mhurhangee/ep-ind-claims huggingface dataset:
A switchgear, comprising: a housing having a top plate, a floor plate, and a side wall, and having an aperture portion comprising a floor face aperture portion provided in the floor plate and a side face aperture portion provided in the side wall; a cover member (2, 3, 4) detachably attached to the housing so as to cover the aperture portion; and a terminal disposed in an interior of the housing and configured to be connected to an external cable, wherein one portion of the floor face aperture portion comprises a draw-in portion having an opening to pass through the external cable in a state in which the cover member (2, 3, 4) is attached, the side face aperture portion is provided in the side wall forming a front face side of the housing, and characterised in that the cover member (2, 3, 4) includes an L-form frame detachably attached to a lower portion of the side wall, a cover provided on a floor face side of the housing so as to overlap with one portion of the L-form frame, and a front face panel provided on an upper portion of the L-form frame on the front face side of the housing, and a ground bus is attached to the L-form frame in a place on an inner side of the housing in a state in which the L-form frame is attached to the housing. a housing having a top plate, a floor plate, and a side wall, and having an aperture portion comprising a floor face aperture portion provided in the floor plate and a side face aperture portion provided in the side wall; a cover member (2, 3, 4) detachably attached to the housing so as to cover the aperture portion; and a terminal disposed in an interior of the housing and configured to be connected to an external cable, wherein one portion of the floor face aperture portion comprises a draw-in portion having an opening to pass through the external cable in a state in which the cover member (2, 3, 4) is attached, the side face aperture portion is provided in the side wall forming a front face side of the housing, and characterised in that the cover member (2, 3, 4) includes an L-form frame detachably attached to a lower portion of the side wall, a cover provided on a floor face side of the housing so as to overlap with one portion of the L-form frame, and a front face panel provided on an upper portion of the L-form frame on the front face side of the housing, and a ground bus is attached to the L-form frame in a place on an inner side of the housing in a state in which the L-form frame is attached to the housing.
An industry automation apparatus configured to be redundantly connected via a communication network to another apparatus, the communication network comprising two or more functionally equivalent network entities grouped in a first network entity set and a second network entity set disjoint to the first network entity set, the industry automation apparatus comprising a first radio interface configured to connect to the communication network, wherein the first network entity set and the first radio interface are associated with a first redundancy group; a second radio interface configured to connect to the communication network in parallel to the first radio interface, wherein the second network entity set and the second radio interface are associated with a second redundancy group; at least one controller (230, 280) configured to control the first radio interface, based on first control information received from the first network entity set, to be connected via the first network entity set to the other apparatus and to control the second radio interface, based on second control information received from the second network entity set, to be connected via the second network entity set to the other apparatus; the industry automation apparatus is further configured to: - receive third control information associating the first radio interface with the first redundancy group; and - receive fourth control information associating the second radio interface with the second redundancy group, wherein the at least one controller is configured to: - control the first radio interface based on the received third control information to be connected via the first network entity set; and - control the second radio interface based on the received fourth control information to be connected via the second network entity set. - receive third control information associating the first radio interface with the first redundancy group; and - receive fourth control information associating the second radio interface with the second redundancy group, - control the first radio interface based on the received third control information to be connected via the first network entity set; and - control the second radio interface based on the received fourth control information to be connected via the second network entity set.
A method of processing a lignocellulosic material comprising: wet milling a reduced recalcitrance lignocellulosic material and applying a jet mixer during the wet milling; adding an enzyme to the lignocellulosic material after wet milling; and adding a microorganism to the lignocellulosic material or a sugar derived from the lignocellulosic material after wet milling has been completed. wet milling a reduced recalcitrance lignocellulosic material and applying a jet mixer during the wet milling; adding an enzyme to the lignocellulosic material after wet milling; and adding a microorganism to the lignocellulosic material or a sugar derived from the lignocellulosic material after wet milling has been completed.
A device for thermal adaptation, comprising at least one surface element (100; 300; 500) arranged to assume a determined thermal distribution, said surface element comprising a first heat conducting layer, a second heat conducting layer, said first and second heat conducting layer being mutually thermally isolated by means of an intermediate insulation layer, wherein at least one thermoelectric element (150; 450a, 450b, 450c) is arranged to generate a predetermined temperature gradient to a portion of said first layer, characterized by said first layer and said second layer having anisotropic heat conduction such that heat conduction mainly occurs in the main direction of propagation of the respective layer (110, 120), the device further comprising an intermediate heat conducting element arranged in the insulation layer between the thermoelectric element (150; 450a, 450b, 450c) and the second heat conducting layer, and having anisotropic heat conduction such that heat conduction mainly occurs crosswise to the main direction of propagation of the second heat conducting layer.
An apparatus for supporting a gearbox, comprising: a gearbox carrier having a central axis, the carrier configured to mount one or more rotating gears (12, 18, 22) therein, the carrier including spaced-apart forward and aft walls (26, 28), and a center plate disposed halfway between the forward and aft walls (26, 28) in an axial direction with respect to the central axis; an annular support ring disposed axially adjacent to the carrier; and a plurality of axially-extending torque fingers interconnecting the support ring and the center plate. a gearbox carrier having a central axis, the carrier configured to mount one or more rotating gears (12, 18, 22) therein, the carrier including spaced-apart forward and aft walls (26, 28), and a center plate disposed halfway between the forward and aft walls (26, 28) in an axial direction with respect to the central axis; an annular support ring disposed axially adjacent to the carrier; and a plurality of axially-extending torque fingers interconnecting the support ring and the center plate.
A coated building panel comprising: a body comprising an upper surface opposite a lower surface and a side surface extending between the upper surface and the lower surface; a surface coating atop the upper surface, the surface coating comprising: inorganic pigment; and an anionic polymeric dispersant comprising a polymer backbone and pendant side chains extending from the polymer backbone and wherein anionic groups are located on the terminal ends of the pendant side-chains; wherein the surface coating comprises a liquid carrier in an amount less than about 1 wt. % based on the total weight of the surface coating. a body comprising an upper surface opposite a lower surface and a side surface extending between the upper surface and the lower surface; a surface coating atop the upper surface, the surface coating comprising: inorganic pigment; and an anionic polymeric dispersant comprising a polymer backbone and pendant side chains extending from the polymer backbone and wherein anionic groups are located on the terminal ends of the pendant side-chains; inorganic pigment; and an anionic polymeric dispersant comprising a polymer backbone and pendant side chains extending from the polymer backbone and wherein anionic groups are located on the terminal ends of the pendant side-chains; wherein the surface coating comprises a liquid carrier in an amount less than about 1 wt. % based on the total weight of the surface coating.
A method of PET or SPECT imaging comprising the steps of: collecting a set of data points indicative of received nuclear decay events; time stamping the received events; sorting the data points by time of detection; reconstructing an image representation from an adjustable portion of the collected data points, the adjustable portion being defined by a temporal window within a time span of the data acquisition; analyzing the image representation to determine a value of a parameter indicative of image representation quality for the reconstructed image representation; and adjusting the adjustable portion of the collected data points, and reconstructing from the adjusted portion a subsequent image representation, the adjustable portion being adjusted by adjusting the start and/or the end of the temporal window;: analyzing the subsequent image representation to determine a value of the parameter for the subsequent image representation, and in response to the value of the parameter for the subsequent image representation and the value of the parameter for its previous image representation indicating that the subsequent image is better than the previous image, adjusting the temporal window and generating another image representation; and iteratively repeating the steps of adjusting, reconstructing, and analyzing until an image representation with a value of the parameter is one of optimized or exceeds a selected threshold; and wherein the parameter is a contrast-to-noise ratio of the image representation. collecting a set of data points indicative of received nuclear decay events; time stamping the received events; sorting the data points by time of detection; reconstructing an image representation from an adjustable portion of the collected data points, the adjustable portion being defined by a temporal window within a time span of the data acquisition; analyzing the image representation to determine a value of a parameter indicative of image representation quality for the reconstructed image representation; and adjusting the adjustable portion of the collected data points, and reconstructing from the adjusted portion a subsequent image representation, the adjustable portion being adjusted by adjusting the start and/or the end of the temporal window;: analyzing the subsequent image representation to determine a value of the parameter for the subsequent image representation, and in response to the value of the parameter for the subsequent image representation and the value of the parameter for its previous image representation indicating that the subsequent image is better than the previous image, adjusting the temporal window and generating another image representation; and iteratively repeating the steps of adjusting, reconstructing, and analyzing until an image representation with a value of the parameter is one of optimized or exceeds a selected threshold;
A rubber composition comprising: a. at least one rubber; b. reinforcing silica filler in an amount of about 5 to about 200 phr; and c. a whey protein component in an amount sufficient to provide about 0.1 to about 10 phr whey protein. a. at least one rubber; b. reinforcing silica filler in an amount of about 5 to about 200 phr; and c. a whey protein component in an amount sufficient to provide about 0.1 to about 10 phr whey protein.
A method for compensating a flow rate at a neutral position of an operation leve of construction equipment, in which the construction equipment has a hydraulic pump connected to an engine, an actuator connected to the hydraulic pump and driving a working unit, a control valve installed on a fluid channel between the hydraulic pump and the actuator, the operation lever manipulated by an operator and generating an operating signal (p i) for driving the working unit, 0means for detecting an operating amount of the operation lever, means for detecting RPM (revolutions per minute) of the engine, a controller controlling the control valve in response to the operating signal (p i) depending on the operating amount of the operation lever and the detecting signal depending on the RPM of the engine, the method comprising the steps of: setting a first flow rate (q) required according to the operating amount of the operation leve, characterized by: setting a second flow rate q n required according to the RPM of the engine; evaluating whether the operation lever is located at the neutral position by the operating signal (p i) and when the operation lever is located at the neutral position, controlling a displacement of the hydraulic pump to discharge a minimum flow rate from the hydraulic pump: when the operation lever is not located at the neutral position and when the second flow rate (q n) for compensating the engine rpm is more than the first flow rate (q) for the operation lever, controlling the hydraulic pump to discharge the second flow rate for compensating the engine rpm (q n); and when the operation lever is not located at the neutral position and when the first flow rate (q) for the operation lever is more than the second flow rate (q n) for compensating the engine rpm, controlling the hydraulic pump to discharge the flow rate (q) corresponding to the operating amount of the operation lever. setting a first flow rate (q) required according to the operating amount of the operation leve, characterized by: setting a second flow rate q n required according to the RPM of the engine; evaluating whether the operation lever is located at the neutral position by the operating signal (p i) and when the operation lever is located at the neutral position, controlling a displacement of the hydraulic pump to discharge a minimum flow rate from the hydraulic pump: when the operation lever is not located at the neutral position and when the second flow rate (q n) for compensating the engine rpm is more than the first flow rate (q) for the operation lever, controlling the hydraulic pump to discharge the second flow rate for compensating the engine rpm (q n); and when the operation lever is not located at the neutral position and when the first flow rate (q) for the operation lever is more than the second flow rate (q n) for compensating the engine rpm, controlling the hydraulic pump to discharge the flow rate (q) corresponding to the operating amount of the operation lever.
An underwater detection apparatus, comprising: a transmitter configured to transmit two transmission beams having different beam widths; a receiver configured to obtain receive signals based on reflections of the transmission beams; a target detecting module configured to detect an underwater target object based at least in part on the receive signals; a density index value estimation module (12, 15, 16) configured to estimate a density index value of objects within a given area in a vicinity of the underwater target object; and a size index value calculation module configured to calculate a size index value of the underwater target object based at least in part on the density index value and a target object signal intensity representing a maximum intensity of the receive signals corresponding to the underwater target object, characterized in that: the size index value calculation module reduces the size index value of the underwater target object when the density index value is above a given value. a transmitter configured to transmit two transmission beams having different beam widths; a receiver configured to obtain receive signals based on reflections of the transmission beams; a target detecting module configured to detect an underwater target object based at least in part on the receive signals; a density index value estimation module (12, 15, 16) configured to estimate a density index value of objects within a given area in a vicinity of the underwater target object; and a size index value calculation module configured to calculate a size index value of the underwater target object based at least in part on the density index value and a target object signal intensity representing a maximum intensity of the receive signals corresponding to the underwater target object, characterized in that: the size index value calculation module reduces the size index value of the underwater target object when the density index value is above a given value.
At a computer system including one or more processors and system memory, the computer system including a plurality of electronic message classification rules, a method for adaptively selecting rules used to classify electronic messages, the method comprising: an act of receiving one or more electronic messages; for each of the one or more electronic messages, an act of calculating a result indicating a likelihood of the electronic message having a specified message characteristic by applying each message classification rule in a previously selected subset of electronic message classification rules; an act of measuring a resource cost indicating an amount of resources consumed to apply each electronic message classification rule to each of the one or more the electronic messages; for each message classification rule in the previously selected subset of message classification rules, an act of synthesizing an efficiency metric from the calculated results and measured resource costs for the message classification rule; an act of comparing the synthesized efficiency metrics to existing efficiency metrics for electronic message classification rules included in the plurality of electronic message classification rules; and an act of selecting a new subset of electronic message classification rules, from among the plurality of electronic message classification rules, for use in classifying subsequently received electronic messages based at least in part on results of comparing the synthesized efficiency metrics to existing efficiency metrics. an act of receiving one or more electronic messages; for each of the one or more electronic messages, an act of calculating a result indicating a likelihood of the electronic message having a specified message characteristic by applying each message classification rule in a previously selected subset of electronic message classification rules; an act of measuring a resource cost indicating an amount of resources consumed to apply each electronic message classification rule to each of the one or more the electronic messages; for each message classification rule in the previously selected subset of message classification rules, an act of synthesizing an efficiency metric from the calculated results and measured resource costs for the message classification rule; an act of comparing the synthesized efficiency metrics to existing efficiency metrics for electronic message classification rules included in the plurality of electronic message classification rules; and an act of selecting a new subset of electronic message classification rules, from among the plurality of electronic message classification rules, for use in classifying subsequently received electronic messages based at least in part on results of comparing the synthesized efficiency metrics to existing efficiency metrics.
Method for detecting a partial discharge at a winding of an electrical machine, wherein - first electromagnetic measuring signals are detected in a partial discharge frequency range, - second electromagnetic measuring signals are detected in an interference frequency range, - a time window around a first measuring signal is predefined, - an identification criterion is defined for a partial discharge signal, - an interference signal criterion is defined for a second measuring signal, - it is concluded that a partial discharge is present if a first measuring signal that meets the identification criterion is detected and no second measuring signal that meets the interference signal criterion is detected in the time window around the first measuring signal, and - a characteristic value of second measuring signals is used to assess partial discharge detection, wherein the assessing of the partial discharge detection takes place with regard to its quality, characterised in that the greater the frequency and/or strength of second measuring signals that are temporally correlated with the first measuring signals, the poorer the classification of the quality of the partial discharge detection. - first electromagnetic measuring signals are detected in a partial discharge frequency range, - second electromagnetic measuring signals are detected in an interference frequency range, - a time window around a first measuring signal is predefined, - an identification criterion is defined for a partial discharge signal, - an interference signal criterion is defined for a second measuring signal, - it is concluded that a partial discharge is present if a first measuring signal that meets the identification criterion is detected and no second measuring signal that meets the interference signal criterion is detected in the time window around the first measuring signal, and - a characteristic value of second measuring signals is used to assess partial discharge detection, wherein the assessing of the partial discharge detection takes place with regard to its quality, characterised in that the greater the frequency and/or strength of second measuring signals that are temporally correlated with the first measuring signals, the poorer the classification of the quality of the partial discharge detection.
An anchor, for embedment in a soil below a seabed surface, comprising a fluke member having bearing surfaces which bear on said soil when said anchor is subjected to loading therein, a shank member, at least two load application points (13, 15) for attachment of a connecting member (20, 28) for connecting said anchor to an anchor line, and a passageway for enabling said connecting member (20, 28) to be transferred between said load application points (13, 15), such that said load application points (13, 15) lie on a straight line (17, 18) which contains the centroid of said bearing surfaces and forms an angle of inclination (A, C) with a reference straight line of said anchor, said reference straight line containing said centroid and defining a forward and a rearward direction (F, R) of said anchor in which forward direction said bearing surfaces have minimum projected area, and said reference straight line being located in a plane of symmetry of said anchor, and such that said passageway is fixed angularly with respect to said reference straight line, characterised in that said angle of inclination (A, C) is a forward-opening acute angle with respect to a first load application point and a rearward-opening acute angle with respect to a second load application point whereby loading applied by said anchor line via said connecting member (20, 28) to said anchor at a load application point causes said anchor to bury deeper below said seabed surface in a forward direction with respect to said first load application point and in a rearward direction with respect to said second load application point.