mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic probe (200, 302, 402, 502, 800) for conducting ultrasonic energy to a surgical site for use in severing fibrous tissue and fragmenting adipose tissue, the ultrasonic probe comprising: a proximate end configured to connect to an ultrasonic driver assembly that generates the ultrasonic energy; a shaft for conducting the ultrasonic energy from the proximate end to a distal end (212, 300, 400, 500); and a cutting surface (308, 408, 508, 520, 604, 612, 802) located proximate the distal end (212, 300, 400, 500), wherein the cutting surface (308, 408, 508, 520, 604, 612, 802) is configured to contact and sever the fibrous tissue when the fibrous tissue is positioned in contact with the cutting surface (308, 408, 508, 520, 604, 612, 802), characterized in that the cutting surface (308, 408, 508, 520, 604, 612, 802) has a center point which is located at a predetermined distance from the distal end (212, 300, 400, 500) of the ultrasonic probe (200, 302, 402, 502, 800), wherein the predetermined distance corresponds to an antinode of an ultrasonic longitudinal vibration pattern produced by the delivery of ultrasonic energy to the distal end (212, 300, 400, 500) of the ultrasonic probe (200, 302, 402, 502, 800). a proximate end configured to connect to an ultrasonic driver assembly that generates the ultrasonic energy; a shaft for conducting the ultrasonic energy from the proximate end to a distal end (212, 300, 400, 500); and a cutting surface (308, 408, 508, 520, 604, 612, 802) located proximate the distal end (212, 300, 400, 500), wherein the cutting surface (308, 408, 508, 520, 604, 612, 802) is configured to contact and sever the fibrous tissue when the fibrous tissue is positioned in contact with the cutting surface (308, 408, 508, 520, 604, 612, 802), characterized in that the cutting surface (308, 408, 508, 520, 604, 612, 802) has a center point which is located at a predetermined distance from the distal end (212, 300, 400, 500) of the ultrasonic probe (200, 302, 402, 502, 800), wherein the predetermined distance corresponds to an antinode of an ultrasonic longitudinal vibration pattern produced by the delivery of ultrasonic energy to the distal end (212, 300, 400, 500) of the ultrasonic probe (200, 302, 402, 502, 800).
A device for detecting joint parts of a steel strip in an endless hot rolling process, comprising: a charge coupled device camera; an image signal collection block receiving image signals, each having information on gray level pixels of a steel strip, from the charge coupled device camera; an edge line detection block receiving the image signals from the image signal collection block to detect an edge line of the steel strip; a profile calculation block receiving information on the detection of the edge line from the edge line detection block to calculate the sum of gray levels up to the edge line of the steel strip in a traverse direction of the steel strip when the edge line is detected by the edge line detection block; a joint part judgement block receiving information on the sum of the gray levels, which shows a current profile value, from the profile calculation block to judge the edge line as a joint part when a ratio of a mean value of the current profile and a mean value of the previous profile is less than a predetermined value; and an output block receiving information on the judgement of the edge line as the joint part from the joint part judgement block to output a joint part-detecting signal when the edge line is judged to be a joint part. a charge coupled device camera; an image signal collection block receiving image signals, each having information on gray level pixels of a steel strip, from the charge coupled device camera; an edge line detection block receiving the image signals from the image signal collection block to detect an edge line of the steel strip; a profile calculation block receiving information on the detection of the edge line from the edge line detection block to calculate the sum of gray levels up to the edge line of the steel strip in a traverse direction of the steel strip when the edge line is detected by the edge line detection block; a joint part judgement block receiving information on the sum of the gray levels, which shows a current profile value, from the profile calculation block to judge the edge line as a joint part when a ratio of a mean value of the current profile and a mean value of the previous profile is less than a predetermined value; and an output block receiving information on the judgement of the edge line as the joint part from the joint part judgement block to output a joint part-detecting signal when the edge line is judged to be a joint part.
A method for genetic encoding of chemical modifications in genetically encoded libraries of chemically modified peptides, comprising the steps of: (a) producing a series of silent barcodes, comprising genetic sequences that produce identical transcriptional products; (b) separately producing different phage libraries that carry different silent barcodes, and modifying each with a different chemical modification; and (c) creating a mixed library by combining the different phage libraries together; (d) wherein a peptide sequence can be traced by sequencing a variable region, and the modification can be traced by sequencing the silent barcode. (a) producing a series of silent barcodes, comprising genetic sequences that produce identical transcriptional products; (b) separately producing different phage libraries that carry different silent barcodes, and modifying each with a different chemical modification; and (c) creating a mixed library by combining the different phage libraries together; (d) wherein a peptide sequence can be traced by sequencing a variable region, and the modification can be traced by sequencing the silent barcode.
A device for transmitting the motion to a roll of a rolling stand comprising: a telescopic drive shaft having first and second telescopic members (54, 55) adapted to slide within each other by a predefined sliding stroke, a drive shaft support (50, 59) incorporating a drive shaft extending and shortening device, characterized in that it further comprises a snap-action locking mechanism for locking the first and second telescopic members (54, 55) to a predefined working length, an elastic device exerting a preloading force axially directed along the two telescopic members (54, 55), in the end part of the sliding stroke, and a release mechanism (66', 66"), adapted to be remotely controlled, for releasing the snap-action locking mechanism. a telescopic drive shaft having first and second telescopic members (54, 55) adapted to slide within each other by a predefined sliding stroke, a drive shaft support (50, 59) incorporating a drive shaft extending and shortening device, characterized in that it further comprises a snap-action locking mechanism for locking the first and second telescopic members (54, 55) to a predefined working length, an elastic device exerting a preloading force axially directed along the two telescopic members (54, 55), in the end part of the sliding stroke, and a release mechanism (66', 66"), adapted to be remotely controlled, for releasing the snap-action locking mechanism.
A process for the first start-up of an apparatus in which a heat transfer or heat storage medium is used at a temperature in the range from 500 to 620°C and an oxygen partial pressure over the nitrate salt composition in the range from 0.1 to 1.0 atm by introducing the heat transfer or heat storage medium into the apparatus and heating it up by means of a heat source, wherein the heat transfer or heat storage medium comprises a nitrate salt composition Z comprising Z1 at least one alkali metal nitrate and optionally alkaline earth metal nitrate and also Z2 at least one alkali metal nitrite and optionally alkaline earth metal nitrite in an amount of Z2 in the range from 1.1 to 15.0 mol% based on the sum Z1 plus Z2 and the molar amount of the alkali metal nitrite and optionally alkaline earth metal nitrite for a desired temperature selected from the range indicated above and for a desired oxygen partial pressure selected from the range indicated above is calculated by means of the following formula: x nitrite = K 6 T K 6 T + P O 2 where the variables have the following meanings: X nitrite is the mole fraction of nitrite in a nitrite/nitrate mixture, K 6 is the temperature-dependent equilibrium constant of the reaction nitrate ⇆ nitrite + 1⁄2 oxygen (NO 3 - ⇆ NO 2 - + 1⁄2 O 2), pO 2 is the oxygen partial pressure and T is the temperature of the nitrate salt composition, and the calculated value of the molar concentration of the component Z2 is optionally reduced by 40% or increased by 20%. X nitrite is the mole fraction of nitrite in a nitrite/nitrate mixture, K 6 is the temperature-dependent equilibrium constant of the reaction nitrate ⇆ nitrite + 1⁄2 oxygen (NO 3 - ⇆ NO 2 - + 1⁄2 O 2), pO 2 is the oxygen partial pressure and T is the temperature of the nitrate salt composition, and the calculated value of the molar concentration of the component Z2 is optionally reduced by 40% or increased by 20%.
A superconducting magnet assembly comprising a main magnet assembly comprising at least one annular coil arranged about an axis, and at least one shield coil, of greater diameter than the main magnet assembly, arranged about the axis, wherein at least one conical annular support (20; 60) is provided, attached to the shield coil and to the main magnet assembly, characterized in that the main magnet assembly further comprises an end ring bonded to an axially outer end of the shield coil, a radially outer circumference of the material of the conical annular support being attached to the end ring.
An immunoconjugate comprising a cytotoxic agent and a human or humanized antibody, wherein said antibody comprises: i) a variable heavy chain sequence of SEQ ID NO: 23 and a variable light chain sequence of SEQ ID NO: 27, or ii) a variable heavy chain sequence of SEQ ID NO: 20 and a variable light chain sequence of SEQ ID NO: 24, or iii) a variable heavy chain sequence of SEQ ID NO: 21 and a variable light chain sequence of SEQ ID NO: 25, and wherein the cytotoxic agent is a maytansinoid. i) a variable heavy chain sequence of SEQ ID NO: 23 and a variable light chain sequence of SEQ ID NO: 27, or ii) a variable heavy chain sequence of SEQ ID NO: 20 and a variable light chain sequence of SEQ ID NO: 24, or iii) a variable heavy chain sequence of SEQ ID NO: 21 and a variable light chain sequence of SEQ ID NO: 25,
A method for controlling a pitch angle (αP) of a rotor blade of a wind energy plant comprising a rotor having a rotor hub, wherein at least one rotor blade is mounted to the rotor hub and is further rotatable around a pitch axis by a pitch drive system having a first and a second antagonistic pitch drive (PD1, PD2), the method comprising the step of controlling the first and second pitch drive (PD1, PD2) so as to apply a first and a second counteractive torque (M1, M2) to the rotor blade, characterized in that the first pitch drive is configured to provide a first maximum torque and the second pitch drive is configured to provide a second maximum torque, wherein the maximum torque of the first pitch drive is greater than the maximum torque of the second drive.
Optical assembly comprising - a splitting element which splits an input beam into at least two spatially separated partial beams, - at least one optical waveguide, through which the partial beams propagate, and - at least one combination element which spatially superimposes the partial beams in an output beam, characterised in that the optical waveguide comprises a plurality of core regions which extend along the longitudinal extension of the optical waveguide and which, viewed in the cross section of the optical waveguide, are arranged so as to be spaced apart, side-by-side and/or one above the other, and a first jacket which, viewed in the cross section of the optical waveguide, surrounds the core regions, wherein the optical waveguide consists, at least in the core regions, of crystalline material, wherein each core region in each case guides a partial beam, wherein the jacket consists of a uniform, undoped material, wherein the optical waveguide, viewed in cross section, comprises regions which are doped with rare earth ions and which overlap with the core regions, at least in part. - a splitting element which splits an input beam into at least two spatially separated partial beams, - at least one optical waveguide, through which the partial beams propagate, and - at least one combination element which spatially superimposes the partial beams in an output beam,
A telecommunication network component, comprising: a memory, configured to store instructions; and a processor, configured to execute the stored instructions, wherein the instructions comprises: determining a steering vector, wherein the channel state information is imperfect; and outputting the steering vector to be applied to a symbol to be transmitted; wherein the steering vector is calculated to increase the signal-to-leakage ratio; the signal-to-leakage ratio is the ratio of the average power of a desired signal component to the sum of the interference power of other wireless terminals; characterised in that the signal-to-leakage ratio is calculated according to: γ k u k = u ^ k T ⁢ u k 2 + σ h 2 ⁢ ‖ u k ‖ 2 ∑ l ≠ k h ^ l T ⁢ u k 2 + σ h 2 ⁢ ‖ u k ‖ 2, wherein γ k is the signal-to-leakage ratio, u k is a steering vector, ĥ k is the CSI for a k'th channel assuming error in channel, ĥ l is the CSI for another channel that is not the k'th channel, and σ h 2 is a variance of the error in the channel; calculating the steering vector u k when the signal-to-leakage ratio γ k (u k), reaches a high value, γ ok. a memory, configured to store instructions; and a processor, configured to execute the stored instructions, wherein the instructions comprises: determining a steering vector, wherein the channel state information is imperfect; and outputting the steering vector to be applied to a symbol to be transmitted; wherein the steering vector is calculated to increase the signal-to-leakage ratio; the signal-to-leakage ratio is the ratio of the average power of a desired signal component to the sum of the interference power of other wireless terminals; characterised in that the signal-to-leakage ratio is calculated according to: γ k u k = u ^ k T ⁢ u k 2 + σ h 2 ⁢ ‖ u k ‖ 2 ∑ l ≠ k h ^ l T ⁢ u k 2 + σ h 2 ⁢ ‖ u k ‖ 2, determining a steering vector, wherein the channel state information is imperfect; and outputting the steering vector to be applied to a symbol to be transmitted; wherein the steering vector is calculated to increase the signal-to-leakage ratio; the signal-to-leakage ratio is the ratio of the average power of a desired signal component to the sum of the interference power of other wireless terminals; characterised in that the signal-to-leakage ratio is calculated according to: γ k u k = u ^ k T ⁢ u k 2 + σ h 2 ⁢ ‖ u k ‖ 2 ∑ l ≠ k h ^ l T ⁢ u k 2 + σ h 2 ⁢ ‖ u k ‖ 2, wherein γ k is the signal-to-leakage ratio, u k is a steering vector, ĥ k is the CSI for a k'th channel assuming error in channel, ĥ l is the CSI for another channel that is not the k'th channel, and σ h 2 is a variance of the error in the channel; calculating the steering vector u k when the signal-to-leakage ratio γ k (u k), reaches a high value, γ ok.
A method for an assessment of a movement of a limb-related point in a predetermined 3D space effected by a user displacing said limb in the 3D space, comprising the steps of: providing a computer comprising a processor, memory and a computer program, providing one or more display surfaces around the 3D space around the user, providing a limb position point connected to a predetermined portion of the limb of the user which is associated to the limb-related point, providing one or more sensors adapted to detect the position of the limb position point in the 3D space in relation to a predetermined plane, calculating, using the computer program adapted thereto, a position (x,y) of the limb-related point in said plane being a value of a first function of the position of the limb-related point, and providing a representation of the position of the limb-related point in the 3D space being related to the distance (z) to that plane as a second function of said value on one of the display surfaces. providing a computer comprising a processor, memory and a computer program, providing one or more display surfaces around the 3D space around the user, providing a limb position point connected to a predetermined portion of the limb of the user which is associated to the limb-related point, providing one or more sensors adapted to detect the position of the limb position point in the 3D space in relation to a predetermined plane, calculating, using the computer program adapted thereto, a position (x,y) of the limb-related point in said plane being a value of a first function of the position of the limb-related point, and providing a representation of the position of the limb-related point in the 3D space being related to the distance (z) to that plane as a second function of said value on one of the display surfaces.
A device comprising: a display that includes pixel groups (210A-O, 310A-C, 410A-C), wherein the pixel groups are electrically coupled together with transparent conductive interconnections; and a camera located beneath the display, wherein the camera is configured to sense light that passes through the display, characterised in that a bottom and sides of each of the pixel groups are covered with non-reflective material which absorbs at least 70 % of light incident on the non-reflective material. a display that includes pixel groups (210A-O, 310A-C, 410A-C), wherein the pixel groups are electrically coupled together with transparent conductive interconnections; and a camera located beneath the display, wherein the camera is configured to sense light that passes through the display, characterised in that a bottom and sides of each of the pixel groups are covered with non-reflective material which absorbs at least 70 % of light incident on the non-reflective material.
A method for operating a spatially resolving, optoelectronic sensor device having a sensor surface, comprising a plurality of light-sensitive sensor elements, and having a capturing optical system, which images a spatial light distribution in an environment scanned by said capturing optical system on the sensor surface, wherein subsets of sensor elements are activated in each case for the duration of an associated activation interval for the integration of incident light in order to produce a corresponding partial image of the environment, and having a lighting device, which, in temporal correlation with the activation intervals, lights up the environment scanned by the capturing optical system, at least temporarily and in specific regions using light of a wavelength range that can be integrated by the sensor elements, characterised in that, in order to produce a computed image of the environment, the sensor surface is activated in accordance with the rolling shutter principle within a frame time as a sequence of n-tuples of pairs of activation intervals and associated subsets of sensor elements for producing n partial images, in such a way that, within each n-tuple, n subsets of sensor elements are activated during n activation intervals with n different lighting conditions of the environment brought about by corresponding activation of the lighting source (7a, 7c) and the partial images recorded within an n-tuple are processed with one another in a data processing device in order to produce the computed image.
A conveyor apparatus for conveying an air-permeable continuous web, wherein the web is stretchable in a cross direction perpendicular to a conveyance direction of the web, said conveyor apparatus comprising: an endless belt rotatably supported by a plurality of rollers and having a plurality of suction portions penetrating the belt; and a suction mechanism for sucking and holding, via the suction portions, the web on the belt while the web is being conveyed; wherein the belt further includes lifting portions each of which is provided between the suction portions adjacent in the cross direction and is raised from edge portions of the suction portions; characterised in that the suction portions and the lifting portions are defined by wires woven with each other in crossing directions; the plurality of suction portions adjacent to each other across the lifting portions communicate with each other over the lifting portions, when the web is sucked and held on the belt; and the suction portions located at endmost portions in the cross direction of the belt communicate with the outside, when the web is sucked and held on the belt. an endless belt rotatably supported by a plurality of rollers and having a plurality of suction portions penetrating the belt; and a suction mechanism for sucking and holding, via the suction portions, the web on the belt while the web is being conveyed; wherein the belt further includes lifting portions each of which is provided between the suction portions adjacent in the cross direction and is raised from edge portions of the suction portions; characterised in that the suction portions and the lifting portions are defined by wires woven with each other in crossing directions; the plurality of suction portions adjacent to each other across the lifting portions communicate with each other over the lifting portions, when the web is sucked and held on the belt; and the suction portions located at endmost portions in the cross direction of the belt communicate with the outside, when the web is sucked and held on the belt.
An inkjet recording device comprising: a recording head configured to eject ink; a first tank configured to store ink; a second tank configured to store the ink supplied from the first tank; a first liquid sending unit configured to send the ink from the first tank to the second tank; one or a plurality of second liquid sending units configured to send the ink from the second tank to the recording head via a liquid sending flow path; a reference sensor configured to determine whether the ink stored in the second tank is a predetermined standard storage amount; an upper limit sensor configured to determine whether the ink stored in the second tank is an upper limit storage amount larger than the standard storage amount; a lower limit sensor configured to determine whether the ink stored in the second tank is a lower limit storage amount smaller than the standard storage amount; and a controller, wherein, the controller is configured to determine whether to operate the first liquid sending unit depending on a detected result of the reference sensor; and the controller is configured to perform predetermined abnormality handling operations according to a detected result of the upper limit sensor and the lower limit sensor. a recording head configured to eject ink; a first tank configured to store ink; a second tank configured to store the ink supplied from the first tank; a first liquid sending unit configured to send the ink from the first tank to the second tank; one or a plurality of second liquid sending units configured to send the ink from the second tank to the recording head via a liquid sending flow path; a reference sensor configured to determine whether the ink stored in the second tank is a predetermined standard storage amount; an upper limit sensor configured to determine whether the ink stored in the second tank is an upper limit storage amount larger than the standard storage amount; a lower limit sensor configured to determine whether the ink stored in the second tank is a lower limit storage amount smaller than the standard storage amount; and a controller, wherein, the controller is configured to determine whether to operate the first liquid sending unit depending on a detected result of the reference sensor; and the controller is configured to perform predetermined abnormality handling operations according to a detected result of the upper limit sensor and the lower limit sensor.