated with a wireless local area network, WLAN, the WLAN being associated with an access point; and sending the report from the wireless device to the access point using an alternate access technology, wherein the report includes diagnostic information. generating, at a wireless device, a report associated with a wireless local area network, WLAN, the WLAN being associated with an access point; and sending the report from the wireless device to the access point using an alternate access technology, wherein the report includes diagnostic information.
A sensor package comprising: a non-conductive substrate; at least three electrically conductive coils (110a-c) located at a first side of the non-conductive substrate; characterized in that the sensor package furthermore comprises: an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate; and conductive connections between the at least three electrically conductive coils (110a-c) and the evaluation circuit, wherein one of the at least three electrically conductive coils (110a-c) is configured to produce a magnetic field and the other at least two of the at least three electrically conductive coils (110a-c) are configured to receive the magnetic field and wherein the at least three electrically conductive coils do not overlap with each other. a non-conductive substrate; at least three electrically conductive coils (110a-c) located at a first side of the non-conductive substrate; characterized in that the sensor package furthermore comprises: an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate; and conductive connections between the at least three electrically conductive coils (110a-c) and the evaluation circuit, wherein one of the at least three electrically conductive coils (110a-c) is configured to produce a magnetic field and the other at least two of the at least three electrically conductive coils (110a-c) are configured to receive the magnetic field and wherein the at least three electrically conductive coils do not overlap with each other. an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate; and conductive connections between the at least three electrically conductive coils (110a-c) and the evaluation circuit, wherein one of the at least three electrically conductive coils (110a-c) is configured to produce a magnetic field and the other at least two of the at least three electrically conductive coils (110a-c) are configured to receive the magnetic field and wherein the at least three electrically conductive coils do not overlap with each other.
A method for processing audio frames comprising: producing, using a first coding method, a first frame of coded output audio samples by coding a first audio frame in a sequence of frames wherein the coded output audio samples are sampled at a first sampling rate; forming an overlap-add portion of the first frame using the first coding method; generating a combination first frame of coded audio samples based on combining the first frame of coded output audio samples with the overlap-add portion of the first frame; initializing a state of a second coding method based on the combination first frame of coded audio samples; and constructing an output signal based on the initialized state of the second coding method, wherein the generating a combination first frame comprises: resampling the combination first frame of coded audio samples at a second sampling rate to generate a resampled combination first frame of coded audio samples, wherein the initializing comprises initializing the state of the second coding method based on the resampled combination first frame of coded audio samples, wherein the first coding method is a generic audio coding method, and the second coding method is a speech coding method. producing, using a first coding method, a first frame of coded output audio samples by coding a first audio frame in a sequence of frames wherein the coded output audio samples are sampled at a first sampling rate; forming an overlap-add portion of the first frame using the first coding method; generating a combination first frame of coded audio samples based on combining the first frame of coded output audio samples with the overlap-add portion of the first frame; initializing a state of a second coding method based on the combination first frame of coded audio samples; and constructing an output signal based on the initialized state of the second coding method, wherein the generating a combination first frame comprises: resampling the combination first frame of coded audio samples at a second sampling rate to generate a resampled combination first frame of coded audio samples, wherein the initializing comprises initializing the state of the second coding method based on the resampled combination first frame of coded audio samples, wherein the first coding method is a generic audio coding method, and the second coding method is a speech coding method. resampling the combination first frame of coded audio samples at a second sampling rate to generate a resampled combination first frame of coded audio samples, wherein the initializing comprises initializing the state of the second coding method based on the resampled combination first frame of coded audio samples, wherein the first coding method is a generic audio coding method, and the second coding method is a speech coding method.
Method for encoding an image, in particular for reducing the computational complexity for encoding the image, based on an optimal estimation of a distribution probability, wherein the method comprises encoding of at least one symbol for a property vector X of a respective pixel of a plurality of pixels in sequence based on contextual patterns formed by respective property vectors of a plurality of neighboring pixels of the respective pixel, wherein the encoding of at least one symbol for a property vector X comprises a) encoding a distribution symbol of the property vector X from a distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel, when the property vector X of the respective pixel occurred in the distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel; b) encoding a first stage exception handling symbol and a palette symbol of the respective property vector X of a dynamically generated palette of property vectors, when the respective property vector X of the respective pixel has not occurred in the distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel and the property vector X is found in the palette; and c) encoding a first stage exception handling symbol, a second stage exception handling symbol, and a representation of all components of the property vector X, when the property vector X has not occurred in the distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel and the property vector X is not found in the palette. a) encoding a distribution symbol of the property vector X from a distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel, when the property vector X of the respective pixel occurred in the distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel; b) encoding a first stage exception handling symbol and a palette symbol of the respective property vector X of a dynamically generated palette of property vectors, when the respective property vector X of the respective pixel has not occurred in the distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel and the property vector X is found in the palette; and c) encoding a first stage exception handling symbol, a second stage exception handling symbol, and a representation of all components of the property vector X, when the property vector X has not occurred in the distribution of the property vectors found in the contextual patterns that are identical or similar to the contextual pattern of the respective pixel and the property vector X is not found in the palette.
A liquid level sensor, comprising: a first mounting base; and a cable assembly, comprising: a metal shell disposed on the first mounting base and defining an accommodating chamber therein; a heating element for heating the metal shell; and a temperature detector for detecting a temperature of the metal shell, wherein the liquid level sensor further comprises a seal ring fitted over the metal shell and clamped between the metal shell and the first mounting base, the heating element and the temperature detector are disposed in the accommodating chamber of the shell, characterized in that a first surface of the heating element is in contact with a first wall surface of the accommodating chamber of the shell, a shape of the first surface being matched with that of the first wall surface. a first mounting base; and a cable assembly, comprising: a metal shell disposed on the first mounting base and defining an accommodating chamber therein; a heating element for heating the metal shell; and a temperature detector for detecting a temperature of the metal shell, wherein the liquid level sensor further comprises a seal ring fitted over the metal shell and clamped between the metal shell and the first mounting base, a metal shell disposed on the first mounting base and defining an accommodating chamber therein; a heating element for heating the metal shell; and a temperature detector for detecting a temperature of the metal shell, wherein the liquid level sensor further comprises a seal ring fitted over the metal shell and clamped between the metal shell and the first mounting base, the heating element and the temperature detector are disposed in the accommodating chamber of the shell, characterized in that a first surface of the heating element is in contact with a first wall surface of the accommodating chamber of the shell, a shape of the first surface being matched with that of the first wall surface.
A hybrid tankless water heating system having a system input and a system output and configured to provide a water supply, wherein said hybrid tankless water heating system is housed in an enclosure having a top, comprising: a heat exchanger having an input and an output, and a buffer tank having an input, an output and a secondary heating element, wherein said input of said buffer tank is fluidly connected to said output of said heat exchanger thereby positioning said buffer tank at a downstream location from said heat exchanger; and an internal recirculation flow watercourse which fluidly connects said output of said buffer tank to said input of said heat exchanger thereby creating a means for simultaneously circulating water through both said buffer tank and said heat exchanger. a heat exchanger having an input and an output, and a buffer tank having an input, an output and a secondary heating element, wherein said input of said buffer tank is fluidly connected to said output of said heat exchanger thereby positioning said buffer tank at a downstream location from said heat exchanger; and an internal recirculation flow watercourse which fluidly connects said output of said buffer tank to said input of said heat exchanger thereby creating a means for simultaneously circulating water through both said buffer tank and said heat exchanger.
A method for a first network device, the method comprising: detecting a first voice input; determining a first measure of confidence indicating how well the first voice input was detected by the first network device; receiving a message comprising a second measure of confidence indicating how well the first voice input was detected by a second network device; and detecting a second voice input that follows the first voice input; the method characterized by: sending, by the first network device, the second voice input to a server responsive to a determination that the first measure of confidence is greater than the second measure of confidence, so that the server can perform voice recognition on the second voice input; and receiving, from the server, a response based on the second voice input. detecting a first voice input; determining a first measure of confidence indicating how well the first voice input was detected by the first network device; receiving a message comprising a second measure of confidence indicating how well the first voice input was detected by a second network device; and detecting a second voice input that follows the first voice input; the method characterized by: sending, by the first network device, the second voice input to a server responsive to a determination that the first measure of confidence is greater than the second measure of confidence, so that the server can perform voice recognition on the second voice input; and receiving, from the server, a response based on the second voice input. sending, by the first network device, the second voice input to a server responsive to a determination that the first measure of confidence is greater than the second measure of confidence, so that the server can perform voice recognition on the second voice input; and receiving, from the server, a response based on the second voice input.
A milling system for use in resecting at least a portion of a joint articulation surface of a bone, the system comprising: a template comprising a base having a top surface, an opposing bottom surface with an opening extending therebetween; means for removably mounting the template on a bone; a guide movably mounted on the template and projecting across at least a portion of the opening of the template, the guide being selectively movable across at least a portion of the opening of the template; characterized in that the template further comprises a bracket projecting from the base and extending along the length of the opening of the template, the guide being coupled with and selectively movable along the length of the bracket and the template further comprising at least two spaced apart support legs (66, 67, 68) projecting from the base so as to extend below the bottom surface and a rotatable mill mounted on the guide, the mill being selectively movable along at least a portion of the length of the guide. a template comprising a base having a top surface, an opposing bottom surface with an opening extending therebetween; means for removably mounting the template on a bone; a guide movably mounted on the template and projecting across at least a portion of the opening of the template, the guide being selectively movable across at least a portion of the opening of the template; characterized in that the template further comprises a bracket projecting from the base and extending along the length of the opening of the template, the guide being coupled with and selectively movable along the length of the bracket and the template further comprising at least two spaced apart support legs (66, 67, 68) projecting from the base so as to extend below the bottom surface and a rotatable mill mounted on the guide, the mill being selectively movable along at least a portion of the length of the guide.
A fire-protection glazing with at least two transparent carriers, between which a transparent fire-protection layer is arranged, wherein the fire-protection layer comprises a hydrogel, and wherein the hydrogel comprises a polymer which is polymerised from at least one monofunctional monomer as well as at least one bifunctional or polyfunctional monomer in an aqueous salt solution or in an aqueous salt dispersion, in an acid environment, wherein a polymerisation of the polymer from the monomers can be thermally activated and the thermal activation sets in above room temperature; and wherein the monofunctional monomers comprise at least acrylic acid or an acrylic acid derivative and methacrylamide or a derivative of methacrylamide.