mhurhangee/ep-ind-claims huggingface dataset:
A positive-working lithographic printing plate precursor which comprises a support having a hydrophilic surface or which is provided with a hydrophilic layer, and a heat- and/or light-sensitive coating provided thereon, the coating comprising a first (ethylene vinyl) acetal copolymer including (i) a plurality of ethylenic moieties A having a structure according to the following formula: wherein R 2 and R 3 independently represent hydrogen, a halogen or an optionally substituted linear, branched or cyclic alk(en)yl group, or an optionally substituted aromatic or heteroaromatic group, (ii) a plurality of acetal moieties B having a structure according to the following formula: wherein L is a divalent linking group; x= 0 or 1; R 1 represents an optionally substituted aromatic or heteroaromatic group including at least one hydroxyl group; characterized in that the coating comprises a second (ethylene vinyl) acetal copolymer which is different from the first and which comprises a plurality of ethylenic moieties A. (i) a plurality of ethylenic moieties A having a structure according to the following formula: wherein R 2 and R 3 independently represent hydrogen, a halogen or an optionally substituted linear, branched or cyclic alk(en)yl group, or an optionally substituted aromatic or heteroaromatic group, (ii) a plurality of acetal moieties B having a structure according to the following formula: wherein L is a divalent linking group; x= 0 or 1; R 1 represents an optionally substituted aromatic or heteroaromatic group including at least one hydroxyl group; characterized in that the coating comprises a second (ethylene vinyl) acetal copolymer which is different from the first and which comprises a plurality of ethylenic moieties A. L is a divalent linking group; x= 0 or 1; R 1 represents an optionally substituted aromatic or heteroaromatic group including at least one hydroxyl group; characterized in that the coating comprises a second (ethylene vinyl) acetal copolymer which is different from the first and which comprises a plurality of ethylenic moieties A.
A method for fabricating a light-emitting device, comprising: growing a lift-off layer on a substrate; growing an epitaxial semiconductor device structure on said lift-off layer such that said lift-off layer is sandwiched between said device structure and substrate, said epitaxial semiconductor structure comprising an emitter adapted to emit light in response to a bias; flip-chip mounting said device structure, lift-off layer and substrate on a submount such that said epitaxial semiconductor device structure is sandwiched between said submount and said lift-off layer, and removing at least a portion of said lift-off layer to separate said substrate from said device structure; wherein said epitaxial structure comprises GaN, and said lift-off layer comprises a material from the group InGaN, AlInGaN and AlInGaAs, wherein removing at least some of said light-off layer comprises illuminating said device with laser light having a wavelength of between approximately 390 and 450 nm, the method being characterised in that the substrate is a SiC substrate. growing a lift-off layer on a substrate; growing an epitaxial semiconductor device structure on said lift-off layer such that said lift-off layer is sandwiched between said device structure and substrate, said epitaxial semiconductor structure comprising an emitter adapted to emit light in response to a bias; flip-chip mounting said device structure, lift-off layer and substrate on a submount such that said epitaxial semiconductor device structure is sandwiched between said submount and said lift-off layer, and removing at least a portion of said lift-off layer to separate said substrate from said device structure; wherein said epitaxial structure comprises GaN, and said lift-off layer comprises a material from the group InGaN, AlInGaN and AlInGaAs, wherein removing at least some of said light-off layer comprises illuminating said device with laser light having a wavelength of between approximately 390 and 450 nm, the method being characterised in that the substrate is a SiC substrate.
A multiple head draw frame, particularly a double head draw frame, having at least two drafting systems disposed adjacent to each other for drafting a fiber composite each, an outlet for the drafted fiber material and a storage device disposed in the region of the outlet, such as a coiler plate being associated with each drafting system for laying down the fiber material in a can, a filling point being associated with each storage device, in the region of which a can can each be placed during the changing procedure, and wherein a common rotatable can changer, by means of which the cans can be displaced in a common movement from the filling points thereof to corresponding removal points, is associated with at least two filling points characterized in that the can changer is implemented as a turnstile, having four rotary arms, interacting with a drive, by means of which, the cans can be displaced from the filling points thereof to corresponding removal points.
A load cell for measuring the tension in a supporting cable of a lifting device, wherein the load cell comprises a first body mechanically contactable with a support structure of the lifting device; characterised in that, the first body includes means for measuring the deformation exerted by a second body of the cell, wherein one end of the first body and the corresponding end of the second body are mechanically joined by means of a male-female ball-and-socket type joint.
A genetically engineered cell, wherein the cell expresses an exogenous receptor specifically binding to a target antigen, exogenous CCL21, and a protein promoting the proliferation of the cell which is an IL-7R-binding protein or exogenous IL-7.
A method of operating an active matrix electro-wetting on dielectric (AM-EWOD) device, wherein the AM-EWOD device comprises a plurality of array elements arranged in an array of rows and columns, each of the array elements including array element circuitry and an array element electrode; and wherein the array element circuitry of each array element comprises actuation circuitry configured to apply actuation voltages to the array element electrode for actuating the array element, and impedance sensor circuitry integrated into the array element circuitry and configured to sense impedance at the array element electrode, the impedance sensor circuitry comprising a sensor capacitor and a sensor readout transistor that outputs an output current for sensing; the method of operating comprising the steps of: perturbing a voltage applied to the array element electrode of a first array element to obtain a voltage perturbation, the voltage perturbation coupling via fluid in a channel of the device to the array element electrode of a second array element different from the first array element; and measuring the output current from the sensor readout transistor of the second array element for sensing in response to the voltage perturbation. wherein the AM-EWOD device comprises a plurality of array elements arranged in an array of rows and columns, each of the array elements including array element circuitry and an array element electrode; and wherein the array element circuitry of each array element comprises actuation circuitry configured to apply actuation voltages to the array element electrode for actuating the array element, and impedance sensor circuitry integrated into the array element circuitry and configured to sense impedance at the array element electrode, the impedance sensor circuitry comprising a sensor capacitor and a sensor readout transistor that outputs an output current for sensing; the method of operating comprising the steps of: perturbing a voltage applied to the array element electrode of a first array element to obtain a voltage perturbation, the voltage perturbation coupling via fluid in a channel of the device to the array element electrode of a second array element different from the first array element; and measuring the output current from the sensor readout transistor of the second array element for sensing in response to the voltage perturbation. perturbing a voltage applied to the array element electrode of a first array element to obtain a voltage perturbation, the voltage perturbation coupling via fluid in a channel of the device to the array element electrode of a second array element different from the first array element; and measuring the output current from the sensor readout transistor of the second array element for sensing in response to the voltage perturbation.
An assembly comprising: an optical gimbal; an inertial measurement unit located on the optical gimbal to calculate the center of mass of the optical gimbal; and a multi-axis balancing system for calibrating the optical gimbal, comprising: a) a gimbal platform mounted to the optical gimbal, the gimbal platform defining a pitch axis (Y 2) and a roll axis (X 2); b) a mass mounted for linear movement relative to the pitch axis and the roll axis of the gimbal platform, to locate a balance point for the optical gimbal in response to feedback from the inertial measurement unit, the feedback relating to the calculated center of mass of the optical gimbal; and characterised in that the multi-axis balancing system further comprises: c) a multi-axis drive assembly for effectuating the linear movement of the mass relative to the pitch axis and the roll axis of the gimbal platform, wherein the multi-axis drive assembly includes a first linear actuator for moving the mass relative to the roll axis of the gimbal platform and a second linear actuator for moving the mass relative to the pitch axis of the gimbal platform. an optical gimbal; an inertial measurement unit located on the optical gimbal to calculate the center of mass of the optical gimbal; and a multi-axis balancing system for calibrating the optical gimbal, comprising: a) a gimbal platform mounted to the optical gimbal, the gimbal platform defining a pitch axis (Y 2) and a roll axis (X 2); b) a mass mounted for linear movement relative to the pitch axis and the roll axis of the gimbal platform, to locate a balance point for the optical gimbal in response to feedback from the inertial measurement unit, the feedback relating to the calculated center of mass of the optical gimbal; and a) a gimbal platform mounted to the optical gimbal, the gimbal platform defining a pitch axis (Y 2) and a roll axis (X 2); b) a mass mounted for linear movement relative to the pitch axis and the roll axis of the gimbal platform, to locate a balance point for the optical gimbal in response to feedback from the inertial measurement unit, the feedback relating to the calculated center of mass of the optical gimbal; and characterised in that the multi-axis balancing system further comprises: c) a multi-axis drive assembly for effectuating the linear movement of the mass relative to the pitch axis and the roll axis of the gimbal platform, wherein the multi-axis drive assembly includes a first linear actuator for moving the mass relative to the roll axis of the gimbal platform and a second linear actuator for moving the mass relative to the pitch axis of the gimbal platform.
An image forming apparatus comprising: a scanner configured to acquire scan data by scanning a scan target; an electrostatic discharge, ESD, detector configured to detect an ESD when the scan data is acquired; and a data processor configured to: determine an operation state of the scanner when the ESD is detected as a calibration operation to acquire reference data or a real scan operation to acquire scan image data, upon the determined scanning state when the ESD is detected being the calibration operation, reacquire the scan data, and upon the determined scanning state when the ESD is detected being the real scan operation, replace the scan data of a scan line in which the ESD has occurred with data of the most adjacent scan line, wherein the scan data includes reference data or scan image data. a scanner configured to acquire scan data by scanning a scan target; an electrostatic discharge, ESD, detector configured to detect an ESD when the scan data is acquired; and a data processor configured to: determine an operation state of the scanner when the ESD is detected as a calibration operation to acquire reference data or a real scan operation to acquire scan image data, upon the determined scanning state when the ESD is detected being the calibration operation, reacquire the scan data, and upon the determined scanning state when the ESD is detected being the real scan operation, replace the scan data of a scan line in which the ESD has occurred with data of the most adjacent scan line, wherein the scan data includes reference data or scan image data. determine an operation state of the scanner when the ESD is detected as a calibration operation to acquire reference data or a real scan operation to acquire scan image data, upon the determined scanning state when the ESD is detected being the calibration operation, reacquire the scan data, and upon the determined scanning state when the ESD is detected being the real scan operation, replace the scan data of a scan line in which the ESD has occurred with data of the most adjacent scan line, wherein the scan data includes reference data or scan image data.
Device for locating a drill head of ground drilling equipment, comprising a wireless probe, wherein the probe is arranged on or in a flying object, characterized in that the device is controlled by means of a program, which is stored in a memory of the device and is adapted in such a manner that the flying object flies in a predetermined pattern to find the drill head.
A laser treatment system for medical applications comprising: a laser device; an elongate optical transmission means, having a proximal end and a distal end; first means for connecting said laser device reliably and controllably to said optical transmission means at its proximal end; second means to ensure that laser power that is transmitted from the distal end of the optical transmission means is limited to a pre-specified maximum power level; characterized in that said maximum power level depends on laser wavelength, emission characteristics of said optical transmission means and limiting values so that said system in operation meets requirements for laser safety for designation as laser Class 1 or 1M or as laser class 3R system according to IEC 60825-1:2007 or equivalent; and that said system comprising further third means adapted to detect and identify said optical transmission means. a laser device; an elongate optical transmission means, having a proximal end and a distal end; first means for connecting said laser device reliably and controllably to said optical transmission means at its proximal end; second means to ensure that laser power that is transmitted from the distal end of the optical transmission means is limited to a pre-specified maximum power level; characterized in that said maximum power level depends on laser wavelength, emission characteristics of said optical transmission means and limiting values so that said system in operation meets requirements for laser safety for designation as laser Class 1 or 1M or as laser class 3R system according to IEC 60825-1:2007 or equivalent; and that said system comprising further third means adapted to detect and identify said optical transmission means.
A method of optically determining positions and orientations of a plurality of mirrors (1 to 4) in a field of view of an objective, the method comprising, - illuminating the field of view with parallel light rays, wherein the parallel light rays incident on the mirrors (1 to 4) are reflected by the mirrors (1 to 4), and wherein the light rays reflected by each of the mirrors (1 to 4) are still parallel light rays, - arranging a first camera in an image plane onto which the objective images the field of view, - arranging a second camera in a focal plane of the objective, and - taking a first picture with the first camera and a second picture with the second camera at a same point in time, - wherein a light intensity distribution of the first picture taken with the first camera depends on the positions of the mirrors (1 to 4) in the field of view reflecting the parallel light rays onto the first camera, and - wherein a light intensity distribution of the second picture taken with the second camera depends on the direction of the parallel light rays reflected by the mirrors, i.e. of the orientations of the mirrors (1 to 4) in the field of view, characterized by - arranging a third camera in an intermediate plane located at distances to both the image plane and the focal plane of the objective, and - taking a third picture with the third camera at the same point in time as the first and second pictures are taken with the first and second cameras (19, 17), - wherein a light intensity distribution of the third picture taken with the third camera is a function of both the position and the orientation of the mirrors (1 to 4) in the field of view. - illuminating the field of view with parallel light rays, wherein the parallel light rays incident on the mirrors (1 to 4) are reflected by the mirrors (1 to 4), and wherein the light rays reflected by each of the mirrors (1 to 4) are still parallel light rays, - arranging a first camera in an image plane onto which the objective images the field of view, - arranging a second camera in a focal plane of the objective, and - taking a first picture with the first camera and a second picture with the second camera at a same point in time, - wherein a light intensity distribution of the first picture taken with the first camera depends on the positions of the mirrors (1 to 4) in the field of view reflecting the parallel light rays onto the first camera, and - wherein a light intensity distribution of the second picture taken with the second camera depends on the direction of the parallel light rays reflected by the mirrors, i.e. of the orientations of the mirrors (1 to 4) in the field of view, characterized by - arranging a third camera in an intermediate plane located at distances to both the image plane and the focal plane of the objective, and - taking a third picture with the third camera at the same point in time as the first and second pictures are taken with the first and second cameras (19, 17), - wherein a light intensity distribution of the third picture taken with the third camera is a function of both the position and the orientation of the mirrors (1 to 4) in the field of view.
Pertuzumab for use in combination with trastuzumab and docetaxel in a method for extending progression free survival by 6 months or more and extending overall survival in a HER2-positive breast cancer patient population compared to administration of trastuzumab and docetaxel without pertuzumab, the method comprising administering pertuzumab, trastuzumab and docetaxel to the patients in the population, wherein the HER2-positive breast cancer is metastatic or locally recurrent, unresectable breast cancer, or de novo Stage IV disease, wherein the HER2-positive breast cancer is defined as immunohistochemistry 3+ and/or fluorescence in situ hybridization (FISH) amplification ratio >2.0, and wherein: a. pertuzumab is administered intravenously as a loading dose of 840 mg followed by maintenance doses of 420 mg every 3 weeks until clinical progressive disease or unmanageable toxicity; b. trastuzumab is administered intravenously as a loading dose of 8 mg/kg, following by maintenance doses of 6 mg/kg every 3 weeks until clinical progressive disease or unmanageable toxicity; and c. docetaxel is administered intravenously every 3 weeks for at least 6 cycles at an initial dose of 75 mg/m 2, which can be increased to 100 mg/m 2 if the initial dose is tolerated. wherein the HER2-positive breast cancer is metastatic or locally recurrent, unresectable breast cancer, or de novo Stage IV disease, wherein the HER2-positive breast cancer is defined as immunohistochemistry 3+ and/or fluorescence in situ hybridization (FISH) amplification ratio >2.0, and wherein: a. pertuzumab is administered intravenously as a loading dose of 840 mg followed by maintenance doses of 420 mg every 3 weeks until clinical progressive disease or unmanageable toxicity; b. trastuzumab is administered intravenously as a loading dose of 8 mg/kg, following by maintenance doses of 6 mg/kg every 3 weeks until clinical progressive disease or unmanageable toxicity; and c. docetaxel is administered intravenously every 3 weeks for at least 6 cycles at an initial dose of 75 mg/m 2, which can be increased to 100 mg/m 2 if the initial dose is tolerated. a. pertuzumab is administered intravenously as a loading dose of 840 mg followed by maintenance doses of 420 mg every 3 weeks until clinical progressive disease or unmanageable toxicity; b. trastuzumab is administered intravenously as a loading dose of 8 mg/kg, following by maintenance doses of 6 mg/kg every 3 weeks until clinical progressive disease or unmanageable toxicity; and c. docetaxel is administered intravenously every 3 weeks for at least 6 cycles at an initial dose of 75 mg/m 2, which can be increased to 100 mg/m 2 if the initial dose is tolerated.
Cylinder head of an internal combustion engine, in particular for a motor vehicle, comprising a combustion face which delimits a combustion chamber of a cylinder of the engine, said combustion face comprising at least two orifices (10, 20) which open into the chamber of combustion and which are separated by a relatively narrow zone called a "bridge", in which is produced in said bridge a hollow shape by removing material, so as to increase the width of the bridge and, consequently, to reinforce the thermomechanical strength of the latter, characterized in that the bridge between the two orifices (10, 20) before the production of the hollow form is of a width less than 2 mm and in that the depth of said hollow shape produced in the bridge increases the width of the latter between the two orifices (10, 20) by 60%, at least one of the two orifices (10, 20) being a valve seat housing (11, 21), the depth of the hollow shape being less than a determined value such that the valve seat (11, 21) at least does not come out of its housing by a height substantially equal to or greater than a third of the height of said seat valve (11, 21).
Plate-shaped component, in particular a floor panel, having an upper layer which is arranged on the upper side of a carrier layer, wherein the upper layer is formed from a mixture of fibrous and/or powdery wood material, binder and colour pigments, which mixture is pressed under the action of temperature and pressure and the carrier layer is formed from a polyurethane basis, characterised in that at least one functional layer which consists of a veneer, in particular a real wood veneer, is integrated into the upper layer.
A device for determining a pattern height of a pattern produced with extreme ultraviolet, EUV, lithography in a resist film, the device comprising a processor configured to: obtain a scanning electron microscope, SEM, image of the pattern from an SEM; determine a contrast value related to the pattern based on the obtained SEM image; and determine the pattern height based on calibration data and the determined contrast value. obtain a scanning electron microscope, SEM, image of the pattern from an SEM; determine a contrast value related to the pattern based on the obtained SEM image; and determine the pattern height based on calibration data and the determined contrast value.