mhurhangee/ep-ind-claims huggingface dataset:
A method for isolation and purification of Na 2 S formed during desulfurization of petroleum residue; said method comprising treating a sludge containing Na 2 S obtained during desulfurization of petroleum residue with a mixture of at least one organic solvent capable of dissolving the petroleum residue and water; allowing the treated sludge to separate into an organic phase containing petroleum oil and an aqueous phase containing Na 2 S; and distilling the aqueous phase to obtain isolated Na 2 S, followed by purification.
A satellite receiver module for telecommunication equipment, the satellite receiver module comprising a first circuitry for receiving timing information from one or more satellites, characterized in that the satellite receiver module further comprises: - a second circuitry for running at least a part of master-end functions of a synchronization protocol and for converting the timing information into timing messages that are accordant with the synchronization protocol, the synchronization protocol being suitable for synchronizing master and slave clock-times over a data transfer network, and - a data interface comprising a connector for detachably attaching to a body device of the telecommunication equipment and for transferring a bit stream carrying the timing messages to the body device of the telecommunication equipment. - a second circuitry for running at least a part of master-end functions of a synchronization protocol and for converting the timing information into timing messages that are accordant with the synchronization protocol, the synchronization protocol being suitable for synchronizing master and slave clock-times over a data transfer network, and - a data interface comprising a connector for detachably attaching to a body device of the telecommunication equipment and for transferring a bit stream carrying the timing messages to the body device of the telecommunication equipment.
A rotor positioning device to adjust the rotational position of a rotor shaft in a crusher, the positioning device comprising: a frame to mount the device at an external region of the crusher; a rod rotatably mounted at the frame; a shaft engager provided at one end of the rod to engage an end of the rotor shaft so as to rotatably lock the rod and the rotor shaft; the shaft engager being adjustably mounted relative to at least a part of the frame to enable the engager to move to and from contact with the rotor shaft; a drive component (107, 108) coupled to the rod to rotate the shaft engager and impart rotational drive to the shaft of the rotor; and characterised by an alignable indicator associated with the shaft engager for indicating a specific rotational position of the rotor shaft within the crusher. a frame to mount the device at an external region of the crusher; a rod rotatably mounted at the frame; a shaft engager provided at one end of the rod to engage an end of the rotor shaft so as to rotatably lock the rod and the rotor shaft; the shaft engager being adjustably mounted relative to at least a part of the frame to enable the engager to move to and from contact with the rotor shaft; a drive component (107, 108) coupled to the rod to rotate the shaft engager and impart rotational drive to the shaft of the rotor; and characterised by an alignable indicator associated with the shaft engager for indicating a specific rotational position of the rotor shaft within the crusher.
Coated film, comprising a coextruded polycarbonate / polymethylmethacrylate (PMMA) film and a coating on the polymethylmethacrylate (PMMA) layer obtained by coating with a formable hard coating composition comprising - a binder, comprising at least one acrylate oligomer and at least one monofunctional acrylic monomer; and - a crosslinking agent, comprising at least one multifunctional acrylic or methacrylic monomer, wherein the coating has a dry film thickness according to ASTM B499 in the range of from ≥ 1 1 to ≤ 6 μm. - a binder, comprising at least one acrylate oligomer and at least one monofunctional acrylic monomer; and - a crosslinking agent, comprising at least one multifunctional acrylic or methacrylic monomer,
A gas turbine engine comprising: a shroud (150, 250) with an abradable section (164, 264) and a non-abradable section (166, 266) that cooperatively define a shroud surface; a rotor that is supported for rotation within the shroud to generate an aft axial fluid flow, the rotor including a blade (126, 226) with a blade tip (132, 232) that is crowned such as to exhibit convex curvature and that opposes the abradable section and the non-abradable section of the shroud surface, a crown area of the blade tip opposing the abradable section; wherein the blade tip extends axially between a leading edge and a trailing edge of the blade; wherein a clearance region is defined between the blade tip and the shroud surface; and wherein a crown clearance dimension (176, 276) measured between the shroud surface and the blade tip at the crown area is less than a leading clearance dimension and a trailing clearance dimension, the leading clearance dimension measured between the shroud surface and the blade tip proximate the leading edge, the trailing clearance dimension measured between the shroud surface and the blade tip proximate the trailing edge, the gas turbine engine being characterised in that a casing treatment (186, 286) feature is provided in the non-abradable section (166, 266) of the shroud (150, 250) to oppose the blade tip (132, 232) of the rotor. a shroud (150, 250) with an abradable section (164, 264) and a non-abradable section (166, 266) that cooperatively define a shroud surface; a rotor that is supported for rotation within the shroud to generate an aft axial fluid flow, the rotor including a blade (126, 226) with a blade tip (132, 232) that is crowned such as to exhibit convex curvature and that opposes the abradable section and the non-abradable section of the shroud surface, a crown area of the blade tip opposing the abradable section; wherein the blade tip extends axially between a leading edge and a trailing edge of the blade; wherein a clearance region is defined between the blade tip and the shroud surface; and wherein a crown clearance dimension (176, 276) measured between the shroud surface and the blade tip at the crown area is less than a leading clearance dimension and a trailing clearance dimension, the leading clearance dimension measured between the shroud surface and the blade tip proximate the leading edge, the trailing clearance dimension measured between the shroud surface and the blade tip proximate the trailing edge, the gas turbine engine being characterised in that a casing treatment (186, 286) feature is provided in the non-abradable section (166, 266) of the shroud (150, 250) to oppose the blade tip (132, 232) of the rotor.
A laser machining device for emitting a laser beam, the laser machining device comprising: a first parallel plate; a first detector for detecting an output of a reflected beam from an exit end surface of the first parallel plate; a second detector for detecting an output of a reflected beam from an entrance end surface of the first parallel plate; a second parallel plate disposed closer to an incoming side than the first parallel plate; and a third detector for detecting an output of a reflected beam from an entrance end surface of the second parallel plate, characterized in that the laser machining device further comprises a collimate lens; a long-focus lens for focusing the laser beam which has passed through the collimate lens, wherein the first parallel plate is disposed closer to an outgoing side than the long-focus lens and is inclined relative to an optical axis at a predetermined angle; and a calculation unit for calculating an amount of a focal shift of the second parallel plate based on a detection value of the second detector and a detection value of the third detector. a first parallel plate; a first detector for detecting an output of a reflected beam from an exit end surface of the first parallel plate; a second detector for detecting an output of a reflected beam from an entrance end surface of the first parallel plate; a second parallel plate disposed closer to an incoming side than the first parallel plate; and a third detector for detecting an output of a reflected beam from an entrance end surface of the second parallel plate, characterized in that the laser machining device further comprises a collimate lens; a long-focus lens for focusing the laser beam which has passed through the collimate lens, wherein the first parallel plate is disposed closer to an outgoing side than the long-focus lens and is inclined relative to an optical axis at a predetermined angle; and a calculation unit for calculating an amount of a focal shift of the second parallel plate based on a detection value of the second detector and a detection value of the third detector.
A method that generates, from an input video, a compressed video that is consistent across different devices, the method comprising: identifying a desired output bitrate; parsing parameters of the input video, the parameters including width, height, frame rate, and format of the input video; generating, by an encoder rendering black frames, a blank video with a fixed duration using the parameters of the input video; generating a representative video based on providing the blank video as input to a decoder; wherein the decoder receives the blank video from the encoder, decodes the blank video, and provides parameters associated with the decoded blank video to the encoder, wherein the representative video is the decoded blank video; determining a request bitrate based on comparing a bitrate of the representative video to the desired output bitrate; and compressing the input video using the request bitrate to generate the compressed video. identifying a desired output bitrate; parsing parameters of the input video, the parameters including width, height, frame rate, and format of the input video; generating, by an encoder rendering black frames, a blank video with a fixed duration using the parameters of the input video; generating a representative video based on providing the blank video as input to a decoder; wherein the decoder receives the blank video from the encoder, decodes the blank video, and provides parameters associated with the decoded blank video to the encoder, wherein the representative video is the decoded blank video; wherein the decoder receives the blank video from the encoder, decodes the blank video, and provides parameters associated with the decoded blank video to the encoder, wherein the representative video is the decoded blank video; determining a request bitrate based on comparing a bitrate of the representative video to the desired output bitrate; and compressing the input video using the request bitrate to generate the compressed video.
A circuit module comprising, a multilayer substrate with built-in capacitors, which includes a plurality of dielectric layers and a plurality of capacitor electrodes (30, 31, 32, 34) and is obtained by laminating the plurality of dielectric layers and the plurality of capacitor electrodes, characterised in that a via electrode is formed between a pair of ones of the plurality of capacitor electrodes forming the capacitors, the via electrode extends from one of the pair of the capacitor electrodes forming the capacitors and is directed toward the other one of the pair of the capacitor electrodes, and in the circuit module further comprising an auxiliary electrode formed in an area between the pair of the capacitor electrodes overlapping each other as viewed from a lamination direction, wherein the auxiliary electrode and the via electrode are connected to each other, wherein the pair of capacitor electrodes form the capacitors so as to independently adjust a capacitance value for the pair of the capacitors.
A thin walled irrigating pipe having a tensile layer formed as a continuous strip upon an outer side of the pipe with increased tensile strength, wherein the pipe comprises axially spaced apart apertures for communicating liquid out of the pipe and the apertures being formed also through the tensile layer, wherein the tensile layer comprising a higher tensile strength than material of the remainder of the pipe outside of the tensile layer, characterized in that the tensile layer comprising a secant-modulus higher than a comparative secant-modulus in the remainder material of the pipe outside of the tensile layer, and in that in a cross section orthogonal to the pipe axis and taken along any location along the pipe's axis, the tensile layer extends only along a portion of the pipe's periphery. the tensile layer comprising a secant-modulus higher than a comparative secant-modulus in the remainder material of the pipe outside of the tensile layer, and in that in a cross section orthogonal to the pipe axis and taken along any location along the pipe's axis, the tensile layer extends only along a portion of the pipe's periphery.
A package comprising: a bag main body folded flat, having a gusset portion at a bottom portion and an opening portion at a side opposite to said gusset portion; and a holder sheet folded flat, provided in parallel with the gusset portion at a position close to the bottom portion and separated from the gusset portion in an interior of said bag mainbody, said holder sheet having at least one holding opening element (21, 21a), wherein the bag main body and the holder sheet are formed of a plastic film, and the holder sheet is integrally attached with the main bag body by thermally fusion-cut portions (15, 15a) at both widthwise sides of the bag main body and thermally welded portions (16, 16a) of both edge portions of a side opposite to a side where the holding opening element (21, 21a) is provided and of the bag main body, wherein the holding opening element (21, 21a) has a structure bordered into a necessary opening shape with a weak line (22, 22a) that enables breaking-through. a bag main body folded flat, having a gusset portion at a bottom portion and an opening portion at a side opposite to said gusset portion; and a holder sheet folded flat, provided in parallel with the gusset portion at a position close to the bottom portion and separated from the gusset portion in an interior of said bag mainbody, said holder sheet having at least one holding opening element (21, 21a), wherein the bag main body and the holder sheet are formed of a plastic film, and the holder sheet is integrally attached with the main bag body by thermally fusion-cut portions (15, 15a) at both widthwise sides of the bag main body and thermally welded portions (16, 16a) of both edge portions of a side opposite to a side where the holding opening element (21, 21a) is provided and of the bag main body, wherein the holding opening element (21, 21a) has a structure bordered into a necessary opening shape with a weak line (22, 22a) that enables breaking-through.
A method for transporting or storing at least two wind turbine blades and comprising a first wind turbine blade and a second wind turbine blade, the wind turbine blades each having a root end and a tip end, wherein the method comprises the steps of: a) attaching a first root end frame in form of a first root end bracket to a root end face of the first wind turbine blade b) arranging the tip end of the first wind turbine in a first tip end frame, c) attaching a second root end frame in form of a second root end bracket to a root end face of the second wind turbine blade d) arranging the tip end of the second wind turbine in a second tip end frame, e) placing the first wind turbine blade so that the tip end of the first wind turbine blade points in a first direction, f) placing the second wind turbine blade adjacent and in immediate vicinity to the first wind turbine blade so that the tip end of the second wind turbine blade points in a second direction, which is substantially opposite to the first direction, and g) if not already connected, connecting, the second tip end frame to the first root end frame, and connecting the first tip end frame to the second root end frame so that the tip end of the second wind turbine blade extends beyond the root end of the first wind turbine blade, characterized in that the first wind turbine blade and the second wind turbine blade in steps e) and f) are stacked on top of each other. a) attaching a first root end frame in form of a first root end bracket to a root end face of the first wind turbine blade b) arranging the tip end of the first wind turbine in a first tip end frame, c) attaching a second root end frame in form of a second root end bracket to a root end face of the second wind turbine blade d) arranging the tip end of the second wind turbine in a second tip end frame, e) placing the first wind turbine blade so that the tip end of the first wind turbine blade points in a first direction, f) placing the second wind turbine blade adjacent and in immediate vicinity to the first wind turbine blade so that the tip end of the second wind turbine blade points in a second direction, which is substantially opposite to the first direction, and g) if not already connected, connecting, the second tip end frame to the first root end frame, and connecting the first tip end frame to the second root end frame so that the tip end of the second wind turbine blade extends beyond the root end of the first wind turbine blade,
An electrochemical liquid treatment apparatus including: a treatment chamber containing at least one inlet for entry of a liquid to be treated, and including at least one outlet for exit of electrochemically treated liquid; at least one electrode holder holding a plurality of electrodes, wherein said plurality of electrodes are positioned within the treatment chamber for electrochemical treatment of the liquid, and wherein the at least one electrode holder holding a plurality of electrodes is configured to slideably engage with the treatment chamber; and a flow aligner for aligning the flow of the liquid between the electrodes and substantially along the same longitudinal axis as the electrodes, wherein the flow aligner is positioned intermediate the at least one inlet and the plurality of electrodes, and wherein the flow aligner is a wall defining a plurality of apertures for passage of the liquid; wherein the treatment chamber includes at least one power connector for connecting power to at least one electrode held by the at least one electrode holder; wherein the power connector includes a biasing mechanism which is configured for biasing the power connector against said at least one electrode. a treatment chamber containing at least one inlet for entry of a liquid to be treated, and including at least one outlet for exit of electrochemically treated liquid; at least one electrode holder holding a plurality of electrodes, wherein said plurality of electrodes are positioned within the treatment chamber for electrochemical treatment of the liquid, and wherein the at least one electrode holder holding a plurality of electrodes is configured to slideably engage with the treatment chamber; and a flow aligner for aligning the flow of the liquid between the electrodes and substantially along the same longitudinal axis as the electrodes, wherein the flow aligner is positioned intermediate the at least one inlet and the plurality of electrodes, and wherein the flow aligner is a wall defining a plurality of apertures for passage of the liquid;
An inductive power transmitter comprising: a power transmitting coil configured to generate an inductive power transfer, IPT, field; and an object detection system configured to detect objects in or adjacent a space occupied by the IPT field when generated; wherein the object detection system is configured to: detect a potential receiver object based on a magnet associated with the receiver object by correlating a shape of a voltage versus time waveform or a current versus time waveform with a reference waveform shape, wherein the voltage versus time or current versus time waveform is magnetically induced by the magnet associated with the potential receiver object; energize the power transmitting coil and attempt to communicate with the potential receiver object in response to detecting the potential receiver object; and de-energize the power transmitting coil in response to a failure in the attempt to communicate with the potential receiver object. a power transmitting coil configured to generate an inductive power transfer, IPT, field; and an object detection system configured to detect objects in or adjacent a space occupied by the IPT field when generated; wherein the object detection system is configured to: detect a potential receiver object based on a magnet associated with the receiver object by correlating a shape of a voltage versus time waveform or a current versus time waveform with a reference waveform shape, wherein the voltage versus time or current versus time waveform is magnetically induced by the magnet associated with the potential receiver object; energize the power transmitting coil and attempt to communicate with the potential receiver object in response to detecting the potential receiver object; and de-energize the power transmitting coil in response to a failure in the attempt to communicate with the potential receiver object. detect a potential receiver object based on a magnet associated with the receiver object by correlating a shape of a voltage versus time waveform or a current versus time waveform with a reference waveform shape, wherein the voltage versus time or current versus time waveform is magnetically induced by the magnet associated with the potential receiver object; energize the power transmitting coil and attempt to communicate with the potential receiver object in response to detecting the potential receiver object; and de-energize the power transmitting coil in response to a failure in the attempt to communicate with the potential receiver object.
A communication method, by a base station, the communication method comprising: determining a quantity of symbols to be used by a user equipment 8202), UE, to communicate, over a link, uplink control information, wherein the quantity of symbols is based on a link gain of the UE, wherein the link gain is associated with the link; transmitting an indication of the quantity of symbols to the UE; and receiving the uplink control information using the determined quantity of symbols, wherein the uplink control information comprises channel information for different beams, characterized in that the different beams are for neighboring cells, and wherein the channel information comprises reference signal received power of the different beams, wherein the determination of the quantity of symbols comprises: determining the link gain; and selecting the quantity of symbols based on the determined link gain. determining a quantity of symbols to be used by a user equipment 8202), UE, to communicate, over a link, uplink control information, wherein the quantity of symbols is based on a link gain of the UE, wherein the link gain is associated with the link; transmitting an indication of the quantity of symbols to the UE; and receiving the uplink control information using the determined quantity of symbols, wherein the uplink control information comprises channel information for different beams, characterized in that the different beams are for neighboring cells, and wherein the channel information comprises reference signal received power of the different beams, wherein the determination of the quantity of symbols comprises: determining the link gain; and selecting the quantity of symbols based on the determined link gain. determining the link gain; and selecting the quantity of symbols based on the determined link gain.