mhurhangee/ep-ind-claims huggingface dataset:
A device for sensing the pressure of a medium within a fluid medium received in a container, comprising a screen and a pressure sensor associated with or joined thereto, wherein the screen shields the pressure sensor at least on one side from swirls formed in the medium, for example during filling or emptying of the container, wherein the pressure sensor communicates with an external data-processing unit for evaluation of sensor data, and the screen is designed to be connectible to a pump lance of a container pump in the region of a pump foot and, in the connected state, forms together with said pump lance a measuring chamber in which the pressure sensor is received, wherein the screen is large enough to define a flow-free region within the medium and, in the connected state, is open at the top and has a compensating bore as a through-opening in the lower region. wherein the pressure sensor communicates with an external data-processing unit for evaluation of sensor data, and the screen is designed to be connectible to a pump lance of a container pump in the region of a pump foot and, in the connected state, forms together with said pump lance a measuring chamber in which the pressure sensor is received, wherein the screen is large enough to define a flow-free region within the medium and, in the connected state, is open at the top and has a compensating bore as a through-opening in the lower region.
Plastic container with a cut neck, which container has been shaped to form the desired plastic container, in a stretch blow-moulding process, from a preform which has been produced in a plastic injection-moulding process or an impact extrusion process and which, immediately after its manufacture or in a chronologically or spatially separated manner, has been inserted in a mould cavity of a blow-moulding tool of a stretch blow-moulding device and inflated in accordance with said mould cavity with the aid of a blowing medium by excess pressure, stretched with a stretching mandrel and removed from the mould; and which container has been shaped, after that, by the cutting-off of a superfluous section which comprises an injection-moulded neck part of the preform, characterised in that a neck of the stretch blow-moulded plastic container, which neck is left after the cutting-off operation, has, underneath the cut edge of said neck, a taper which runs round substantially radially at its outer wall and which forms, on the opposed inner wall, a step which runs round substantially radially and which is designed to interact with a sealing cone which protrudes downwards from an occluding part (30, 31, 33) which can be mounted on the cut neck of the plastic container.
Postal sorting equipment comprising a sorting machine with an unstacking member and a feed magazine in which mailpieces are placed in a stack and on edge for unstacking by the unstacking member, the equipment further comprising storage trays for storing mailpieces and for bringing them into the feed magazine; said postal sorting equipment being characterized in that the feed magazine has a deck with a first deck portion and a second deck portion, the first deck portion extending in a such a manner as to be superposed above the second deck portion; in that each tray has a bottom shaped to define a groove that is open to one side and to the top of the tray and on which the mailpieces stand in a stack and on edge; and in that the first deck portion is designed to fit into the groove in the tray via the front so that when said tray filled with mailpieces in a stack and on edge is standing on the second deck portion, the mailpieces stand on said first deck portion.
A turbine bucket comprising: a platform portion; an airfoil extending radially outward from the platform portion; wherein the airfoil comprises a leading edge, a suction side and a pressure side, the platform portion comprising a leading edge of the platform portion disposed adjacent the leading edge of the airfoil, an upstream edge disposed adjacent the pressure side of the airfoil, and a downstream edge adjacent the suction side of the airfoil, wherein at least one recess (192, 194) extends radially inward into the platform portion at the leading edge of the platform portion, characterized in that the at least one recess includes: a downstream recess extending from the leading edge to a downstream edge of the platform portion and angled at an angle (α) between 45 ° and 80° relative to the platform leading edge in a tangential plane on the platform, and an upstream recess extending from the leading edge of the platform portion to the upstream edge of the platform portion and angled at an angle (β) between 90° and 120° relative to the platform leading edge in a tangential plane on the platform, wherein further the at least one recess extends radially inward into the platform portion to a depth up to 2,54 mm (100 mil). a platform portion; an airfoil extending radially outward from the platform portion; wherein the airfoil comprises a leading edge, a suction side and a pressure side, the platform portion comprising a leading edge of the platform portion disposed adjacent the leading edge of the airfoil, an upstream edge disposed adjacent the pressure side of the airfoil, and a downstream edge adjacent the suction side of the airfoil, wherein at least one recess (192, 194) extends radially inward into the platform portion at the leading edge of the platform portion, characterized in that the at least one recess includes: a downstream recess extending from the leading edge to a downstream edge of the platform portion and angled at an angle (α) between 45 ° and 80° relative to the platform leading edge in a tangential plane on the platform, and an upstream recess extending from the leading edge of the platform portion to the upstream edge of the platform portion and angled at an angle (β) between 90° and 120° relative to the platform leading edge in a tangential plane on the platform, a downstream recess extending from the leading edge to a downstream edge of the platform portion and angled at an angle (α) between 45 ° and 80° relative to the platform leading edge in a tangential plane on the platform, and an upstream recess extending from the leading edge of the platform portion to the upstream edge of the platform portion and angled at an angle (β) between 90° and 120° relative to the platform leading edge in a tangential plane on the platform, wherein further the at least one recess extends radially inward into the platform portion to a depth up to 2,54 mm (100 mil).
A method for controlling pellet quality in iron ore production, comprising the following steps (i) mixing water, binder and iron ore particles in at least one mixer to form a mixture and (ii) pelletizing/balling the mixture into green pellets, characterized in that between step (i) and step (ii) a part of the mixture is taken in a sampling operation, formed into a test specimen and subjected to a test and that test specimen is subjected to a pressure test. (i) mixing water, binder and iron ore particles in at least one mixer to form a mixture and (ii) pelletizing/balling the mixture into green pellets,
Method for sowing an individual seed in a seed location, comprising - arranging a seed on a surface adjacent to an opening that leads to a guide channel that extends to the seed location; - flushing the seed from the surface into the opening by directing a fluid over the surface in the direction of the opening; and, - guiding the seed that is flushed into the opening to a seed location by means of the guide channel, wherein - the surface is a conveyor surface, characterised in that - the seed is conveyed along the opening on the conveyor surface in a conveying direction; - the seed is flushed into the opening when the seed is adjacent to the opening; and in that - the fluid is directed transverse to the conveying direction. - arranging a seed on a surface adjacent to an opening that leads to a guide channel that extends to the seed location; - flushing the seed from the surface into the opening by directing a fluid over the surface in the direction of the opening; and, - guiding the seed that is flushed into the opening to a seed location by means of the guide channel, wherein - the surface is a conveyor surface, characterised in that - the seed is conveyed along the opening on the conveyor surface in a conveying direction; - the seed is flushed into the opening when the seed is adjacent to the opening; and in that - the fluid is directed transverse to the conveying direction.
An inductive power transfer pad, in particular a transfer pad of a system (1, 11, 12) for inductive power transfer to a vehicle, comprising a stationary part and a movable part, wherein the movable part comprises a primary winding structure for generating a magnetic or electromagnetic field while an electric current flows through windings of the primary winding structure, wherein the inductive power transfer pad comprises at least one actuator (14; 44) for actuating motion of the movable part, wherein the movable part is movable at least into a first direction by the at least one actuator (14; 44) so as to move between a retracted state and an extended state, wherein the inductive power transfer pad comprises a cleaning device integrated in the inductive power transfer pad, characterized in that the cleaning device is adapted to remove foreign matters from a space between the stationary part and the movable part. wherein the inductive power transfer pad comprises a cleaning device integrated in the inductive power transfer pad, characterized in that the cleaning device is adapted to remove foreign matters from a space between the stationary part and the movable part.
An optical polarisation-insensitive routing device for routing of one or more optical telecommunication signal beams, the routing device comprising: a silicon backplane including a plurality of reflective pixel electrodes and drive electronics to drive the reflective pixel electrodes; a transparent layer arranged opposite to the silicon backplane and comprising at least one transparent counter electrode; and a variable refractive index layer disposed between the plurality of reflective pixel electrodes and the transparent counter electrode, wherein the variable refractive index layer is formed of a blue phase liquid crystal material exhibiting a first, isotropic refractive index in the absence of an electric field and a second, different refractive index under an electric field applied by the pixel and counter electrodes, wherein the second, different refractive index is isotropic in the plane perpendicular to the direction of the applied electric field; and drive means to apply a square waveform to said counter electrode that alternates between a first voltage above a given device supply voltage and a smaller second voltage below ground, and wherein a rectangular waveform of a variable mark-to-space ratio is applied to the reflective pixel electrodes that alternates between said device supply voltage and ground, whereby an asymmetrically timed waveform is provided across the blue phase liquid crystal material layer which has a variable RMS value with a constant offset. a silicon backplane including a plurality of reflective pixel electrodes and drive electronics to drive the reflective pixel electrodes; a transparent layer arranged opposite to the silicon backplane and comprising at least one transparent counter electrode; and a variable refractive index layer disposed between the plurality of reflective pixel electrodes and the transparent counter electrode, wherein the variable refractive index layer is formed of a blue phase liquid crystal material exhibiting a first, isotropic refractive index in the absence of an electric field and a second, different refractive index under an electric field applied by the pixel and counter electrodes, wherein the second, different refractive index is isotropic in the plane perpendicular to the direction of the applied electric field; and drive means to apply a square waveform to said counter electrode that alternates between a first voltage above a given device supply voltage and a smaller second voltage below ground, and wherein a rectangular waveform of a variable mark-to-space ratio is applied to the reflective pixel electrodes that alternates between said device supply voltage and ground, whereby an asymmetrically timed waveform is provided across the blue phase liquid crystal material layer which has a variable RMS value with a constant offset.
A system, comprising: a wearable electronic device (100, 300, 402, 452, 502, 552) including: a memory (104, 304) configured to store at least outbound identity information related to a user of the wearable electronic device; an encoder (106, 306, 406, 506) configured to associate at least the outbound identity information from the memory with an outbound optical signal pattern by encoding the outbound identity information from the memory in the outbound optical signal pattern; and an optical signal transmitter (108, 308, 408, 508) configured to broadcast the outbound optical signal pattern; an optical signal receiver (256, 356, 456, 556) of the wearable electronic device, the optical signal receiver is configured to receive an inbound optical signal pattern; a decoder (254, 354, 454, 554) of the wearable electronic device, the decoder is configured to access inbound identity information associated with the inbound optical signal pattern; and a location module configured to determine a location of the wearable electronic device and characterized in that the decoder (254, 354, 454, 554) is configured to interpret the inbound optical signal pattern based on the location of the wearable electronic device. a memory (104, 304) configured to store at least outbound identity information related to a user of the wearable electronic device; an encoder (106, 306, 406, 506) configured to associate at least the outbound identity information from the memory with an outbound optical signal pattern by encoding the outbound identity information from the memory in the outbound optical signal pattern; and an optical signal transmitter (108, 308, 408, 508) configured to broadcast the outbound optical signal pattern; an optical signal receiver (256, 356, 456, 556) of the wearable electronic device, the optical signal receiver is configured to receive an inbound optical signal pattern; a decoder (254, 354, 454, 554) of the wearable electronic device, the decoder is configured to access inbound identity information associated with the inbound optical signal pattern; and a location module configured to determine a location of the wearable electronic device and characterized in that the decoder (254, 354, 454, 554) is configured to interpret the inbound optical signal pattern based on the location of the wearable electronic device.
A method for manufacturing a pipe material comprising: a step of preparing a long, solid raw material made of a steel material containing 0.05 to 0.25 weight% C; a raw material cutting step of cutting the raw material to form a solid billet; a hollowing processing step of processing the billet into a hollow blank (920, 940); and an extrusion step of performing extrusion molding on the blank (920, 940) to have a tubular shape, characterized in that the extrusion step is performed at a temperature range between 600 and 650° C. a step of preparing a long, solid raw material made of a steel material containing 0.05 to 0.25 weight% C; a raw material cutting step of cutting the raw material to form a solid billet; a hollowing processing step of processing the billet into a hollow blank (920, 940); and an extrusion step of performing extrusion molding on the blank (920, 940) to have a tubular shape,
A method of operating a communications device configured to transmit data to a wireless communications network via a wireless access interface, the method comprising operating in accordance with a configured grant, CG, mode of operation, the CG mode of operation comprising determining a sequence of time instances of uplink communications resources of the wireless access interface and transmitting signals to the wireless communications network in at least one instance of the sequence of time instances of uplink communications resources of the wireless access interface, transmitting uplink data to the wireless communications network in two or more instances of the sequence of time instances of uplink communications resources of the wireless access interface as a plurality of repetitions of the uplink data, and transmitting one or more of a plurality of versions of uplink control information, CG-UCI, associated with the uplink data to the wireless communications network, each version of CG-UCI being associated with a plurality of instances of the sequence of time instances of uplink communications resources of the wireless access interface, wherein the one or more transmitted versions of CG-UCI are each repeated a plurality of times during the transmission of the uplink data. operating in accordance with a configured grant, CG, mode of operation, the CG mode of operation comprising determining a sequence of time instances of uplink communications resources of the wireless access interface and transmitting signals to the wireless communications network in at least one instance of the sequence of time instances of uplink communications resources of the wireless access interface, transmitting uplink data to the wireless communications network in two or more instances of the sequence of time instances of uplink communications resources of the wireless access interface as a plurality of repetitions of the uplink data, and transmitting one or more of a plurality of versions of uplink control information, CG-UCI, associated with the uplink data to the wireless communications network, each version of CG-UCI being associated with a plurality of instances of the sequence of time instances of uplink communications resources of the wireless access interface, wherein the one or more transmitted versions of CG-UCI are each repeated a plurality of times during the transmission of the uplink data.
An optoelectronic circuit (30; 40) intended to receive a variable voltage (V ALIM) containing an alternation of increase and decrease phases, the optoelectronic circuit comprising: - an alternation of N resistive elements (R i) and of N sets (D i) of light-emitting diodes, the resistive elements (R i) being series-assembled with the sets (D i), each set (D i) comprising two terminals, each i th resistive element (R i), for i in the range from 1 to N-1, being interposed between two successive sets (D i); - a transistor (T i) for each set (D i) from among a plurality of said sets (D i), characterized in that the transistor (T i) is a depletion metal-oxide gate field effect transistor having its drain and its source coupled to the terminals of said set and having its gate coupled to one of the terminals of the next set, and in that for at least some of the transistors (T i), an additional resistive element (R' i) is coupled between the drain or the source of the transistor and one of the terminals of said set (D i). - an alternation of N resistive elements (R i) and of N sets (D i) of light-emitting diodes, the resistive elements (R i) being series-assembled with the sets (D i), each set (D i) comprising two terminals, each i th resistive element (R i), for i in the range from 1 to N-1, being interposed between two successive sets (D i); - a transistor (T i) for each set (D i) from among a plurality of said sets (D i), characterized in that
Electrical energy store comprising a battery cell module, in particular a lithium-ion battery cell module, as well as a casing made of an electrically insulating material which surrounds the battery cell module, wherein the casing has an opening whose projection area corresponds essentially to a cross-sectional area of the battery cell module which runs perpendicularly with respect to the projection direction, wherein the battery cell module has terminals which are arranged on one of the surfaces of the battery cell module, wherein the opening in the casing is formed on a surface of the battery cell module lying opposite said surface, wherein the casing has, on the surface of the battery cell module provided with the terminals, at least one cutout for feeding through the terminals, characterized in that the casing has at least one clip which is connected to the edge of a cutout, wherein the clip runs, at least with one component of its direction of extent, parallel to the terminal which extends through the cutout on which the clip is arranged.
A method in a terminal evaluation unit for detecting a malfunctioning terminal in a cellular network, the method comprising: - receiving connection data from at least one network node in said cellular network, wherein said connection data is referring to connections of terminals when present in cells of said cellular network; - calculating, based on said connection data, a mean connection drop rate for said terminals when present at least in a first cell of said cells of said cellular network during a first time period; - determining, from said connection data, an individual terminal connection drop rate associated with a first terminal in said first time period for at least one of said first cells; - deciding, whether or not said first terminal is malfunctioning, based on a ratio between said individual terminal connection drop rate and said mean drop rate; and - providing, a result from the deciding to an operator of said cellular network, wherein a first terminal is selected for deciding whether or not to be malfunctioning based on at least one of: the number of cells wherein connections have been established by said first terminal in said first time period, and the number of connection establishments performed by said first terminal in said first time period. - receiving connection data from at least one network node in said cellular network, wherein said connection data is referring to connections of terminals when present in cells of said cellular network; - calculating, based on said connection data, a mean connection drop rate for said terminals when present at least in a first cell of said cells of said cellular network during a first time period; - determining, from said connection data, an individual terminal connection drop rate associated with a first terminal in said first time period for at least one of said first cells; - deciding, whether or not said first terminal is malfunctioning, based on a ratio between said individual terminal connection drop rate and said mean drop rate; and - providing, a result from the deciding to an operator of said cellular network, wherein a first terminal is selected for deciding whether or not to be malfunctioning based on at least one of: the number of cells wherein connections have been established by said first terminal in said first time period, and the number of connection establishments performed by said first terminal in said first time period.