mhurhangee/ep-ind-claims huggingface dataset:
A decoding system (51; 451; 1351) configured to reconstruct an n-channel audio signal on the basis of a bitstream, the decoding system comprising: a parametric-mode demultiplexer (70; 470; 1370) for receiving the bitstream and outputting, based thereon and in a parametric coding mode of the system, an encoded core signal (Ỹ) and multichannel coding parameters (α); a core signal decoder (71; 471; 1371) for receiving the encoded core signal and outputting, based thereon, an m-channel core signal, where 1 ≤ m < n; and a parametric synthesis stage (72; 472; 1372) for receiving the core signal and the multichannel coding parameters and outputting, based thereon, the n-channel signal, wherein the parametric-mode demultiplexer is further configured to output, based on the bitstream, pre-processing dynamic range control, DRC, parameters quantifying an encoder-side dynamic range limiting of the core signal, and wherein the decoding system is operable to cancel the encoder-side dynamic range limiting based on the pre-processing DRC parameters. a parametric-mode demultiplexer (70; 470; 1370) for receiving the bitstream and outputting, based thereon and in a parametric coding mode of the system, an encoded core signal (Ỹ) and multichannel coding parameters (α); a core signal decoder (71; 471; 1371) for receiving the encoded core signal and outputting, based thereon, an m-channel core signal, where 1 ≤ m < n; and a parametric synthesis stage (72; 472; 1372) for receiving the core signal and the multichannel coding parameters and outputting, based thereon, the n-channel signal, wherein the parametric-mode demultiplexer is further configured to output, based on the bitstream, pre-processing dynamic range control, DRC, parameters quantifying an encoder-side dynamic range limiting of the core signal, and wherein the decoding system is operable to cancel the encoder-side dynamic range limiting based on the pre-processing DRC parameters.
Method of X-ray crystallography for investigating microscopic crystals, in particular microscopic crystals of biological macromolecules, comprising the steps of: - extruding a sample stream with an injector nozzle device, wherein the sample stream comprises a viscous liquid with microscopic crystals embedded therein, - providing an X-ray beam and irradiating the sample stream with the X-ray beam, and - collecting diffraction image data created by diffraction of the X-ray beam by the microscopic crystals with a series of X-ray exposures of the sample stream, characterized in that - the X-ray beam is provided with a synchrotron source device, - the sample stream and the X-ray beam intersect each other at right angles, and - the sample stream is rotated about the axis of the sample stream during each X-ray exposure. - extruding a sample stream with an injector nozzle device, wherein the sample stream comprises a viscous liquid with microscopic crystals embedded therein, - providing an X-ray beam and irradiating the sample stream with the X-ray beam, and - collecting diffraction image data created by diffraction of the X-ray beam by the microscopic crystals with a series of X-ray exposures of the sample stream, characterized in that - the X-ray beam is provided with a synchrotron source device, - the sample stream and the X-ray beam intersect each other at right angles, and - the sample stream is rotated about the axis of the sample stream during each X-ray exposure.
Electrical connecting module, having: a module housing which comprises a module receptacle (103, 119, 1209) having a first electrical connection terminal (105, 107); a module element (109, 1205) having a second electrical connection terminal (111, 113) and having a third electrical connection terminal (115, 117), wherein the module element (109, 1205) can be inserted into the module receptacle (103, 119, 1209) in order to electrically connect the first connection terminal (105, 107) to the second connection terminal (111, 113), characterized in that the module element can be held in the module receptacle (103, 119) by means of a releasable latching connection, and in that the electrical connecting module has a release device for releasing the latching connection, wherein the release device comprises a pull element for pulling the module element out of the module receptacle (103, 119, 1209). a module housing which comprises a module receptacle (103, 119, 1209) having a first electrical connection terminal (105, 107); a module element (109, 1205) having a second electrical connection terminal (111, 113) and having a third electrical connection terminal (115, 117), wherein the module element (109, 1205) can be inserted into the module receptacle (103, 119, 1209) in order to electrically connect the first connection terminal (105, 107) to the second connection terminal (111, 113), characterized in that the module element can be held in the module receptacle (103, 119) by means of a releasable latching connection, and in that the electrical connecting module has a release device for releasing the latching connection, wherein the release device comprises a pull element for pulling the module element out of the module receptacle (103, 119, 1209).
A vacuum cleaner comprising: a cleaner main body; a suction device communicated with the cleaner main body; a wheel (11,12) which may move the cleaner main body; a motor (33, 34) to drive the wheel (11,12); a sensor to detect a value changed depending a movement of a detection target about a rotation center of the wheel (11, 12); and a controller which controls the motor (33, 34) according to a detecting value detected from the sensor, wherein in the case in which the detecting value exceeds a forward reference value, the controller controls the motor (33, 34) so that the cleaner main body moves forward, and in the case in which the detecting value exceeds a backward reference value, the controller controls the motor (33,34) so that the cleaner main body moves backward, characterized in that the controller determines any one of the plurality of reference values after operating the motor (33, 34) about each of the plurality of reference values and controls the motor (33, 34) depending on a size of an angle value detected from the sensor based on the determined reference value. a cleaner main body; a suction device communicated with the cleaner main body; a wheel (11,12) which may move the cleaner main body; a motor (33, 34) to drive the wheel (11,12); a sensor to detect a value changed depending a movement of a detection target about a rotation center of the wheel (11, 12); and a controller which controls the motor (33, 34) according to a detecting value detected from the sensor, wherein in the case in which the detecting value exceeds a forward reference value, the controller controls the motor (33, 34) so that the cleaner main body moves forward, and in the case in which the detecting value exceeds a backward reference value, the controller controls the motor (33,34) so that the cleaner main body moves backward, characterized in that the controller determines any one of the plurality of reference values after operating the motor (33, 34) about each of the plurality of reference values and controls the motor (33, 34) depending on a size of an angle value detected from the sensor based on the determined reference value.
An extrusion process for producing hollow pellets, the process comprising: extruding molten material through an extrusion die comprising a die orifice and an insert disposed in the die orifice; cooling the extruded molten material; and cutting the extruded molten material effective to produce a pellet having a hollow cavity; characterized in that the insert comprises a mandrel, a plurality of fins extending a length of the insert, and a plurality of fins tapers, the fins maintaining the position of the insert in the die orifice. extruding molten material through an extrusion die comprising a die orifice and an insert disposed in the die orifice; cooling the extruded molten material; and cutting the extruded molten material effective to produce a pellet having a hollow cavity; the insert comprises a mandrel, a plurality of fins extending a length of the insert, and a plurality of fins tapers, the fins maintaining the position of the insert in the die orifice.
A travel guidance apparatus comprising: a navigation-route setting unit configured to set a navigation route along which a movable body is guided and a guidance junction on the navigation route; a traffic-light-position acquiring unit configured to acquire a position of an exit-side traffic light at a preceding junction that is located closer to a departure place of the navigation route than the guidance junction; a movable-body-position acquiring unit configured to acquire a position of the movable body; a guidance-starting-point acquiring unit configured to acquire a position of a guidance starting point serving as a point determined from a position of the exit-side traffic light at the preceding junction and serving as a point where guidance on the guidance junction starts; a passage determining unit configured to determine whether or not the movable body has passed through the guidance starting point from the position of the movable body and the position of the guidance starting point; and a junction guiding unit configured to start the guidance on the guidance junction when the passage determining unit determines that the movable body has passed through the guidance starting point. a navigation-route setting unit configured to set a navigation route along which a movable body is guided and a guidance junction on the navigation route; a traffic-light-position acquiring unit configured to acquire a position of an exit-side traffic light at a preceding junction that is located closer to a departure place of the navigation route than the guidance junction; a movable-body-position acquiring unit configured to acquire a position of the movable body; a guidance-starting-point acquiring unit configured to acquire a position of a guidance starting point serving as a point determined from a position of the exit-side traffic light at the preceding junction and serving as a point where guidance on the guidance junction starts; a passage determining unit configured to determine whether or not the movable body has passed through the guidance starting point from the position of the movable body and the position of the guidance starting point; and a junction guiding unit configured to start the guidance on the guidance junction when the passage determining unit determines that the movable body has passed through the guidance starting point.
Electrically conductive or dissipative material comprising a continuous elastomer matrix and electrically conductive or dissipative polymer particles incorporated therein, where the electrically conductive or dissipative polymer particles are formed from a crosslinked elastomer and particles of an electrically conductive component.
A circuit board comprising: a substrate including a hole portion that penetrates the substrate in a thickness direction; and a connector region including a first conductor layer that closes one side of the hole portion, liquid metal that is liquid in the range of 5 to 35°C and is disposed in a recess formed by the hole portion and the first conductor layer, and a sealing layer that coats a surface of the liquid metal. a substrate including a hole portion that penetrates the substrate in a thickness direction; and a connector region including a first conductor layer that closes one side of the hole portion, liquid metal that is liquid in the range of 5 to 35°C and is disposed in a recess formed by the hole portion and the first conductor layer, and a sealing layer that coats a surface of the liquid metal. a first conductor layer that closes one side of the hole portion, liquid metal that is liquid in the range of 5 to 35°C and is disposed in a recess formed by the hole portion and the first conductor layer, and a sealing layer that coats a surface of the liquid metal.
An automation control and monitoring system, comprising: an operating system, configured to: receive a request for instantiation of an object representing an attribute of a project in the automation control and monitoring system; identify a project-level object identifier in response to receiving the request, wherein the project-level identifier is unique from any other project-level identifiers in the project; determine a project identifier to identify the project within the automation control and monitoring system, wherein the project identifier is unique from any other project identifiers within the automation control and monitoring system; and generate an object identifier when the request for instantiation is received, wherein the object identifier is unique from any other object identifiers employed by the operating system, wherein the object identifier is generated based at least in part on the project-level object identifier and the project identifier; wherein the object is associated with the generated object identifier such that any component of the automation control and monitoring system may access the object by referencing the object identifier. an operating system, configured to: receive a request for instantiation of an object representing an attribute of a project in the automation control and monitoring system; identify a project-level object identifier in response to receiving the request, wherein the project-level identifier is unique from any other project-level identifiers in the project; determine a project identifier to identify the project within the automation control and monitoring system, wherein the project identifier is unique from any other project identifiers within the automation control and monitoring system; and receive a request for instantiation of an object representing an attribute of a project in the automation control and monitoring system; identify a project-level object identifier in response to receiving the request, wherein the project-level identifier is unique from any other project-level identifiers in the project; determine a project identifier to identify the project within the automation control and monitoring system, wherein the project identifier is unique from any other project identifiers within the automation control and monitoring system; and generate an object identifier when the request for instantiation is received, wherein the object identifier is unique from any other object identifiers employed by the operating system, wherein the object identifier is generated based at least in part on the project-level object identifier and the project identifier; wherein the object is associated with the generated object identifier such that any component of the automation control and monitoring system may access the object by referencing the object identifier.
Lift control unit, which is mounted vertically on a wall in a building or in a lift cage with a button element having an upper and a lower edge region, wherein the button element comprises an activation indicating element, characterised in that the lower edge region of the button element has a shaped portion in a region in which a spacing between the lower edge region and the activation indicating element is minimal and the activation indicating element is arranged to be deeper relative to the height of the shaped portion so that the activation indicating element by virtue of the deeper arrangement relative to the height of the shaped portion is protected from a flame, which acts from below on the shaped portion of the button element, of a heat source.
A method of treating a subterranean formation penetrated by a well, the method characterized by: combining a base fluid, a viscoelastic surfactant gelling agent, and hydrophobic nanoparticles to form a treatment fluid, the hydrophobic nanoparticles comprising metallic nanoparticles, metal oxide nanoparticles or metal hydroxide nanoparticles, which are surface modified with stearic acid; and pumping the treatment fluid into the well; wherein the metallic nanoparticles, metal oxide nanoparticles or metal hydroxide nanoparticles comprise one or more of the following: an alkaline earth metal; an alkaline earth metal oxide; an alkaline earth metal hydroxide; a transition metal; a transition metal oxide; a transition metal hydroxide; aluminum; aluminum oxide; or aluminum hydroxide. combining a base fluid, a viscoelastic surfactant gelling agent, and hydrophobic nanoparticles to form a treatment fluid, the hydrophobic nanoparticles comprising metallic nanoparticles, metal oxide nanoparticles or metal hydroxide nanoparticles, which are surface modified with stearic acid; and pumping the treatment fluid into the well;
A method for wireless communication at a user equipment, UE, comprising: receiving an indication of a configuration for a control resource set used for a single carrier waveform transmission, the control resource set comprising one or more pilot regions and one or more control channel regions corresponding to the one or more pilot regions, the one or more pilot regions and the one or more control channel regions spanning a bandwidth of the single carrier waveform transmission; monitoring, based at least in part on the received indication of the configuration, the one or more pilot regions of the control resource set for a pilot signal for the UE, wherein each of the one or more pilot regions is time division multiplexed with a corresponding one of the one or more control channel regions; and decoding, based at least in part on the pilot signal, a control channel signal for the UE received in a first control channel region of the one or more control channel regions of the control resource set. receiving an indication of a configuration for a control resource set used for a single carrier waveform transmission, the control resource set comprising one or more pilot regions and one or more control channel regions corresponding to the one or more pilot regions, the one or more pilot regions and the one or more control channel regions spanning a bandwidth of the single carrier waveform transmission; monitoring, based at least in part on the received indication of the configuration, the one or more pilot regions of the control resource set for a pilot signal for the UE, wherein each of the one or more pilot regions is time division multiplexed with a corresponding one of the one or more control channel regions; and decoding, based at least in part on the pilot signal, a control channel signal for the UE received in a first control channel region of the one or more control channel regions of the control resource set.
An electrode assembly for a lithium-ion battery cell comprising a sheet-shaped current collector that has, on at least one face thereof, a positive electrode mixture agent layer containing an active material and is spirally wound, wherein the current collector has, in a portion on a side of at least one end of a winding axis, a non-mixture agent layer part having no mixture agent layer formed therein, wherein a mass per unit area of the positive electrode mixture agent layer is larger in an edge portion on the side of the non-mixture agent layer part by 0.3% or more and 1.0% or less than in a portion other than the edge portion, and wherein the edge portion of the positive electrode mixture agent layer on the side of the non-mixture agent layer part corresponds to a part within 1 mm to 5 mm from an edge of the positive electrode mixture agent layer on the side of the non-mixture agent layer part.
A cap for fitting to a pipe end to detect one or more conditions within a pipe comprising the pipe end, the cap comprising: a housing comprising a first opening at a first end thereof, the opening comprising a fitting means arranged to cooperate with a corresponding fitting means of the pipe end to secure the cap to the pipe end; and a sensor, the sensor being configured to detect one or more conditions within the pipe, wherein, when the cap is fitted to the pipe end, the sensor is arranged to detect one or more conditions within the pipe, wherein the fitting means of the first opening is a screw thread located on an internal wall of the housing, and wherein the corresponding fitting means of the pipe end is a corresponding screw thread on an external wall of the pipe end, characterised in that the cap comprises an electrical connection point for the sensor on an external wall of the cap. the cap comprising: a housing comprising a first opening at a first end thereof, the opening comprising a fitting means arranged to cooperate with a corresponding fitting means of the pipe end to secure the cap to the pipe end; and a sensor, the sensor being configured to detect one or more conditions within the pipe, a housing comprising a first opening at a first end thereof, the opening comprising a fitting means arranged to cooperate with a corresponding fitting means of the pipe end to secure the cap to the pipe end; and a sensor, the sensor being configured to detect one or more conditions within the pipe, wherein, when the cap is fitted to the pipe end, the sensor is arranged to detect one or more conditions within the pipe, wherein the fitting means of the first opening is a screw thread located on an internal wall of the housing, and wherein the corresponding fitting means of the pipe end is a corresponding screw thread on an external wall of the pipe end, characterised in that the cap comprises an electrical connection point for the sensor on an external wall of the cap.
Method for determining the ability of a liquid composition to inactivate a non-conventional transmissible agent (NCTA), comprising the following steps: a) incubating an NCTA with a composition to be tested, b) chemically and thermally detoxifying the mixture obtained at the end of step a), and c) measuring the inactivation of said NCTA in order to evaluate the inactivating power of said composition. a) incubating an NCTA with a composition to be tested, b) chemically and thermally detoxifying the mixture obtained at the end of step a), and c) measuring the inactivation of said NCTA in order to evaluate the inactivating power of said composition.
Process for producing three-dimensional objects from a powder bed by means of a binder jetting process by multiple repetition of the process steps a) selective application of a binder and subsequent or simultaneous hardening of this binder in the powder bed and b) application of a new powder layer on the surface, wherein the powder bed comprises at least one type of porous polymer particles, characterized in that these porous particles have a diameter between 10 and 500 μm and in that these porous particles comprise between 5 and 20 vol% of pores determined as specified in the description.