mhurhangee/ep-ind-claims huggingface dataset:
Sampling device for plate elements in a sorting unit, comprising: - transport means (111, 112), defining a plane, and capable of moving a plate element longitudinally from upstream to downstream, - an axis, situated at the level of the transport means (111, 112), and extending transversally, - a deviating part, mounted rotating with respect to the axis, and having at least one end, such that during the rotation of the deviating part according to a first angular sector, the horizontal projection of the end remains below the plane, and during the rotation according to a second angular sector complementary to the first angular sector, the horizontal projection of the end exceeds above the plane, so as to deviate a plate element in a direction different from the plane, and thus to sample the plate element. - transport means (111, 112), defining a plane, and capable of moving a plate element longitudinally from upstream to downstream, - an axis, situated at the level of the transport means (111, 112), and extending transversally, - a deviating part, mounted rotating with respect to the axis, and having at least one end, such that during the rotation of the deviating part according to a first angular sector, the horizontal projection of the end remains below the plane, and during the rotation according to a second angular sector complementary to the first angular sector, the horizontal projection of the end exceeds above the plane, so as to deviate a plate element in a direction different from the plane, and thus to sample the plate element.
Method for separating heavy components from a high-viscosity starting substrate of biogas plants in the interior of a fermenter by diluting the substrate to reduce the viscosity thereof and separating entrained heavy components of sand and/or split and/or stones by weight, characterised in that a dilution of fresh starting substrate takes place with fermenter content of which the viscosity has been reduced by decomposition processes in the fermenter, the fresh starting substrate and the fermenter content being mixed together by blowing in gas.
A feeder breaker comprising: a frame having a first end, a second end opposite the first end, and a material flow direction defined between the first end and the second end; a conveying assembly coupled to the frame and configured to convey a material in the material flow direction; a first crusher coupled to the frame and configured to receive the material conveyed by the conveying assembly; a second crusher coupled to the frame downstream of the first crusher in the material flow direction, the second crusher is configured to receive the material conveyed by the conveying assembly; and characterized in that a flow-limiting member coupled to the frame downstream of the first crusher in the material flow direction; wherein the flow-limiting member is configured to limit a flow of the material to the second crusher. a frame having a first end, a second end opposite the first end, and a material flow direction defined between the first end and the second end; a conveying assembly coupled to the frame and configured to convey a material in the material flow direction; a first crusher coupled to the frame and configured to receive the material conveyed by the conveying assembly; a second crusher coupled to the frame downstream of the first crusher in the material flow direction, the second crusher is configured to receive the material conveyed by the conveying assembly; and characterized in that a flow-limiting member coupled to the frame downstream of the first crusher in the material flow direction; wherein the flow-limiting member is configured to limit a flow of the material to the second crusher.
A clothes treatment apparatus comprising: a chamber forming a space for treating clothes; a circulatory flow path for guiding air for circulation through the chamber; a drying fan placed on the circulatory flow path to blow air for circulation; a cooling water pipe forming a pipeline for cooling water to flow in the circulatory flow path; a water jacket placed on the outer side of the circulatory flow path and connected to an outlet of the cooling water pipe, into which, after exchanging heat with the air in the circulatory flow path, the cooling water is introduced; and a thermoelectric pump mechanism for absorbing heat from the cooling water in the water jacket and transferring the heat to the air downstream of the cooling water pipe. a chamber forming a space for treating clothes; a circulatory flow path for guiding air for circulation through the chamber; a drying fan placed on the circulatory flow path to blow air for circulation; a cooling water pipe forming a pipeline for cooling water to flow in the circulatory flow path; a water jacket placed on the outer side of the circulatory flow path and connected to an outlet of the cooling water pipe, into which, after exchanging heat with the air in the circulatory flow path, the cooling water is introduced; and a thermoelectric pump mechanism for absorbing heat from the cooling water in the water jacket and transferring the heat to the air downstream of the cooling water pipe.
A blower unit for pneumatic mixers of granules, powders and/or liquids comprising: - a hollow element internally defining a duct, extending between an input section and an output section, for the passage of an air flow between said sections (6, 7), wherein said input section can be connected to a source of pressurised air and said output section can be connected to a manifold of a pneumatic mixer of granules, powders and/or liquids; - a shutter suitable to shut off said airflow through said output section in a controlled manner; - an actuator connected to the shutter and configured to regulate the position of said shutter; wherein said hollow element has a first end portion, at said output section, that can be reversibly coupled to a corresponding end portion of said manifold; said blower unit further comprising first reversible connecting means to establish a reciprocal connection between said end portions (16a, C1); and wherein said actuator comprises means for adjusting the travel of the shutter for defining the width of the output section, characterized by an abutment element that contrasts the movable shutter and has at least one internal stop surface, with a truncated cone or convergent shape, counter-shaped with respect to a head portion of the shutter to define at least one hermetically closed configuration of the output section, said abutment element being removable. - a hollow element internally defining a duct, extending between an input section and an output section, for the passage of an air flow between said sections (6, 7), wherein said input section can be connected to a source of pressurised air and said output section can be connected to a manifold of a pneumatic mixer of granules, powders and/or liquids; - a shutter suitable to shut off said airflow through said output section in a controlled manner; - an actuator connected to the shutter and configured to regulate the position of said shutter; wherein said hollow element has a first end portion, at said output section, that can be reversibly coupled to a corresponding end portion of said manifold; said blower unit further comprising first reversible connecting means to establish a reciprocal connection between said end portions (16a, C1); and wherein said actuator comprises means for adjusting the travel of the shutter for defining the width of the output section, characterized by an abutment element that contrasts the movable shutter and has at least one internal stop surface, with a truncated cone or convergent shape, counter-shaped with respect to a head portion of the shutter to define at least one hermetically closed configuration of the output section, said abutment element being removable.
A terminal device capable of communication using any communication method classified as vehicle-to-x (V2X), comprising: an acquisition unit configured to acquire first information relating to allocation of a resource pool that can be used by a plurality of terminal devices using the communication method and second information relating to transmit power which is associated with a beam ID of one or a plurality of transmit beams which the terminal devices use in communication using the communication method; a parameter determination unit configured to determine parameters relating to the transmit beams on a basis of the first information and the second information; and a transmission processing unit configured to perform packet transmission processing using the communication method on a basis of the determined parameters, wherein the second information includes information, relating to gain with respect to an interference protection target, which is obtained due to the transmit beam and wherein a determined parameter is the transmit power of the communication. an acquisition unit configured to acquire first information relating to allocation of a resource pool that can be used by a plurality of terminal devices using the communication method and second information relating to transmit power which is associated with a beam ID of one or a plurality of transmit beams which the terminal devices use in communication using the communication method; a parameter determination unit configured to determine parameters relating to the transmit beams on a basis of the first information and the second information; and a transmission processing unit configured to perform packet transmission processing using the communication method on a basis of the determined parameters, wherein the second information includes information, relating to gain with respect to an interference protection target, which is obtained due to the transmit beam and wherein a determined parameter is the transmit power of the communication.
A method, comprising: a) determining a received power level of each subcarrier of a signal received at a first network node; b) adjusting a Physical Layer, PHY, Margin based upon the received power level; and c) determining a data transmission rate based on the adjusted PHY Margin; wherein adjusting the PHY Margin comprises: determining whether the received signal level is lower than at least one Subcarrier Added PHY Margin SAPM Threshold; if the received power level is lower than at least one SAPM Threshold, then determining an SAPM for at least one subcarrier based upon the lowest SAPM Threshold that is greater than the received power level; determining an SNR of the channel; adding the SAPM to the SNR to determine an index value on a subcarrier by subcarrier basis; and using the index value to determine the data transmission rate to be used on a subcarrier by subcarrier basis. a) determining a received power level of each subcarrier of a signal received at a first network node; b) adjusting a Physical Layer, PHY, Margin based upon the received power level; and c) determining a data transmission rate based on the adjusted PHY Margin; determining whether the received signal level is lower than at least one Subcarrier Added PHY Margin SAPM Threshold; if the received power level is lower than at least one SAPM Threshold, then determining an SAPM for at least one subcarrier based upon the lowest SAPM Threshold that is greater than the received power level; determining an SNR of the channel; adding the SAPM to the SNR to determine an index value on a subcarrier by subcarrier basis; and using the index value to determine the data transmission rate to be used on a subcarrier by subcarrier basis.
A compressor comprising: a case; and a pair of feet (70A, 70B), wherein the feet are alternatively mountable in: a first orientation; and a second orientation orthogonal to the first orientation; wherein the case comprises a casting with internally-threaded mounting features (50 A, 50B, 52A, 52B, 54A, 54B) including a first pair (50A, 50B) laterally spaced apart and a second pair (52A, 52B) laterally spaced apart and longitudinally spaced apart from the first pair; wherein the pair of feet (70A, 70B) comprises complementary mounting features (81, 82, 83, 84, 85); and characterized in that the first pair of left and right forward mounting features (50A, 50B) and the second pair of intermediate mounting features (52A, 52B) are formed on a single island or super boss and a rearmost pair of mounting features (54A, 54B) is formed on a rear boss. a case; and a pair of feet (70A, 70B), wherein the feet are alternatively mountable in: a first orientation; and a second orientation orthogonal to the first orientation; wherein the case comprises a casting with internally-threaded mounting features (50 A, 50B, 52A, 52B, 54A, 54B) including a first pair (50A, 50B) laterally spaced apart and a second pair (52A, 52B) laterally spaced apart and longitudinally spaced apart from the first pair; wherein the pair of feet (70A, 70B) comprises complementary mounting features (81, 82, 83, 84, 85); and characterized in that the first pair of left and right forward mounting features (50A, 50B) and the second pair of intermediate mounting features (52A, 52B) are formed on a single island or super boss and a rearmost pair of mounting features (54A, 54B) is formed on a rear boss. a first orientation; and a second orientation orthogonal to the first orientation; wherein the case comprises a casting with internally-threaded mounting features (50 A, 50B, 52A, 52B, 54A, 54B) including a first pair (50A, 50B) laterally spaced apart and a second pair (52A, 52B) laterally spaced apart and longitudinally spaced apart from the first pair; wherein the pair of feet (70A, 70B) comprises complementary mounting features (81, 82, 83, 84, 85); and characterized in that the first pair of left and right forward mounting features (50A, 50B) and the second pair of intermediate mounting features (52A, 52B) are formed on a single island or super boss and a rearmost pair of mounting features (54A, 54B) is formed on a rear boss.
A terminal box (11, 21, 31, 41, 51) for a solar cell module, which contains terminals (14a, 14b) configured to derive an output from a solar cell panel to the outside, wherein: the terminal box (11, 21, 31, 41, 51) comprises a container and a lid body covering an aperture of the container; the container comprises: a first region in which a first terminal configured to connect a first output conductor of the solar cell panel is disposed; a second region in which a second terminal configured to connect a second output conductor of the solar cell panel is disposed; and a partitioning portion provided so as to partition the first region and the second region and including a groove on an aperture surface of the container; and the terminal box (11, 21, 31, 41, 51) is mounted onto a non-light-receiving surface of a solar cell panel, characterized in that the lid body includes a projection contained in the groove, and the lid body includes, between the projection and the partitioning portion, a penetration hole communicated with the outside. the terminal box (11, 21, 31, 41, 51) comprises a container and a lid body covering an aperture of the container; the container comprises: a first region in which a first terminal configured to connect a first output conductor of the solar cell panel is disposed; a second region in which a second terminal configured to connect a second output conductor of the solar cell panel is disposed; and a partitioning portion provided so as to partition the first region and the second region and including a groove on an aperture surface of the container; and a first region in which a first terminal configured to connect a first output conductor of the solar cell panel is disposed; a second region in which a second terminal configured to connect a second output conductor of the solar cell panel is disposed; and a partitioning portion provided so as to partition the first region and the second region and including a groove on an aperture surface of the container; and the terminal box (11, 21, 31, 41, 51) is mounted onto a non-light-receiving surface of a solar cell panel, characterized in that the lid body includes a projection contained in the groove, and the lid body includes, between the projection and the partitioning portion, a penetration hole communicated with the outside.
A wind turbine generator system comprising: a power supply operatively coupled to primary and ancillary turbine systems (245,255); an uninterruptible power supply device operatively coupled to ancillary turbine systems; a nacelle supporting one or more turbine blades and having a turbine blade pitch controller controlling a hydraulic turbine pitch drive circuit for each of the turbine blades and configured to actuate the blade between a zero feather position and a full feather position; a turbine controller configured to control ancillary turbine systems that are driven by the power supply during ordinary operation and in coordination with the uninterruptible power supply during a voltage irregularity; wherein the turbine controller is also configured to control primary turbine systems including a turbine blade pitch control system, wherein the turbine controller maintains consistent operating characteristics through the power supply powering the primary turbine systems independent of the uninterruptible power supply device during both normal operation and voltage irregularities. a power supply operatively coupled to primary and ancillary turbine systems (245,255); an uninterruptible power supply device operatively coupled to ancillary turbine systems; a nacelle supporting one or more turbine blades and having a turbine blade pitch controller controlling a hydraulic turbine pitch drive circuit for each of the turbine blades and configured to actuate the blade between a zero feather position and a full feather position; a turbine controller configured to control ancillary turbine systems that are driven by the power supply during ordinary operation and in coordination with the uninterruptible power supply during a voltage irregularity; wherein the turbine controller is also configured to control primary turbine systems including a turbine blade pitch control system, wherein the turbine controller maintains consistent operating characteristics through the power supply powering the primary turbine systems independent of the uninterruptible power supply device during both normal operation and voltage irregularities.
System comprising an autonomous device and an operator interface device connected via a communication network, wherein the autonomous device is configured to operate in an autonomous operating mode controlled by an autonomous control program as well as in an at least partially remotely controlled tele-operating mode; and the operator interface device is configured to enable an operator to at least partially control the autonomous device in the tele-operating mode; characterized in that the autonomous device is configured to interact with at least one person in the environment of the autonomous device; and the system further comprises an operator style evaluation module (5, 21) configured to analyze the interaction of the autonomous device with the at least one person while operating in the tele-operating mode under control of the operator by determining differences between an action performed by the autonomous device in the tele-operating mode and at least one of predetermined default actions, predicted actions and a database storing typical actions, and to generate operator style aspect data associated with the operator and the at least one person based on the determined differences; and an operator style imitation module (18, 33) configured to adapt the autonomous control program based on the operator style aspect data generated by the operator style evaluation module (5, 21) when controlling the interaction with the at least one person in the autonomous operating mode. the autonomous device is configured to operate in an autonomous operating mode controlled by an autonomous control program as well as in an at least partially remotely controlled tele-operating mode; and the operator interface device is configured to enable an operator to at least partially control the autonomous device in the tele-operating mode; an operator style evaluation module (5, 21) configured to analyze the interaction of the autonomous device with the at least one person while operating in the tele-operating mode under control of the operator by determining differences between an action performed by the autonomous device in the tele-operating mode and at least one of predetermined default actions, predicted actions and a database storing typical actions, and to generate operator style aspect data associated with the operator and the at least one person based on the determined differences; and an operator style imitation module (18, 33) configured to adapt the autonomous control program based on the operator style aspect data generated by the operator style evaluation module (5, 21) when controlling the interaction with the at least one person in the autonomous operating mode.
An electrochemically active material represented by general formula: Si u Sn v M 1w M 2x [P 0.2 O 0.8] y • A z where u, v, w, x, y, and z represent atomic % values and u + v + w + x + y + z = 100; M 1 comprises a metal element or combinations of metal elements selected from Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zr, B, carbon, or alloys thereof; M 2 comprises a metal element or combinations of metal elements selected from Mg, Al, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Zr, or alloys thereof; A is an inactive phase other than a phosphate or silicide; and 0 < u < 90, 0 ≤ v < 20, 0 < w < 50, 0 < x < 20, 0 < y < 20, and 0 ≤ z < 50; wherein the electrochemically active material comprises an inactive phase comprising one or more electrochemically inactive chemical elements, wherein the term "inactive phase" refers to a phase that does not electrochemically react or alloy with lithium at voltages between 0 V and 2 V versus lithium metal during charging and discharging in a lithium ion battery; wherein the inactive phase accounts for between 30 vol. % and 70 vol. % of the active material, based on the total volume of the active material, as determined by the method defined in the description; and wherein the inactive phase comprises a conducting phase that accounts for between 1 vol. % and 60 vol. % of the active material, based on the total volume of the active material, as determined by the method defined in the description. where u, v, w, x, y, and z represent atomic % values and u + v + w + x + y + z = 100; M 1 comprises a metal element or combinations of metal elements selected from Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zr, B, carbon, or alloys thereof; M 2 comprises a metal element or combinations of metal elements selected from Mg, Al, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Zr, or alloys thereof; A is an inactive phase other than a phosphate or silicide; and 0 < u < 90, 0 ≤ v < 20, 0 < w < 50, 0 < x < 20, 0 < y < 20, and 0 ≤ z < 50; wherein the electrochemically active material comprises an inactive phase comprising one or more electrochemically inactive chemical elements, wherein the term "inactive phase" refers to a phase that does not electrochemically react or alloy with lithium at voltages between 0 V and 2 V versus lithium metal during charging and discharging in a lithium ion battery; wherein the inactive phase accounts for between 30 vol. % and 70 vol. % of the active material, based on the total volume of the active material, as determined by the method defined in the description; and wherein the inactive phase comprises a conducting phase that accounts for between 1 vol. % and 60 vol. % of the active material, based on the total volume of the active material, as determined by the method defined in the description.