mhurhangee/ep-ind-claims huggingface dataset:
A welding power supply having output power used to establish a welding arc for an associated welding process, and having a user interface, comprising: at least a first Input selector communicated to the associated welding power supply for adjusting the output power; wherein the at least a first Input selector is operable to modify the value of one or more operating parameters of the associated welding power supply; means for indicating the values of the one or more operating parameters means for representing the effect that a change in the output power has on the associated welding process, wherein the power supply is configured to automatically depict representative changes to the welding process responsive to changing the one or more operating parameter, characterized in that the welding power supply is configured to dynamically display a graphical representation of a welding arc profile. at least a first Input selector communicated to the associated welding power supply for adjusting the output power; wherein the at least a first Input selector is operable to modify the value of one or more operating parameters of the associated welding power supply; means for indicating the values of the one or more operating parameters means for representing the effect that a change in the output power has on the associated welding process, wherein the power supply is configured to automatically depict representative changes to the welding process responsive to changing the one or more operating parameter, characterized in that the welding power supply is configured to dynamically display a graphical representation of a welding arc profile.
A device for recording and storing of measurement data related to an object or living subject, the device comprising: at least one sensor configured to measure data related to the object or living subject; a memory; a controller configured to store the measured data in the memory; at least one photosensitive element configured to convert electromagnetic radiation into electrical current; a transceiver (20, 60, 80, 90) configured to transmit the measured and/or stored data and to receive data signals; and at least one capacitor configured to store electrical current from the at least one photosensitive element, wherein the controller is configured to measure the voltage of the at least one capacitor, and wherein the controller is configured to forecast an output voltage of the at least one capacitor based on measured voltages, and wherein the controller is configured to increase or decrease the rate of sampling and storing of the measured data in the memory and/or to increase or decrease the rate of transmitting the measured and/or stored data depending on the measured voltage or the forecasted voltage. at least one sensor configured to measure data related to the object or living subject; a memory; a controller configured to store the measured data in the memory; at least one photosensitive element configured to convert electromagnetic radiation into electrical current; a transceiver (20, 60, 80, 90) configured to transmit the measured and/or stored data and to receive data signals; and at least one capacitor configured to store electrical current from the at least one photosensitive element, wherein the controller is configured to measure the voltage of the at least one capacitor, and wherein the controller is configured to forecast an output voltage of the at least one capacitor based on measured voltages, and wherein the controller is configured to increase or decrease the rate of sampling and storing of the measured data in the memory and/or to increase or decrease the rate of transmitting the measured and/or stored data depending on the measured voltage or the forecasted voltage.
A method of encoding an image according to a scalable encoding format, said scalable encoding format comprising a reference layer and an enhancement layer, at least part of the image being predictively encoded based on motion information, said motion information being itself predictively encoded based on a set of motion information predictors, wherein the method comprises: determining coordinates of a color component sample in the reference layer; and determining a set of motion information predictors including a motion information predictor based on motion information associated with an image area belonging to the reference layer, characterized in that the determining the coordinates comprises: deriving a centre position in an image area for the enhancement layer; determining, using the centre position, a corresponding position in the reference layer; and correcting at least one coordinate X of said corresponding position to a new value X' given by X' = └((X + 4)/16)┘ * 16, where └((X + 4)/16)┘ is a truncation of ((X + 4)/16) to an integer value, and the determining the set comprises, if available, selecting motion information associated with the corrected at least one coordinate in the reference layer to be included as a motion information predictor in said set of motion information predictors, wherein the selected motion information is motion information available from a 16x16 block of an image belonging to the reference layer. determining coordinates of a color component sample in the reference layer; and determining a set of motion information predictors including a motion information predictor based on motion information associated with an image area belonging to the reference layer, characterized in that the determining the coordinates comprises: deriving a centre position in an image area for the enhancement layer; determining, using the centre position, a corresponding position in the reference layer; and correcting at least one coordinate X of said corresponding position to a new value X' given by X' = └((X + 4)/16)┘ * 16, where └((X + 4)/16)┘ is a truncation of ((X + 4)/16) to an integer value, deriving a centre position in an image area for the enhancement layer; determining, using the centre position, a corresponding position in the reference layer; and correcting at least one coordinate X of said corresponding position to a new value X' given by X' = └((X + 4)/16)┘ * 16, where └((X + 4)/16)┘ is a truncation of ((X + 4)/16) to an integer value, and the determining the set comprises, if available, selecting motion information associated with the corrected at least one coordinate in the reference layer to be included as a motion information predictor in said set of motion information predictors, wherein the selected motion information is motion information available from a 16x16 block of an image belonging to the reference layer.
An array of radiating elements comprising: a base plate having a surface comprising a plurality of grooves spanning a width of the base plate, and a plurality of circulator cavities immediately below, and spaced along, each of the plurality of grooves, a plurality of conductive strips positioned in a plurality of rows on the base plate wherein each conductive strip is installed against the base plate so that an upper edge of the conductive strip is flush with a lower edge of one of the plurality of grooves, and for all conductive strips except those in a bottom row of the plurality of rows, a lower edge of the conductive strip is flush with an upper edge of an adjacent groove, such that the grooves and the edges of the adjoining conductive strips form a plurality of slots, and a plurality of circulators with integrated probes, each of the circulators with integrated probes being coplanar with the base plate and secured between one of the conductive strips and the base plate in one of the plurality of circulator cavities, wherein the circulators with integrated probes are arranged so that each of the probes protrudes into the adjacent one of the plurality of slots. a base plate having a surface comprising a plurality of grooves spanning a width of the base plate, and a plurality of circulator cavities immediately below, and spaced along, each of the plurality of grooves, a plurality of conductive strips positioned in a plurality of rows on the base plate wherein each conductive strip is installed against the base plate so that an upper edge of the conductive strip is flush with a lower edge of one of the plurality of grooves, and for all conductive strips except those in a bottom row of the plurality of rows, a lower edge of the conductive strip is flush with an upper edge of an adjacent groove, such that the grooves and the edges of the adjoining conductive strips form a plurality of slots, and a plurality of circulators with integrated probes, each of the circulators with integrated probes being coplanar with the base plate and secured between one of the conductive strips and the base plate in one of the plurality of circulator cavities, wherein the circulators with integrated probes are arranged so that each of the probes protrudes into the adjacent one of the plurality of slots.
A vacuum valve comprising: a first port and a second port that are formed in a housing; a main flow channel that is formed inside the housing so as to connect the first port and the second port; a main valve seat that surrounds the main flow channel; a main valve disc that opens and closes the main flow channel by contacting and separating from the main valve seat; a sub-flow channel that is formed inside the main valve disc so as to be in parallel with the main flow channel; a sub-valve seat that is formed on the main valve disc so as to surround the sub-flow channel; a sub-valve disc that opens and closes the sub-flow channel by contacting and separating from the sub-valve seat; and an opening-closing operation mechanism that performs operations of opening and closing the main valve disc and the sub-valve disc, wherein a rod is disposed inside the housing so as to slidably extend through the main valve disc, the opening-closing operation mechanism is coupled to a base end portion that is one end of the rod in an axial line direction, the sub-valve disc is disposed at a tip end portion that is the other end of the rod in the axial line direction so as to contact and separate from the main valve disc at a position outside the main valve disc, and the sub-valve seat is formed on a part of an outer surface of the main valve disc that the sub-valve disc contacts, wherein the sub-valve disc opens and closes the sub-flow channel by being operated directly by the rod, and wherein the main valve disc opens and closes the main flow channel by being operated via the sub-valve disc by the rod, wherein the main valve disc includes a disc member that contacts and separates from the main valve seat and a cylindrical member, wherein the sub-valve seat is formed on the disc member,wherein a bearing member that guides the rod and a seal member that seals a space between an inner periphery of the cylindrical member and an outer periphery of the rod are provided on an inner periphery of the cylindrical member, characterized in that the cylindrical member is formed independently from the disc member and is combined with the disc member such that the disc member and the cylindrical member can be separated from each other; and in that the sub-flow channel is formed between the disc member and the cylindrical member.
A flexible hose liner comprising: a cylindrical body extending along a longitudinal axis from a first end to a second end; first and second sleeves (32, 30) forming said cylindrical body, the first and second sleeves (32, 30) being formed by separate continuous ribbons having a plurality of convolutions formed in a helical pattern along said cylindrical body from said first end to said second end, the first sleeve surrounding said second sleeve; and a ring formed in each revolution about a longitudinal axis of said continuous ribbon of said first and second sleeves (32, 30), a plurality of rings forming said cylindrical body along said longitudinal axis, each ring of the first sleeve having a first convolution and an ending convolution such that an outer convolution connection is formed between the ending convolution of a preceding ring of the first sleeve and the first convolution of a succeeding ring of the first sleeve, each ring of the second sleeve having a first convolution and an ending convolution such that an inner convolution connection is formed between the ending convolution of a preceding ring of the second sleeve and the first convolution of a succeeding ring of the second sleeve, the outer convolution connection of the rings of the first sleeve being different from the inner convolution connection of the rings of the second sleeve, wherein said outer convolution connection of said first sleeve is an undulating crimp connection formed by a crimping operation, wherein the crimping operation forms an annular undulating crimp having a series of inner connected undulations. a cylindrical body extending along a longitudinal axis from a first end to a second end; first and second sleeves (32, 30) forming said cylindrical body, the first and second sleeves (32, 30) being formed by separate continuous ribbons having a plurality of convolutions formed in a helical pattern along said cylindrical body from said first end to said second end, the first sleeve surrounding said second sleeve; and a ring formed in each revolution about a longitudinal axis of said continuous ribbon of said first and second sleeves (32, 30), a plurality of rings forming said cylindrical body along said longitudinal axis, each ring of the first sleeve having a first convolution and an ending convolution such that an outer convolution connection is formed between the ending convolution of a preceding ring of the first sleeve and the first convolution of a succeeding ring of the first sleeve, each ring of the second sleeve having a first convolution and an ending convolution such that an inner convolution connection is formed between the ending convolution of a preceding ring of the second sleeve and the first convolution of a succeeding ring of the second sleeve, the outer convolution connection of the rings of the first sleeve being different from the inner convolution connection of the rings of the second sleeve, wherein said outer convolution connection of said first sleeve is an undulating crimp connection formed by a crimping operation, wherein the crimping operation forms an annular undulating crimp having a series of inner connected undulations.
A computing device comprising: a user interface configured to receive an input that indicates a user has detected an object of interest in a body of water; a processing device coupled to said user interface, said processing device configured to: automatically retrieve, in response to the input, data from at least one data source, wherein said at least one data source comprises a navigation system and wherein the data includes a coordinate location at which the object of interest is detected; and generate a report including the retrieved data; and a means for transferring data coupled to said processing device and configured to transmit the generated report to a database that includes a plurality of navigational charts, wherein the generated report is used to update at least one of the plurality of navigational charts within the database to include the object of interest. a user interface configured to receive an input that indicates a user has detected an object of interest in a body of water; a processing device coupled to said user interface, said processing device configured to: automatically retrieve, in response to the input, data from at least one data source, wherein said at least one data source comprises a navigation system and wherein the data includes a coordinate location at which the object of interest is detected; and generate a report including the retrieved data; and automatically retrieve, in response to the input, data from at least one data source, wherein said at least one data source comprises a navigation system and wherein the data includes a coordinate location at which the object of interest is detected; and generate a report including the retrieved data; and a means for transferring data coupled to said processing device and configured to transmit the generated report to a database that includes a plurality of navigational charts, wherein the generated report is used to update at least one of the plurality of navigational charts within the database to include the object of interest.
An instrumented cutting element for use on an earth-boring tool, comprising: a substrate; a diamond table bonded to the substrate; and at least one sensing element (316, 318) disposed within the diamond table, the at least one sensing element (316, 318) comprising a doped diamond material; characterised in that the doped diamond material extends through a thickness of the diamond table, and the substrate comprises at least one conduit (320, 322) coupled and at least partially aligned with the at least one sensing element (316, 318), the at least one conduit (320, 322) configured to transmit an electrical signal away from the at least one sensing element (316, 318). a substrate; a diamond table bonded to the substrate; and at least one sensing element (316, 318) disposed within the diamond table, the at least one sensing element (316, 318) comprising a doped diamond material; characterised in that the doped diamond material extends through a thickness of the diamond table, and the substrate comprises at least one conduit (320, 322) coupled and at least partially aligned with the at least one sensing element (316, 318), the at least one conduit (320, 322) configured to transmit an electrical signal away from the at least one sensing element (316, 318).
A door for a refrigerator, comprising: a front panel defining a front surface of the door; first and second side decoration bars (30, 40) extending along both side edges of the front panel to define side surfaces of the door, respectively; top and bottom decoration caps (24, 26) extending along upper and lower edges of the front panel and fastened to ends of the side decoration bars (30, 40) to define top and bottom surfaces of the door, respectively; and a door liner installed opposite to the front panel to define a rear surface of the door, wherein a foam insulating layer is formed within an internal space of the door such that the front panel, the side decoration bars (30, 40), the decoration caps (24, 26) and the door liner can be integrally coupled with one another, wherein a panel supporting bar provided with a supporting portion for supporting each side edge of the rear surface of the front panel is installed in each of the side decoration bars (30, 40) to support the front panel in cooperation with the side decoration bars (30, 40), and wherein the supporting portion is further provided with blocking ribs formed to protrude in a longitudinal direction of the panel supporting bar to prevent a foaming resin from leaking out through between the front panel and the panel supporting bar. a front panel defining a front surface of the door; first and second side decoration bars (30, 40) extending along both side edges of the front panel to define side surfaces of the door, respectively; top and bottom decoration caps (24, 26) extending along upper and lower edges of the front panel and fastened to ends of the side decoration bars (30, 40) to define top and bottom surfaces of the door, respectively; and a door liner installed opposite to the front panel to define a rear surface of the door, wherein a foam insulating layer is formed within an internal space of the door such that the front panel, the side decoration bars (30, 40), the decoration caps (24, 26) and the door liner can be integrally coupled with one another, wherein a panel supporting bar provided with a supporting portion for supporting each side edge of the rear surface of the front panel is installed in each of the side decoration bars (30, 40) to support the front panel in cooperation with the side decoration bars (30, 40), and wherein the supporting portion is further provided with blocking ribs formed to protrude in a longitudinal direction of the panel supporting bar to prevent a foaming resin from leaking out through between the front panel and the panel supporting bar.
A method for performing a vehicle-to-x, V2X, operation in a wireless communication system, the method performed by a user equipment, UE, (10, 1100) and comprising: sensing a sensing duration, wherein a plurality of subframes before a K-th subframe is within the sensing duration, wherein the sensing is to perform an energy measurement on the sensing duration; based on a result of the sensing on the sensing duration, selecting a specific V2X resource among a plurality of V2X resources on a specific subframe within a selection duration, wherein the selection duration is a duration from a K-th subframe to a (K+Y)-th subframe wherein the Y is a value related to a length of the selection duration and the Y is the value fulfilling a latency requirement, wherein the latency requirement is related to a requirement for a latency of a buffered data, wherein the specific V2X resource is able to be selected in the selection duration, wherein the specific V2X resource is defined based on a time and a frequency in a time division and a frequency division, wherein the selection duration is located after the sensing duration; and performing the V2X operation based on the specific V2X resource, wherein the sensing duration has a boundary of a time duration which is specific to the UE. sensing a sensing duration, wherein a plurality of subframes before a K-th subframe is within the sensing duration, wherein the sensing is to perform an energy measurement on the sensing duration; based on a result of the sensing on the sensing duration, selecting a specific V2X resource among a plurality of V2X resources on a specific subframe within a selection duration, wherein the selection duration is a duration from a K-th subframe to a (K+Y)-th subframe wherein the Y is a value related to a length of the selection duration and the Y is the value fulfilling a latency requirement, wherein the latency requirement is related to a requirement for a latency of a buffered data, wherein the specific V2X resource is able to be selected in the selection duration, wherein the specific V2X resource is defined based on a time and a frequency in a time division and a frequency division, wherein the selection duration is located after the sensing duration; and performing the V2X operation based on the specific V2X resource, wherein the sensing duration has a boundary of a time duration which is specific to the UE.