mhurhangee/ep-ind-claims huggingface dataset:
1. A device for transmitting data and/or signals between a first car body of a multi-member vehicle, a track-guided vehicle in particular, and a second car body mechanically connected to the first car body, wherein the device comprises an interface element having at least one optical waveguide arrangement, wherein the optical waveguide arrangement comprises at least one optical fiber as a transmission medium for a line-connected communication system of the multi-member vehicle and a first terminal assigned to the first car body as well as a second terminal assigned to the second car body, wherein the interface element is displaceable in the longitudinal coupling direction relative to a coupling head of the first car body from a first position, in which the interface element with the at least one optical waveguide arrangement is fully accommodated in the coupling head of the first car body, into a second position and vice versa, wherein in the second position, at least the second terminal of the optical waveguide arrangement projects from the coupling head of the first car body so as to establish a data connection between the at least one optical fiber of the optical waveguide arrangement and a contact terminal of a coupling head of the second car body, wherein the at least one optical fiber of the optical waveguide arrangement has an optical fiber core, particularly a thin glass core, signal-connecting the first and second terminal (15, 16).
An activatable antibody that, in an activated state, binds CD166 comprising: an antibody or an antigen binding fragment thereof that specifically binds to mammalian CD166, wherein the AB specifically binds human CD166 and cynomolgus monkey CD166, wherein the AB comprises the VH CDR1 amino acid sequence GFSLSTYGMGVG (SEQ ID NO: 127), the VH CDR2 amino acid sequence NIWWSEDKH (SEQ ID NO: 128), the VH CDR3 amino acid sequence IDYGNDYAFTY (SEQ ID NO: 129), the VL CDR1 amino acid sequence RSSKSLLHSNGITYLY (SEQ ID NO: 130) or RSSQSLLHSNGITYLY (SEQ ID NO: 131), the VL CDR2 amino acid sequence QMSNLAS (SEQ ID NO: 132) or QMSNRAS (SEQ ID NO: 133), and the VL CDR3 amino acid sequence AQNLELPYT (SEQ ID NO: 134); a masking moiety that inhibits the binding of the AB to CD166 when the activatable antibody is in an uncleaved state, and wherein the MM is a polypeptide of no more than 40 amino acids in length; a cleavable moiety coupled to the AB, wherein the CM is a polypeptide that is a substrate for a protease; and a first linking peptide and a second linking peptide, wherein the activatable antibody in the uncleaved state has the structural arrangement from N-terminus to C-terminus as follows: MM-LP1-CM-LP2-AB and wherein each of LP1 and LP2 is a peptide of 1 to 20 amino acids in length. an antibody or an antigen binding fragment thereof that specifically binds to mammalian CD166, wherein the AB specifically binds human CD166 and cynomolgus monkey CD166, wherein the AB comprises the VH CDR1 amino acid sequence GFSLSTYGMGVG (SEQ ID NO: 127), the VH CDR2 amino acid sequence NIWWSEDKH (SEQ ID NO: 128), the VH CDR3 amino acid sequence IDYGNDYAFTY (SEQ ID NO: 129), the VL CDR1 amino acid sequence RSSKSLLHSNGITYLY (SEQ ID NO: 130) or RSSQSLLHSNGITYLY (SEQ ID NO: 131), the VL CDR2 amino acid sequence QMSNLAS (SEQ ID NO: 132) or QMSNRAS (SEQ ID NO: 133), and the VL CDR3 amino acid sequence AQNLELPYT (SEQ ID NO: 134); a masking moiety that inhibits the binding of the AB to CD166 when the activatable antibody is in an uncleaved state, and wherein the MM is a polypeptide of no more than 40 amino acids in length; a cleavable moiety coupled to the AB, wherein the CM is a polypeptide that is a substrate for a protease; and a first linking peptide and a second linking peptide, wherein the activatable antibody in the uncleaved state has the structural arrangement from N-terminus to C-terminus as follows: MM-LP1-CM-LP2-AB and wherein each of LP1 and LP2 is a peptide of 1 to 20 amino acids in length.
A method of monitoring an avionics system for pneumatic blockages, the method comprising: providing a first sensor in association with an air inlet for detecting air pressure, providing a second sensor that is separate and independent from the first sensor, the second sensor is also in association with the air inlet for detecting air pressure, the second sensor being configured and operable to provide a frequency response signal range which is higher than the frequency response signal range of the first sensor; calculating aircraft movement data using the detected air pressure from the first sensor; and determining if the first sensor is faulty or if the air inlet is blocked in dependence upon the frequency content in output from the second sensor. providing a first sensor in association with an air inlet for detecting air pressure, providing a second sensor that is separate and independent from the first sensor, the second sensor is also in association with the air inlet for detecting air pressure, the second sensor being configured and operable to provide a frequency response signal range which is higher than the frequency response signal range of the first sensor; calculating aircraft movement data using the detected air pressure from the first sensor; and determining if the first sensor is faulty or if the air inlet is blocked in dependence upon the frequency content in output from the second sensor.
Use of 4-chloroindole-3-acetic acid (4Cl-IAA) in the form of a potassium salt, a sodium salt or an amine salt to selectively eradicate at least one weed selected from the group consisting of burdock, thistle, hawkweed, autumn hawkbit, lupulin, dandelion, plantain, potentilla, clover and coltsfoot.
A composite armor plate comprising: - a front layer adapted for facing in the direction of a threat, - a back layer; and - a main armor layer connected to the front layer and back layer, the main armor layer comprising a plurality of pellets in a matrix of a binder material, the pellets being made of a high density ballistic material and having a domed front end, a planar back end and a body portion extending between the front layer and the back layer, characterised by: the front layer comprising side walls defining a cavity having a bottom, the main armour layer being disposed within the cavity of the front layer between the back layer and the bottom of the front layer, the domed front end of the pellets facing the bottom wall of the cavity of the front layer, the planar back end of the pellets facing away from the bottom of the cavity of the front layer, and the front and back layers being bound to the main layer by the binder matrix, the front layer having a shape at the bottom of the cavity defined thereby, substantially conforming to that of the domed front ends of the pellets in the main layer. - a front layer adapted for facing in the direction of a threat, - a back layer; and - a main armor layer connected to the front layer and back layer, the main armor layer comprising a plurality of pellets in a matrix of a binder material, the pellets being made of a high density ballistic material and having a domed front end, a planar back end and a body portion extending between the front layer and the back layer, characterised by: the front layer comprising side walls defining a cavity having a bottom, the main armour layer being disposed within the cavity of the front layer between the back layer and the bottom of the front layer, the domed front end of the pellets facing the bottom wall of the cavity of the front layer, the planar back end of the pellets facing away from the bottom of the cavity of the front layer, and the front and back layers being bound to the main layer by the binder matrix, the front layer having a shape at the bottom of the cavity defined thereby, substantially conforming to that of the domed front ends of the pellets in the main layer. the front layer comprising side walls defining a cavity having a bottom, the main armour layer being disposed within the cavity of the front layer between the back layer and the bottom of the front layer, the domed front end of the pellets facing the bottom wall of the cavity of the front layer, the planar back end of the pellets facing away from the bottom of the cavity of the front layer, and the front and back layers being bound to the main layer by the binder matrix, the front layer having a shape at the bottom of the cavity defined thereby, substantially conforming to that of the domed front ends of the pellets in the main layer.
Filter for filtering particles from a plasma plume, which filter comprises: - a housing with two pass-through openings (3, 4) arranged in the housing wall and forming a pass-through channel for passing at least part of the plasma plume through the housing, which pass-through channel extends from one side of the housing to an opposite side of the housing; - at least one primary blade arranged at a distance from and rotatable around a rotation axis, which rotation axis is parallel and spaced apart from the center line of the pass-through channel, wherein the path of the at least one primary blade intersects with the pass-through channel and wherein the at least one primary blade has a contact surface for contact with the plasma plume, which contact surface is facing in the direction of the rotation direction; characterized by - a drain channel connecting to a drain opening arranged in the housing wall, wherein a line extending perpendicular from both the center line of the pass-through channel and a radial line extending from the rotation axis through the center line of the pass-through channel and through the path of the at least one primary blade, extends through the drain opening. - a housing with two pass-through openings (3, 4) arranged in the housing wall and forming a pass-through channel for passing at least part of the plasma plume through the housing, which pass-through channel extends from one side of the housing to an opposite side of the housing; - at least one primary blade arranged at a distance from and rotatable around a rotation axis, which rotation axis is parallel and spaced apart from the center line of the pass-through channel, wherein the path of the at least one primary blade intersects with the pass-through channel and wherein the at least one primary blade has a contact surface for contact with the plasma plume, which contact surface is facing in the direction of the rotation direction; characterized by - a drain channel connecting to a drain opening arranged in the housing wall, wherein a line extending perpendicular from both the center line of the pass-through channel and a radial line extending from the rotation axis through the center line of the pass-through channel and through the path of the at least one primary blade, extends through the drain opening.
A screen apparatus (104, 204, 304) for screening granules, in particular wet and/or dry granules, comprising (a) a screen housing (108, 208, 308) comprising a bottom (119, 219, 319), a cover (106, 206, 306) and a side wall (107, 207, 307), (b) an inlet opening (109, 209) for the granules, which is arranged on the screen housing (108, 208, 308), (c) an outlet opening (110, 210, 310) for the screened granules, arranged laterally on the screen housing (108, 208, 308), (d) a screen (111, 211, 311) arranged in the screen housing (108, 208, 308), and (e) an inlet opening (116, 216, 316) for transfer air arranged laterally on the screen housing, characterized in that the inlet opening (116, 216, 316) for transfer air and the outlet opening (110, 210, 310) for the screened granules are arranged on the side wall (107, 207, 307) of the screen housing (108, 208, 308), wherein the inlet opening (116, 216, 316) for transfer air and the outlet opening (110, 210, 310) for the screened granules are each arranged downstream of the screen (111, 211, 311). (a) a screen housing (108, 208, 308) comprising a bottom (119, 219, 319), a cover (106, 206, 306) and a side wall (107, 207, 307), (b) an inlet opening (109, 209) for the granules, which is arranged on the screen housing (108, 208, 308), (c) an outlet opening (110, 210, 310) for the screened granules, arranged laterally on the screen housing (108, 208, 308), (d) a screen (111, 211, 311) arranged in the screen housing (108, 208, 308), and (e) an inlet opening (116, 216, 316) for transfer air arranged laterally on the screen housing,
A method of dispersion measurement in an optical fibre network, said network comprising at least first and second nodes connected by a length of optical fibre, the method comprising the steps of: (a) setting the second node such that a single receiver can receive at least two different wavelengths λ1 and λ2; (b) transmitting from the first node, using a single tunable laser transmitter, two consecutive bursts of data at different wavelengths λ1 and λ2, wherein each burst of data comprises a unique sequence of amplitude modulated data, and wherein the two sequences are injected with a fixed known delay; (c) maintaining a delay between the two consecutive bursts of data by selective switching of the tunable laser, such that clock recovery circuitry at the receiver node remains locked during the delay between the two bursts; (d) receiving at the second node the two consecutive bursts of data; (e) measuring the relative delay between the two unique sequences of data each one contained in one of the received bursts of data; (f) calculating the dispersion of the optical fibre from one or more of the following: the measured relative delay, the fixed known delay, the length of the fibre and the at least two different wavelengths. (a) setting the second node such that a single receiver can receive at least two different wavelengths λ1 and λ2; (b) transmitting from the first node, using a single tunable laser transmitter, two consecutive bursts of data at different wavelengths λ1 and λ2, wherein each burst of data comprises a unique sequence of amplitude modulated data, and wherein the two sequences are injected with a fixed known delay; (c) maintaining a delay between the two consecutive bursts of data by selective switching of the tunable laser, such that clock recovery circuitry at the receiver node remains locked during the delay between the two bursts; (d) receiving at the second node the two consecutive bursts of data; (e) measuring the relative delay between the two unique sequences of data each one contained in one of the received bursts of data; (f) calculating the dispersion of the optical fibre from one or more of the following: the measured relative delay, the fixed known delay, the length of the fibre and the at least two different wavelengths.
A reduced-pressure treatment system comprising a see through dressing assembly comprising: a porous foam bolster body having a material configured to allow for sufficient light to pass through the material such that the color, shades of color, wound edge, or other features of a linear wound can be seen from a point external to the reduced-pressure treatment system; a window placed over an exterior portion of the bolster material and configured to compress down on the bolster material when reduced pressure is applied such that the linear wound becomes visible through the window from a point external to the bolster body; a sealing member for covering the bolster body and window and extending beyond the bolster body to form a drape extension for forming a fluid seal, using a sealing apparatus, between the sealing member and the epidermis of a patient to which the dressing assembly is applied. a porous foam bolster body having a material configured to allow for sufficient light to pass through the material such that the color, shades of color, wound edge, or other features of a linear wound can be seen from a point external to the reduced-pressure treatment system; a window placed over an exterior portion of the bolster material and configured to compress down on the bolster material when reduced pressure is applied such that the linear wound becomes visible through the window from a point external to the bolster body; a sealing member for covering the bolster body and window and extending beyond the bolster body to form a drape extension for forming a fluid seal, using a sealing apparatus, between the sealing member and the epidermis of a patient to which the dressing assembly is applied.
A compensating multi-layer material comprising: an indefinite anisotropic first layer having material properties of ε 1 and μ 1, both of ε 1 and μ 1 being tensors, and a thickness d 1; an indefinite anisotropic second layer adjacent to said first layer, said second layer having material properties of ε 2 and μ 2, both of ε 2 and μ 2 being tensors, and having a thickness d 2; each of said first and second layers comprising a composite material including a host dielectric medium with split ring resonators and straight wires embedded in said host medium in a periodic spatial arrangement; wherein ε 1, μ 1, ε 2, and μ 2 are simultaneously diagonalizable in a diagonalizing basis that includes a layer normal to said first and second layers, and further wherein ε 1, μ 1, ε 2, and μ 2 satisfy the equations ε 2 = ψ ⁢ ε 1 μ 2 = ψ ⁢ μ 1 where ψ = - d 1 d 2 0 0 0 d 1 d 2 0 0 0 d 1 d 2 and ψ is a tensor represented in said diagonalizing basis with a third basis vector that is normal to said first and second layers. an indefinite anisotropic first layer having material properties of ε 1 and μ 1, both of ε 1 and μ 1 being tensors, and a thickness d 1; an indefinite anisotropic second layer adjacent to said first layer, said second layer having material properties of ε 2 and μ 2, both of ε 2 and μ 2 being tensors, and having a thickness d 2; each of said first and second layers comprising a composite material including a host dielectric medium with split ring resonators and straight wires embedded in said host medium in a periodic spatial arrangement; wherein ε 1, μ 1, ε 2, and μ 2 are simultaneously diagonalizable in a diagonalizing basis that includes a layer normal to said first and second layers, and further wherein ε 1, μ 1, ε 2, and μ 2 satisfy the equations ε 2 = ψ ⁢ ε 1 μ 2 = ψ ⁢ μ 1 where ψ = - d 1 d 2 0 0 0 d 1 d 2 0 0 0 d 1 d 2 and ψ is a tensor represented in said diagonalizing basis with a third basis vector that is normal to said first and second layers.
An aerator hole spacing control, comprising: an aerator having a hydrostatic traction drive, a hydrostatic pump and at least three wheels, a neck extending therefrom with a handle assembly including operator controls in order to steer the aerator by using the handle assembly to pivot one of the wheels about a vertical pivot axis; a coring head mounted on the rear of the aerator carrying a plurality of tine assemblies that reciprocate up and down; each tine assembly having a plurality of coring tines that are driven into the ground and produce holes for the purpose of aerating the turf; an operator actuated speed control lever on the handle assembly; characterised by; a pivoting speed control cam connected to the speed control lever and having a curved cam surface with a variable radius; a control arm with a cam follower and mounted to a hydrostatic pump control shaft of the traction drive; the control arm moving the cam follower into contact with the curved cam surface of the pivoting speed control cam and placing the hydrostatic pump in a position to operate the traction drive between a minimum coring speed and a maximum coring speed to change the hole spacing while the aerator moves forward and the coring head is operating based on where the cam follower contacts the speed control cam along the variable radius of the curved cam surface. an aerator having a hydrostatic traction drive, a hydrostatic pump and at least three wheels, a neck extending therefrom with a handle assembly including operator controls in order to steer the aerator by using the handle assembly to pivot one of the wheels about a vertical pivot axis; a coring head mounted on the rear of the aerator carrying a plurality of tine assemblies that reciprocate up and down; each tine assembly having a plurality of coring tines that are driven into the ground and produce holes for the purpose of aerating the turf; an operator actuated speed control lever on the handle assembly; characterised by; a pivoting speed control cam connected to the speed control lever and having a curved cam surface with a variable radius; a control arm with a cam follower and mounted to a hydrostatic pump control shaft of the traction drive; the control arm moving the cam follower into contact with the curved cam surface of the pivoting speed control cam and placing the hydrostatic pump in a position to operate the traction drive between a minimum coring speed and a maximum coring speed to change the hole spacing while the aerator moves forward and the coring head is operating based on where the cam follower contacts the speed control cam along the variable radius of the curved cam surface.
Device for connecting a communications terminal, the device comprising: - a flat surface; - a male connector which is to be connected to a female connector of said communications terminal, - a mobile base, on which said male connector is fixed, said mobile base being placed on said flat surface, - a groove made in said base and a corresponding tongue on said flat surface, which extends longitudinally in a sliding axis, in which said mobile base can slide on said flat surface in a sliding axis corresponding to a direction of docking and removal of said communications terminal within said device. - a flat surface; - a male connector which is to be connected to a female connector of said communications terminal, - a mobile base, on which said male connector is fixed, said mobile base being placed on said flat surface, - a groove made in said base and a corresponding tongue on said flat surface, which extends longitudinally in a sliding axis, in which said mobile base can slide on said flat surface in a sliding axis corresponding to a direction of docking and removal of said communications terminal within said device.
An antibody against human TROP-2, which has anti-tumor activity in vivo and in which: (a) the H chain V region of the antibody consists of the amino acid sequence shown in SEQ ID NO: 35 or the amino acid sequence consisting of amino acids at positions 20 to 134 in the amino acid sequence as shown in SEQ ID NO: 35, and the L chain V region thereof consists of the amino acid sequence shown in SEQ ID NO: 40 or the amino acid sequence consisting of amino acids at positions 21 to 127 in the amino acid sequence as shown in SEQ ID NO: 40; or (b) the H chain V region of the antibody consists of the amino acid sequence shown in SEQ ID NO: 65 or the amino acid sequence consisting of amino acids at positions 20 to 141 in the amino acid sequence as shown in SEQ ID NO: 65, and the L chain V region thereof consists of the amino acid sequence shown in SEQ ID NO: 70 or the amino acid sequence consisting of amino acids at positions 20 to 130 in the amino acid sequence as shown in SEQ ID NO: 70. (a) the H chain V region of the antibody consists of the amino acid sequence shown in SEQ ID NO: 35 or the amino acid sequence consisting of amino acids at positions 20 to 134 in the amino acid sequence as shown in SEQ ID NO: 35, and the L chain V region thereof consists of the amino acid sequence shown in SEQ ID NO: 40 or the amino acid sequence consisting of amino acids at positions 21 to 127 in the amino acid sequence as shown in SEQ ID NO: 40; or (b) the H chain V region of the antibody consists of the amino acid sequence shown in SEQ ID NO: 65 or the amino acid sequence consisting of amino acids at positions 20 to 141 in the amino acid sequence as shown in SEQ ID NO: 65, and the L chain V region thereof consists of the amino acid sequence shown in SEQ ID NO: 70 or the amino acid sequence consisting of amino acids at positions 20 to 130 in the amino acid sequence as shown in SEQ ID NO: 70.