mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for registering images, comprising: acquiring a first set of images of a sample on a slide positioned on a stage, wherein each image is taken at a different field of view; generating a global transformation matrix by registering the images of the first set to one another to form a composite image; acquiring a subset of images of the sample on the slide after the slide is removed from and replaced on the stage, wherein the subset of images is less than the number of images in the first set and wherein the sample is differently stained before being replaced on the stage; registering each image of the subset with a corresponding image of the first set of images to determine a translation, a rotation, and a scale factor; acquiring a second set of images of the sample at the same respective fields of view used to acquire the first set of images; rotating and scaling each image of the second set of images using the rotation and the scale factor determined for the subset of images; and registering the rotated and scaled images of the second set to the corresponding images of the first set. acquiring a first set of images of a sample on a slide positioned on a stage, wherein each image is taken at a different field of view; generating a global transformation matrix by registering the images of the first set to one another to form a composite image; acquiring a subset of images of the sample on the slide after the slide is removed from and replaced on the stage, wherein the subset of images is less than the number of images in the first set and wherein the sample is differently stained before being replaced on the stage; registering each image of the subset with a corresponding image of the first set of images to determine a translation, a rotation, and a scale factor; acquiring a second set of images of the sample at the same respective fields of view used to acquire the first set of images; rotating and scaling each image of the second set of images using the rotation and the scale factor determined for the subset of images; and registering the rotated and scaled images of the second set to the corresponding images of the first set.
A communication method, comprising: sending (S202), by a base station, data to a first user equipment in a first subframe of a beam, and sending, in the first subframe simultaneously with the data, beam information of the beam used for sending the data, wherein the beam information comprises identification information of the beam and a synchronization signal, wherein the synchronization signal is used to facilitate a second user equipment to synchronize with the base station; characterised by performing (S203), by the base station, beam scanning and alignment together with the first user equipment and the second user equipment in a second subframe, wherein a scanned beam does not include at least the beam used for sending data in the first subframe, and the second subframe is a next subframe of the first subframe. sending (S202), by a base station, data to a first user equipment in a first subframe of a beam, and sending, in the first subframe simultaneously with the data, beam information of the beam used for sending the data, wherein the beam information comprises identification information of the beam and a synchronization signal, wherein the synchronization signal is used to facilitate a second user equipment to synchronize with the base station; characterised by performing (S203), by the base station, beam scanning and alignment together with the first user equipment and the second user equipment in a second subframe, wherein a scanned beam does not include at least the beam used for sending data in the first subframe, and the second subframe is a next subframe of the first subframe.
Composite material having fire resistance and biological protection properties comprising a solid silicone polymer matrix and iron-based particles in effective quantities to give said composite material a density of at least 2.3 g/cm 3 , and comprising, in addition to the iron-based particles, iron oxide particles, characterised in that the average size of said iron-based particles lies in the range 5 μm to 200 μm, and in that the content of said iron oxide particles is 1 wt% to 15 wt% relative to the total weight of the composite material, and in that the average size of said iron oxide particles lies in the range 0.10 μm to 0.30 μm.
An alloy catalyst, characterized by consisting of, in parts by weight: (a) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin and 5 - 9 parts aluminium; or (b) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin, 5 - 9 parts aluminium and 1 - 90 parts tungsten; or (c) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin, 5 - 9 parts aluminium, 1 - 90 parts tungsten and 0.5 - 20 parts molybdenum; or (d) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin, 5 - 9 parts aluminium, 1 - 90 parts tungsten, 0.5 - 20 parts molybdenum, and 0.01 - 5 parts boron or phosphorus. (a) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin and 5 - 9 parts aluminium; or (b) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin, 5 - 9 parts aluminium and 1 - 90 parts tungsten; or (c) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin, 5 - 9 parts aluminium, 1 - 90 parts tungsten and 0.5 - 20 parts molybdenum; or (d) 10 - 90 parts nickel, 1 - 5 parts rare earth element, 1 - 60 parts tin, 5 - 9 parts aluminium, 1 - 90 parts tungsten, 0.5 - 20 parts molybdenum, and 0.01 - 5 parts boron or phosphorus.
Handgrip for an endoscopic functional hose instrument, comprising - a first handle part which is configured for coupling a wire-shaped functional part of the functional hose instrument, and - a second handle part which has a tubular guiding portion which includes an axial passage channel for axially movable passing of the wire-shaped functional part, - wherein the axial passage channel at least in sections has an open axial slot on the periphery of the tubular guiding portion, and - wherein the first and the second handle parts are held against each other for at least axial relative movement, characterized in that - the axial passage channel extends at least in sections in an arch shape and has a thrust support for the wire-shaped functional part on an exterior side of the arch . - a first handle part which is configured for coupling a wire-shaped functional part of the functional hose instrument, and - a second handle part which has a tubular guiding portion which includes an axial passage channel for axially movable passing of the wire-shaped functional part, - wherein the axial passage channel at least in sections has an open axial slot on the periphery of the tubular guiding portion, and - wherein the first and the second handle parts are held against each other for at least axial relative movement, - the axial passage channel extends at least in sections in an arch shape and has a thrust support for the wire-shaped functional part on an exterior side of the arch .
A power converter control device for controlling a power buffer circuit and an inverter in a power converter including said power buffer circuit , a DC link (LH, LL), and said inverter , said DC link (LH, LL) receiving ripple power (Pin) having a first variation range as an input, providing and receiving buffer power (Pbuf) to and from said power buffer circuit , and outputting DC power (Pout) having a second variation range smaller than said first variation range, said inverter receiving said DC power (Pout) as an input, and outputting AC power to a motor , said power converter control device comprising: a power control unit that is configured to control said power buffer circuit and said inverter on a basis of a compensation rate (k) that sets said second variation range; characterized by a compensation rate setting unit that is configured to perform a setting in which said compensation rate (k) is set to a first value (k') when a rotational speed (ωm) of said motor belongs to any of a plurality of first predetermined ranges (A1), each including a peak of the sound level of a noise created by mechanical vibration of the motor when it drives a load, and said compensation rate (k) is set to a second value (k") being lower than said first value (k') when said rotational speed (ωm) belongs to any of second predetermined ranges (A2) other than said plurality of first predetermined ranges (A1). a power control unit that is configured to control said power buffer circuit and said inverter on a basis of a compensation rate (k) that sets said second variation range; characterized by a compensation rate setting unit that is configured to perform a setting in which said compensation rate (k) is set to a first value (k') when a rotational speed (ωm) of said motor belongs to any of a plurality of first predetermined ranges (A1), each including a peak of the sound level of a noise created by mechanical vibration of the motor when it drives a load, and said compensation rate (k) is set to a second value (k") being lower than said first value (k') when said rotational speed (ωm) belongs to any of second predetermined ranges (A2) other than said plurality of first predetermined ranges (A1).
A conductive film comprising: a base member ; a first hard coating layer formed on a surface of the base member ; a conductive layer formed on the first hard coating layer , the conductive layer including conductors composed of a nano-material forming a network structure; the conductive film characterized in that the conductive film includes a conductive region and a non-conductive region, wherein the conductive film further includes an over-coating layer covering the conductors on the conductive region and the non-conductive region, and a void formed by removing the conductors in the conductive layer is disposed in the non-conductive region. a base member ; a first hard coating layer formed on a surface of the base member ; a conductive layer formed on the first hard coating layer , the conductive layer including conductors composed of a nano-material forming a network structure; the conductive film characterized in that the conductive film includes a conductive region and a non-conductive region, wherein the conductive film further includes an over-coating layer covering the conductors on the conductive region and the non-conductive region, and a void formed by removing the conductors in the conductive layer is disposed in the non-conductive region.
A high-speed door assembly comprising: a flexible door panel wound on and unwound from drum in an orientation such that the door panel defines at least one vertical plane when unwound from the drum to prevent and permit access to an opening in a wall; one or more seals , characterized in that said one or more seals make contact with the door panel when the door panel is substantially unwound, the one or more seals assisting in sealing the opening ; the vertical plane of the door panel being spaced farther from the wall to which the door assembly is mountable than the longitudinal axis of the drum and the door panel being oriented on the drum so that the door panel moves away from the one or more seals as the door panel is wound up and the door panel moves closer to the one or more seals as the door panel is unwound. a flexible door panel wound on and unwound from drum in an orientation such that the door panel defines at least one vertical plane when unwound from the drum to prevent and permit access to an opening in a wall; one or more seals , characterized in that said one or more seals make contact with the door panel when the door panel is substantially unwound, the one or more seals assisting in sealing the opening ; the vertical plane of the door panel being spaced farther from the wall to which the door assembly is mountable than the longitudinal axis of the drum and the door panel being oriented on the drum so that the door panel moves away from the one or more seals as the door panel is wound up and the door panel moves closer to the one or more seals as the door panel is unwound.
System having a base and at least one work station which has an ECM module for electrochemically machining a workpiece , wherein the ECM module comprises: a frame ; and an electrode arrangement having at least one electrode which comprises a first surface work region and a second surface work region and is mechanically connected to the frame , and a drive for driving this electrode , which drive is attached to the frame ; a workpiece holder for detachably attaching the workpiece ; and a positioning device for moving the workpiece holder and the module relative to one another, wherein the positioning device comprises a main body , characterized in that both the, in particular rotatably mounted, workpiece holder and the rotatably mounted ECM module are mounted on the main body so as to be movable linearly, in particular vertically or horizontally. a frame ; and an electrode arrangement having at least one electrode which comprises a first surface work region and a second surface work region and is mechanically connected to the frame , and a drive for driving this electrode , which drive is attached to the frame ; a workpiece holder for detachably attaching the workpiece ; and a positioning device for moving the workpiece holder and the module relative to one another, wherein the positioning device comprises a main body ,
An airfoil comprising: a leading edge and a trailing edge region , the trailing edge region located axially downstream from the leading edge and terminating in a trailing edge ; a suction surface and a pressure surface , the suction surface and the pressure surface both extending axially between the leading edge and the trailing edge region , as well as radially from a root section of the airfoil to a tip section of the airfoil to define a central cavity of the airfoil ; a cooling passageway located within the central cavity at the trailing edge region ; a column of flow separators located in the cooling passageway adjacent the trailing edge , the column of flow separators including a first flow separator having a first longitudinal axis and a second flow separator having a second longitudinal axis , wherein the first longitudinal axis is offset at an angle with respect to the second longitudinal axis ; and a third flow separator having a third longitudinal axis , wherein the second longitudinal axis and the third longitudinal axis are substantially parallel to one another. a leading edge and a trailing edge region , the trailing edge region located axially downstream from the leading edge and terminating in a trailing edge ; a suction surface and a pressure surface , the suction surface and the pressure surface both extending axially between the leading edge and the trailing edge region , as well as radially from a root section of the airfoil to a tip section of the airfoil to define a central cavity of the airfoil ; a cooling passageway located within the central cavity at the trailing edge region ; a column of flow separators located in the cooling passageway adjacent the trailing edge , the column of flow separators including a first flow separator having a first longitudinal axis and a second flow separator having a second longitudinal axis , wherein the first longitudinal axis is offset at an angle with respect to the second longitudinal axis ; and a third flow separator having a third longitudinal axis , wherein the second longitudinal axis and the third longitudinal axis are substantially parallel to one another.
A fuel nozzle for a gas turbine comprising a radial swirler and an axial swirler , wherein the radial swirler is arranged to swirl a first flow (A1+F1) of a first oxidant-fuel mixture and the axial swirler is arranged to swirl a second flow (A2+F2) of a second oxidant-fuel mixture, wherein a first recirculation zone (R1) is associated to the radial swirler, wherein a second recirculation zone (R2) is associated to the axial swirler , and wherein the second recirculation zone (R2) is at least partially downstream the first recirculation zone (R1); wherein a body of the fuel nozzle developing in an axial direction from an inlet side to an outlet side , comprises a central conduit developing in the axial direction and an annular conduit developing in the axial direction around the central conduit , wherein the central conduit is arranged to feed the first flow (A1+F1) and the annular conduit is arranged to feed the second flow (A2+F2); wherein the central conduit starts with a chamber , continues with a converging section and ends with a diverging section ; wherein the radial swirler essentially consists of a set of channels which develop radially and tangentially to create radially swirling motion in the central conduit around the axial direction . wherein a body of the fuel nozzle developing in an axial direction from an inlet side to an outlet side , comprises a central conduit developing in the axial direction and an annular conduit developing in the axial direction around the central conduit , wherein the central conduit is arranged to feed the first flow (A1+F1) and the annular conduit is arranged to feed the second flow (A2+F2); wherein the central conduit starts with a chamber , continues with a converging section and ends with a diverging section ; wherein the radial swirler essentially consists of a set of channels which develop radially and tangentially to create radially swirling motion in the central conduit around the axial direction .
A method for manufacturing Compound : a pharmaceutically acceptable salt thereof, or a solvate thereof, the method comprising a step of manufacturing a compound represented by Formula IXa: a pharmaceutically acceptable salt thereof, or a solvate thereof, by treating a compound represented by Formula VIIIb: wherein R 1a represents a leaving group, or an optionally substituted 6-membered saturated cyclic amino group; and R 2 represents a Ci-Ce alkyl group, with a condensing agent in a solvent selected from dichloromethane, 1,4-dioxane, 2-methyltetrahydrofuran, 2-butanone, tert-butyl methyl ether, ethyl acetate, isopropyl acetate, dimethyl sulfoxide, tetrahydrofuran, acetone, and acetonitrile, and wherein the condensing agent is N,N'-diisopropylcarbodiimide, or diethyl chlorophosphate. a pharmaceutically acceptable salt thereof, or a solvate thereof, the method comprising a step of manufacturing a compound represented by Formula IXa: a pharmaceutically acceptable salt thereof, or a solvate thereof, by treating a compound represented by Formula VIIIb: wherein R 1a represents a leaving group, or an optionally substituted 6-membered saturated cyclic amino group; and R 2 represents a Ci-Ce alkyl group, with a condensing agent in a solvent selected from dichloromethane, 1,4-dioxane, 2-methyltetrahydrofuran, 2-butanone, tert-butyl methyl ether, ethyl acetate, isopropyl acetate, dimethyl sulfoxide, tetrahydrofuran, acetone, and acetonitrile, and wherein the condensing agent is N,N'-diisopropylcarbodiimide, or diethyl chlorophosphate.
A fiber reinforced plastic material, comprising: a plurality of carbon fibers ; and a vinyl ester resin or unsaturated polyester resin containing at least one low coefficient of linear thermal expansion (CLTE) filler having a coefficient of linear thermal expansion between 0.5 to 4.5 x 10 -6 /C°, wherein the at least one low CLTE filler is selected from fused silica and feldspar, and wherein the filler is present in the resin in a range of between 10 and 40 percent by volume of the fiber reinforced plastic material. a plurality of carbon fibers ; and a vinyl ester resin or unsaturated polyester resin containing at least one low coefficient of linear thermal expansion (CLTE) filler having a coefficient of linear thermal expansion between 0.5 to 4.5 x 10 -6 /C°, wherein the at least one low CLTE filler is selected from fused silica and feldspar, and wherein the filler is present in the resin in a range of between 10 and 40 percent by volume of the fiber reinforced plastic material.
A nitrile rubber composition comprising a carboxyl group-containing highly saturated nitrile rubber (a) containing α,β-ethylenically unsaturated nitrile monomer units in a ratio of 5 to 60 wt% and having an iodine value measured in accordance with JIS K 6235 of 120 or less, carbon black (b), and a polyamine-based cross-linking agent (c), wherein a content of the carbon black (b) is 130 parts by weight or more and less than 200 parts by weight with respect to 100 parts by weight of the carboxyl group-containing highly saturated nitrile rubber (a).
Radiating cable (100; 100a; 100b; 100c; 100d; 100e) for radiating electromagnetic energy, comprising an inner conductor , an outer conductor arranged radially outside of said inner conductor , and an isolation layer arranged radially between said inner conductor and said outer conductor , wherein said outer conductor comprises one or more first openings , wherein said inner conductor comprises a hollow waveguide , and wherein said inner conductor comprises one or more second openings .
A method for configuring a mobile device that has internet access via a cellular network to control a media playback system , the method comprising: receiving, by the mobile device , a system identifier of the media playback system , wherein the media playback system is in communication with a remote server , and wherein the media playback system comprises one or more playback devices in communication over a secure local network; joining the mobile device to the media playback system , wherein joining the mobile device to the media playback system comprises: determining that the mobile device is unable to access the media playback system via the secure local area network; sending, by the mobile device to the remote server via the cellular network , a request to join the media playback system , the request including the system identifier of the media playback system ; receiving configuration information of the media playback system from the remote server , the configuration information including information to join the media playback system ; joining the mobile device to the media playback system via a cellular network ; and sending from the mobile device to the media playback system via a cellular network one or more commands to control the media playback system . receiving, by the mobile device , a system identifier of the media playback system , wherein the media playback system is in communication with a remote server , and wherein the media playback system comprises one or more playback devices in communication over a secure local network; joining the mobile device to the media playback system , wherein joining the mobile device to the media playback system comprises: determining that the mobile device is unable to access the media playback system via the secure local area network; sending, by the mobile device to the remote server via the cellular network , a request to join the media playback system , the request including the system identifier of the media playback system ; receiving configuration information of the media playback system from the remote server , the configuration information including information to join the media playback system ; joining the mobile device to the media playback system via a cellular network ; and determining that the mobile device is unable to access the media playback system via the secure local area network; sending, by the mobile device to the remote server via the cellular network , a request to join the media playback system , the request including the system identifier of the media playback system ; receiving configuration information of the media playback system from the remote server , the configuration information including information to join the media playback system ; joining the mobile device to the media playback system via a cellular network ; and sending from the mobile device to the media playback system via a cellular network one or more commands to control the media playback system .