mhurhangee/ep-ind-claims huggingface dataset:
An airfoil comprising: pressure and suction side walls (86, 88) extending in a chord-wise direction between leading and trailing edges (82, 84), the pressure and suction side walls (86, 88) extending in a radial direction to provide an exterior airfoil surface; a core cooling passage (90a, 90b, 90c) arranged between the pressure and suction walls (86, 88) in a thickness direction and extending radially toward a tip; a skin passage arranged in one of the pressure and suction side walls (86, 88) to form a hot side wall and a cold side wall, wherein the hot side wall defines a portion of the exterior airfoil surface, the cold side wall defines a portion of the core cooling passage (90a, 90b, 90c), and the core cooling passage (90a, 90b, 90c) and the skin passage are configured to have a same direction of fluid flow, a slot (120; 220; 320; 420; 520) extending longitudinally in the skin passage; and a resupply hole (110; 210; 310; 410; 510) fluidly interconnecting the core cooling passage (90a, 90b, 90c) and the slot (120; 220; 320; 420; 520), wherein the slot (120; 220; 320; 420; 520) extends longitudinally in a direction that is different than the direction of fluid flow in the core cooling passage (90a, 90b, 90c) and the skin passage, the resupply hole (110; 310; 410; 510) terminates in an exit at the slot (120; 320; 420; 520), characterised in that the exit is provided by a diffuser (118; 318; 418; 518). pressure and suction side walls (86, 88) extending in a chord-wise direction between leading and trailing edges (82, 84), the pressure and suction side walls (86, 88) extending in a radial direction to provide an exterior airfoil surface; a core cooling passage (90a, 90b, 90c) arranged between the pressure and suction walls (86, 88) in a thickness direction and extending radially toward a tip; a skin passage arranged in one of the pressure and suction side walls (86, 88) to form a hot side wall and a cold side wall, wherein the hot side wall defines a portion of the exterior airfoil surface, the cold side wall defines a portion of the core cooling passage (90a, 90b, 90c), and the core cooling passage (90a, 90b, 90c) and the skin passage are configured to have a same direction of fluid flow, a slot (120; 220; 320; 420; 520) extending longitudinally in the skin passage; and a resupply hole (110; 210; 310; 410; 510) fluidly interconnecting the core cooling passage (90a, 90b, 90c) and the slot (120; 220; 320; 420; 520), wherein the slot (120; 220; 320; 420; 520) extends longitudinally in a direction that is different than the direction of fluid flow in the core cooling passage (90a, 90b, 90c) and the skin passage, the resupply hole (110; 310; 410; 510) terminates in an exit at the slot (120; 320; 420; 520), characterised in that the exit is provided by a diffuser (118; 318; 418; 518).
Polymer having adhesion properties, comprising at least one, preferably several, consecutive or nonconsecutive structural units of formula: in which: - B represents a carbonyl or -NR'- unit with R' representing a hydrogen atom, a C 1 to C 6 alkyl radical, or a C 5 to C 6 aryl, carbamate or acyl radical; and - R represents: - a hydrogen atom, - a linear or branched, saturated or unsaturated C 1 to C 6 hydrocarbon-based radical which, where appropriate, is substituted with one or more halogen atoms, - a C 5 to C 6 aryl radical, or - an acyl, acyloxy, alkoxycarbonyl or cyano radical. - B represents a carbonyl or -NR'- unit with R' representing a hydrogen atom, a C 1 to C 6 alkyl radical, or a C 5 to C 6 aryl, carbamate or acyl radical; and - R represents: - a hydrogen atom, - a linear or branched, saturated or unsaturated C 1 to C 6 hydrocarbon-based radical which, where appropriate, is substituted with one or more halogen atoms, - a C 5 to C 6 aryl radical, or - an acyl, acyloxy, alkoxycarbonyl or cyano radical. - a hydrogen atom, - a linear or branched, saturated or unsaturated C 1 to C 6 hydrocarbon-based radical which, where appropriate, is substituted with one or more halogen atoms, - a C 5 to C 6 aryl radical, or - an acyl, acyloxy, alkoxycarbonyl or cyano radical.
A sample holder comprising: a ceramic thin-walled cylinder (1, 21) having a flat bottom and having a ceramic heat transfer surface to contact a sample container, the ceramic thin-walled cylinder (1, 21) dimensioned to hold a sample container; a ceramic beam (7, 22); a thermocouple (6, 26) attached to the bottom of the ceramic thin-walled cylinder (1, 21), wherein the ceramic thin-walled cylinder (1, 21) is diffusion-bonded to: the ceramic beam (7, 22); or a ceramic adapter, to which the ceramic beam (7, 22) is attached. a ceramic thin-walled cylinder (1, 21) having a flat bottom and having a ceramic heat transfer surface to contact a sample container, the ceramic thin-walled cylinder (1, 21) dimensioned to hold a sample container; a ceramic beam (7, 22); a thermocouple (6, 26) attached to the bottom of the ceramic thin-walled cylinder (1, 21), the ceramic beam (7, 22); or a ceramic adapter, to which the ceramic beam (7, 22) is attached.
An interference cancellation relay device, comprising: an interference cancellation unit cancelling an interference signal from an input signal and outputting the input signal from which the interference signal is cancelled; a gain control unit controlling a gain of an output signal of the interference cancellation unit; and a pre-distortion unit distorting the output signal of the interference cancellation unit, of which the gain is controlled by the gain control unit, characterized in that the gain control unit includes: a measurement unit including a detection unit detecting a reference signal from the output signal of the interference cancellation unit, and a calculation unit measuring an intensity of the detected reference signal, wherein the reference signal is a signal having a predetermined intensity regardless of fluctuation of a data amount included in the input signal and distinguished from a data signal in the input signal; and a control unit controlling the gain of the output signal of the interference cancellation unit based on the measured intensity of the detected reference signal. an interference cancellation unit cancelling an interference signal from an input signal and outputting the input signal from which the interference signal is cancelled; a gain control unit controlling a gain of an output signal of the interference cancellation unit; and a pre-distortion unit distorting the output signal of the interference cancellation unit, of which the gain is controlled by the gain control unit, characterized in that the gain control unit includes: a measurement unit including a detection unit detecting a reference signal from the output signal of the interference cancellation unit, and a calculation unit measuring an intensity of the detected reference signal, wherein the reference signal is a signal having a predetermined intensity regardless of fluctuation of a data amount included in the input signal and distinguished from a data signal in the input signal; and a control unit controlling the gain of the output signal of the interference cancellation unit based on the measured intensity of the detected reference signal. a measurement unit including a detection unit detecting a reference signal from the output signal of the interference cancellation unit, and a calculation unit measuring an intensity of the detected reference signal, wherein the reference signal is a signal having a predetermined intensity regardless of fluctuation of a data amount included in the input signal and distinguished from a data signal in the input signal; and a control unit controlling the gain of the output signal of the interference cancellation unit based on the measured intensity of the detected reference signal.
An electronic smoking device (100, 1400, 1500) comprising the following: a frame through which an airflow path at least partially extends and which houses the below components of the electronic smoking device (100, 1400, 1500), said components being a power supply; an air inlet fluidly connected to the air flow path; a container for storing a smoking liquid; an atomizer positioned in the frame and configured to receive the smoking liquid from the container and air from the airflow path to generate a vaporized liquid; and a circuit coupled to the atomizer, wherein the atomizer is configured to be electrically connected to the power supply through the circuit; characterized in that the frame further comprises a plurality of slots (410, 1002) configured for mating and containing the above components of the electronic smoking device (100, 1400, 1500), wherein one or more elements of the circuit are printed on the frame. a frame through which an airflow path at least partially extends and which houses the below components of the electronic smoking device (100, 1400, 1500), said components being a power supply; an air inlet fluidly connected to the air flow path; a container for storing a smoking liquid; an atomizer positioned in the frame and configured to receive the smoking liquid from the container and air from the airflow path to generate a vaporized liquid; and a circuit coupled to the atomizer, wherein the atomizer is configured to be electrically connected to the power supply through the circuit; characterized in that the frame further comprises a plurality of slots (410, 1002) configured for mating and containing the above components of the electronic smoking device (100, 1400, 1500), wherein one or more elements of the circuit are printed on the frame.
An emergency tool container for accommodating an emergency tool, comprising: an opening/closing cover fixed to a first rotating shaft; an operation lever interlocked with the first rotating shaft; characterized by an interlocking mechanism for blocking rotation of the first rotating shaft thereby preventing opening of said cover till an operation amount of the operation lever reaches a predetermined amount. an opening/closing cover fixed to a first rotating shaft; an operation lever interlocked with the first rotating shaft; characterized by an interlocking mechanism for blocking rotation of the first rotating shaft thereby preventing opening of said cover till an operation amount of the operation lever reaches a predetermined amount.
A method comprising: capturing a first and second frame of a video sequence, the frames having pixel values in rows and columns; in each of the first and second frames calculating for each pixel an edge detection result being an absolute value of a gradient which corresponds to an edge; determining an energy value for each pixel as an absolute difference of an edge detection result for said pixel in the first frame and an edge detection result for said pixel in the second frame; determining an energy of lines of pixels of the second frame as a respective sum of energy values for the pixels in said lines of pixels, the lines corresponding to either rows or columns; adjusting the determined energy by reducing the energy of each line that was selected in the first frame by a weighting factor, by using a list of previously selected lines, which contains information about the computed energy for each line; selecting (712, 714) lines having the lowest energy; and resizing the second frame by deleting the selected lines having a low determined energy or by replacing respective selected lines with two or more lines. capturing a first and second frame of a video sequence, the frames having pixel values in rows and columns; in each of the first and second frames calculating for each pixel an edge detection result being an absolute value of a gradient which corresponds to an edge; determining an energy value for each pixel as an absolute difference of an edge detection result for said pixel in the first frame and an edge detection result for said pixel in the second frame; determining an energy of lines of pixels of the second frame as a respective sum of energy values for the pixels in said lines of pixels, the lines corresponding to either rows or columns; adjusting the determined energy by reducing the energy of each line that was selected in the first frame by a weighting factor, by using a list of previously selected lines, which contains information about the computed energy for each line; selecting (712, 714) lines having the lowest energy; and resizing the second frame by deleting the selected lines having a low determined energy or by replacing respective selected lines with two or more lines.
A zirconia solid electrolyte material doped with scandia and also doped with a lanthanoid oxide and/or yttria, wherein the zirconia solid electrolyte material further contains alumina, the scandia doping is 9 to 15 mol% and the lanthanoid oxide and/or the yttria doping is 3 to 5 mol%, relative to the total molar amount of the zirconia, the scandia, and the lanthanoid oxide and/or the yttria in the solid electrolyte material.
A carrier core material for electrophotographic developer expressed by a general formula Mg x Mn (1-x) Fe y O 4 satisfying 0 < x < 1 and 1.6 ≤ y ≤ 2.4, wherein a half-value width B of a peak having a maximum intensity in a powder XRD pattern satisfies B ≤ 0.180 degree.
Loading system for plate-shaped objects, in particular for glass plates, comprising a conveyor frame with at least one conveyor plane, formed by a plurality of conveying means, for the plate-shaped objects, wherein - the loading system has lifting units, - which lifting units are arranged underneath the at least one conveyor plane, wherein - the lifting units each have a bearing surface, formed by at least one bearing element, for the plate-shaped objects, which bearing surface can be moved between a position underneath the at least one conveyor plane and a position above the at least one conveyor plane, characterized in that a control and/or regulating device is provided, which is equipped to control and/or to regulate the conveying means individually or merged into groups (2a, 2b, 2c), wherein the conveying means, controlled and or regulated individually and/or as groups (2a, 2b, 2c) by the control and/or regulating device, are respectively driven by means of a separate drive means, and wherein the loading system is additionally equipped to convey a first plate-shaped object to a first conveying position on the conveyor frame by means of the conveying means and to lift it away from the conveying means at the first conveying position by means of the lifting units, in order to bring additional plate-shaped objects (4b, 4c) onto the conveyor frame and into a respective conveying position (23, 24) by means of the same conveying means, without thereby moving the first plate-shaped object. - the loading system has lifting units, - which lifting units are arranged underneath the at least one conveyor plane, wherein - the lifting units each have a bearing surface, formed by at least one bearing element, for the plate-shaped objects, which bearing surface can be moved between a position underneath the at least one conveyor plane and a position above the at least one conveyor plane,
A cluster head assisted method for converting a user terminal from device-to-device (D2D) communication to cellular communication, comprising following steps: Step 1: if the quality of a D2D link between a user terminal and a cluster head is lower than a predetermined threshold, the user terminal performing cell search and a random access process to access a cellular network; and Step 2: the user terminal sending a switching request to the cluster head through a D2D link, wherein the switching request comprises an ID of a target base station to which the user terminal is going to access; and the cluster head sending the switching request to a serving base station through a cellular link, wherein if the ID of the target base station to which the user terminal is going to access is the same as an ID of the serving base station where the cluster head belongs, indicating that the target base station to which the user terminal is going to access and the serving base station where the cluster head belongs are the same base station, the user terminal accesses the serving base station where the cluster head belongs, and establishes a radio resource control connection with the serving base station; the serving base station replies a switching response message to the cluster head through the cellular link; and the cluster head sends switching response information to the user terminal through the D2D link; and if the ID of the target base station to which the user terminal is going to access is different from an ID of the serving base station where the cluster head belongs, the user terminal accesses the target base station, and establishes an RRC connection with the target base station; the serving base station forwards the switching request of the user terminal to the target base station, and the target base station replies a switching response message to the serving base station, characterized in that in Step 2, while sending the switching response information to the user terminal through the D2D link, the cluster head compares a modulation and coding scheme MCS UE1-eNodeB1 between the cluster head and the serving base station with a modulation and coding scheme MCS D20 between D2D links; if MCS UE1-eNodeB1 is approximately equal to MCS D2D, the cluster head broadcasts data to a D2D cluster and the serving base station; and if values of MCS UE1-eNodeB1 and MCS D20 are significantly different, the cluster head chooses parallel communication operations, that is, the cluster head performs D2D multicast in the D2D cluster, and performs cellular unicast with the serving base station. Step 1: if the quality of a D2D link between a user terminal and a cluster head is lower than a predetermined threshold, the user terminal performing cell search and a random access process to access a cellular network; and Step 2: the user terminal sending a switching request to the cluster head through a D2D link, wherein the switching request comprises an ID of a target base station to which the user terminal is going to access; and the cluster head sending the switching request to a serving base station through a cellular link,
A print element substrate comprising: a plurality of print elements configured to generate thermal energy for ejecting liquid; and a temperature detection element circuit including a plurality of temperature detection elements (111; 702) provided corresponding to each of the plurality of print elements, configured to read temperature information by selectively energizing one of the plurality of temperature detection elements, wherein the temperature detection element circuit includes: a signal processing portion configured to output a selection signal having a second voltage amplitude larger than a first voltage amplitude, based on an input signal having the first voltage amplitude; a selection switch provided for each of the plurality of temperature detection elements, configured to select the temperature detection element; and a first read switch provided for each of the plurality of temperature detection elements, configured to read a voltage of a terminal of one of the temperature detection element selected by the selection switch, and wherein the selection switch and the first read switch are driven by using the selection signal. a plurality of print elements configured to generate thermal energy for ejecting liquid; and a temperature detection element circuit including a plurality of temperature detection elements (111; 702) provided corresponding to each of the plurality of print elements, configured to read temperature information by selectively energizing one of the plurality of temperature detection elements, wherein the temperature detection element circuit includes: a signal processing portion configured to output a selection signal having a second voltage amplitude larger than a first voltage amplitude, based on an input signal having the first voltage amplitude; a selection switch provided for each of the plurality of temperature detection elements, configured to select the temperature detection element; and a first read switch provided for each of the plurality of temperature detection elements, configured to read a voltage of a terminal of one of the temperature detection element selected by the selection switch, and wherein the selection switch and the first read switch are driven by using the selection signal. a signal processing portion configured to output a selection signal having a second voltage amplitude larger than a first voltage amplitude, based on an input signal having the first voltage amplitude; a selection switch provided for each of the plurality of temperature detection elements, configured to select the temperature detection element; and a first read switch provided for each of the plurality of temperature detection elements, configured to read a voltage of a terminal of one of the temperature detection element selected by the selection switch, and wherein the selection switch and the first read switch are driven by using the selection signal.
A submersible pump electrical motor, comprising: a stator having a bore; a shaft extending through the bore along an axis of the motor; first and second rotor sections mounted to the shaft for rotation therewith; a bearing sleeve between the first and second rotor sections and mounted to the shaft for rotation in unison; an insert sleeve having an inner diameter that receives the bearing sleeve; a carrier body having an inner diameter that receives the insert sleeve; a carrier anti-rotation member on an outer diameter of the carrier body in engagement with the bore of the stator, preventing rotation of the carrier body relative to the stator; first and second seal rings (57a, 57b) between an outer diameter of the insert sleeve and the inner diameter of the carrier body, preventing rotation of the insert sleeve relative to the carrier body; and characterized by: a hole in the carrier body having an inner end at the inner diameter of the carrier body, the inner end of the hole being located axially between the first and second seal rings (57a, 57b); and an electrically conductive spring in the hole and in engagement with the insert sleeve and with the carrier body, creating electrical continuity between the insert sleeve and the carrier body. a stator having a bore; a shaft extending through the bore along an axis of the motor; first and second rotor sections mounted to the shaft for rotation therewith; a bearing sleeve between the first and second rotor sections and mounted to the shaft for rotation in unison; an insert sleeve having an inner diameter that receives the bearing sleeve; a carrier body having an inner diameter that receives the insert sleeve; a carrier anti-rotation member on an outer diameter of the carrier body in engagement with the bore of the stator, preventing rotation of the carrier body relative to the stator; first and second seal rings (57a, 57b) between an outer diameter of the insert sleeve and the inner diameter of the carrier body, preventing rotation of the insert sleeve relative to the carrier body; and characterized by: a hole in the carrier body having an inner end at the inner diameter of the carrier body, the inner end of the hole being located axially between the first and second seal rings (57a, 57b); and an electrically conductive spring in the hole and in engagement with the insert sleeve and with the carrier body, creating electrical continuity between the insert sleeve and the carrier body. a hole in the carrier body having an inner end at the inner diameter of the carrier body, the inner end of the hole being located axially between the first and second seal rings (57a, 57b); and an electrically conductive spring in the hole and in engagement with the insert sleeve and with the carrier body, creating electrical continuity between the insert sleeve and the carrier body.