mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus for generating a tomographic image corresponding to a cross-section of an imaging object, the image processing apparatus comprising: a data acquisitor which is adapted to obtain image data corresponding to a plurality of images obtained by performing a plurality of imaging with respect to the imaging object by optical coherence tomographic imaging; and an image generator which is adapted to generate the tomographic image corresponding to the cross-section parallel to a depth direction based on the image data, wherein: image processing apparatus is adapted to perform the plurality of imaging with mutually different focus positions (Zf) in the depth direction along an incident direction of illumination light to obtain said plurality of images, two or more of said plurality of images having imaging ranges which overlap in the depth direction such that an arbitrary point in the imaging object is included in said two or more images; and the image generator is adapted to set a value of each pixel in the tomographic image at a value obtained by a calculation process between the image data of a same position of the imaging object corresponding to the pixel obtained at each of the plurality of images. a data acquisitor which is adapted to obtain image data corresponding to a plurality of images obtained by performing a plurality of imaging with respect to the imaging object by optical coherence tomographic imaging; and an image generator which is adapted to generate the tomographic image corresponding to the cross-section parallel to a depth direction based on the image data, wherein: image processing apparatus is adapted to perform the plurality of imaging with mutually different focus positions (Zf) in the depth direction along an incident direction of illumination light to obtain said plurality of images, two or more of said plurality of images having imaging ranges which overlap in the depth direction such that an arbitrary point in the imaging object is included in said two or more images; and the image generator is adapted to set a value of each pixel in the tomographic image at a value obtained by a calculation process between the image data of a same position of the imaging object corresponding to the pixel obtained at each of the plurality of images. image processing apparatus is adapted to perform the plurality of imaging with mutually different focus positions (Zf) in the depth direction along an incident direction of illumination light to obtain said plurality of images, two or more of said plurality of images having imaging ranges which overlap in the depth direction such that an arbitrary point in the imaging object is included in said two or more images; and the image generator is adapted to set a value of each pixel in the tomographic image at a value obtained by a calculation process between the image data of a same position of the imaging object corresponding to the pixel obtained at each of the plurality of images.
A food composition comprising: a. at least one edible ingredient; and b. a texturizing agent, wherein said texturizing agent comprises an inhibited starch and a non-granular, enzymatically-debranched waxy potato starch. a. at least one edible ingredient; and b. a texturizing agent,
A method for embedding a web browser in a graphical display view of a process plant , the method characterised by : configuring, via a user interface device of a computing device executing a graphical configuration application in a configuration environment of a process plant , a web browser object to present an embedded web browser with web content from a source address within a portion of the graphical display view; and downloading, via the graphical configuration application , the configured web browser object from the configuration environment into a user interface device for execution in an operating environment of the process plant so that the graphical display view presents on the user interface device , during runtime execution at the user interface device , (i) the embedded web browser with the web content from the source address within a first portion of the graphical display view, and (ii) indications of one or more process control elements including at least one of a control module, a function block, a process plant entity, or a process section of the process plant within a second portion of the graphical display view of the user interface device . configuring, via a user interface device of a computing device executing a graphical configuration application in a configuration environment of a process plant , a web browser object to present an embedded web browser with web content from a source address within a portion of the graphical display view; and downloading, via the graphical configuration application , the configured web browser object from the configuration environment into a user interface device for execution in an operating environment of the process plant so that the graphical display view presents on the user interface device , during runtime execution at the user interface device , (i) the embedded web browser with the web content from the source address within a first portion of the graphical display view, and (ii) indications of one or more process control elements including at least one of a control module, a function block, a process plant entity, or a process section of the process plant within a second portion of the graphical display view of the user interface device .
Discoidal or cuboidal solid body for a laser amplification system , which solid body contains at least one laser-active material, has an upper side defining an upper side plane and a lower side defining a lower side plane , wherein the upper side plane and the lower side plane are inclined in relation to each other and enclose an angle of inclination , wherein the lower side is provided with a first reflective coating , and wherein the upper side is provided with a second reflective coating , wherein the upper side and/or the lower side has at least one optical input coupling opening for input coupling a seed laser radiation field and/or a pump laser radiation field into the solid body between the first and the second reflective coating , and wherein the at least one optical input coupling opening is configured in the form of a wavelength- and angle of incidence-dependent input coupling opening for a pump laser radiation field and/or seed laser radiation field , wherein the first reflective coating and/or the second reflective coating define/defines the at least one wavelength-dependent and angle of incidence-dependent input coupling opening , wherein the first reflective coating is configured in the form of a highly reflective coating or in the form of a wavelength- and angle of incidence-dependent reflective coating, and wherein the second reflective coating is configured in the form of a highly reflective coating or in the form of a wavelength- and angle of incidence-dependent reflective coating .
A method performed by a data receiving node for operation in a wireless communication network having multiple data sending nodes , the method comprising: receiving future channelization resource allocations information corresponding to channelization resource allocations to be used by one or more data sending nodes in a future transmit interval; estimating interference contributions of the one or more data sending nodes according to the corresponding channelization resource allocation information; and reporting an expected signal quality for the future transmit interval based on the estimated interference contribution of the one or more data sending nodes . receiving future channelization resource allocations information corresponding to channelization resource allocations to be used by one or more data sending nodes in a future transmit interval; estimating interference contributions of the one or more data sending nodes according to the corresponding channelization resource allocation information; and reporting an expected signal quality for the future transmit interval based on the estimated interference contribution of the one or more data sending nodes .
A material capture system , comprising: a shape memory tubular body comprising a first end, a second end, and an axial length therebetween, the first end having an opening , the shape memory tubular body comprising a dynamic fold point between the first end and the second end, wherein the shape memory tubular body is configured to be compressed during delivery, wherein the first end of the shape memory tubular body is configured to be expanded while the second end and a majority of the shape memory tubular body remains compressed, wherein the shape memory tubular body has a first expanded axial length with a first cross-section, wherein the expanded segment of the shape memory tubular body is configured to be positioned distal to or within foreign or unwanted materials, wherein the shape memory tubular body is configured to be axially lengthened proximally to capture the foreign or unwanted materials with the associated compressed segment shortening reciprocally, characterised in that the system further comprises an anchor . a shape memory tubular body comprising a first end, a second end, and an axial length therebetween, the first end having an opening , the shape memory tubular body comprising a dynamic fold point between the first end and the second end, wherein the shape memory tubular body is configured to be compressed during delivery, wherein the first end of the shape memory tubular body is configured to be expanded while the second end and a majority of the shape memory tubular body remains compressed, wherein the shape memory tubular body has a first expanded axial length with a first cross-section, wherein the expanded segment of the shape memory tubular body is configured to be positioned distal to or within foreign or unwanted materials, wherein the shape memory tubular body is configured to be axially lengthened proximally to capture the foreign or unwanted materials with the associated compressed segment shortening reciprocally, characterised in that the system further comprises an anchor .
A multimodal propylene butene random copolymer having a melt flow rate (MFR 2 ) of 1.0 to 20.0 g/10 min, measured according to ISO 1133 at 230°C under 2.16 kg load, and a butene content of 1.5 to 8.0 wt%, measured as described in the description, wherein said copolymer is prepared using a single site catalyst and wherein said copolymer comprises: (i) 30 to 70 wt% of a propylene butene copolymer (A) having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 0.5 to 10.0 wt%; and (ii) 70 to 30 wt% of a propylene butene copolymer (B) having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 1.0 to 8.0 wt%; wherein copolymers (A) and (B) are different, and wherein said multimodal propylene butene random copolymer comprises less than 0.1 wt% ethylene, measured as described in the description. (i) 30 to 70 wt% of a propylene butene copolymer (A) having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 0.5 to 10.0 wt%; and (ii) 70 to 30 wt% of a propylene butene copolymer (B) having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 1.0 to 8.0 wt%;
A surface cleaning apparatus , comprising: a housing including an upright assembly and a base assembly moveably mounted to the upright assembly ; a fluid container provided on the housing; a fluid distributor provided in the base assembly in fluid communication with the fluid container ; a working air path through the housing; a recovery container provided on the housing and defining a portion of the working air path; a suction source provided on the housing and defining a portion of the working air path; and a suction nozzle provided on the base assembly , characterized by the upright assembly comprising an inverted T-shape and a set of sections selectively coupled together to form a stalk of the T-shape. a housing including an upright assembly and a base assembly moveably mounted to the upright assembly ; a fluid container provided on the housing; a fluid distributor provided in the base assembly in fluid communication with the fluid container ; a working air path through the housing; a recovery container provided on the housing and defining a portion of the working air path; a suction source provided on the housing and defining a portion of the working air path; and a suction nozzle provided on the base assembly , characterized by the upright assembly comprising an inverted T-shape and a set of sections selectively coupled together to form a stalk of the T-shape.
An electromechanical power steering device for a motor vehicle, with a servomotor which drives an axially movable component via a ball nut which is mounted in a bearing such that it can be rotated about a longitudinal axis in a housing , the ball nut being in engagement with a threaded spindle which is configured on the component , and having a ball screw on its inner side for balls to roll on, and with an external ball return means which connects the start of the ball screw to the end of the ball screw, in order to make an endless circulation of the balls possible, and with a deflecting body , characterized in that the deflecting body has at least two webs on its outer side, which at least two webs engage into the pulley wheel in such a way that a torque can be transmitted from the pulley wheel to the ball nut .
Method for determining an axle load acting on a linear or rotary axle, with a direct position measuring system , and an indirect position measuring system , wherein the linear or rotary axle is driven by way of drive kinematics with a drive motor, and the position of the linear or rotary axle is measured as a measurand with the two position measuring systems , characterised in that , the measurands of the two position measuring systems are first converted to the same physical unit, and in that , from these two measurands a difference value: Δ x = MG directMS − MG indirectMS · UF is formed, where: MG directMS = measurand of the direct position measuring system MG indirectMS = measurand of the indirect position measuring system UF = conversion factor and in that , the difference value (Δx) is combined with a characteristic value (k(x Pos )) in accordance with the relationship: F axle load = Δ x · k xPos which characterises a position-dependent stiffness of the drive kinematics between the two measuring points of the position measuring systems so as to determine the axle load . MG directMS = measurand of the direct position measuring system MG indirectMS = measurand of the indirect position measuring system UF = conversion factor and in that , the difference value (Δx) is combined with a characteristic value (k(x Pos )) in accordance with the relationship: F axle load = Δ x · k xPos which characterises a position-dependent stiffness of the drive kinematics between the two measuring points of the position measuring systems so as to determine the axle load .
A rotor for power driving comprising: a hub adapted to be coupled with a shaft ; a plurality of first fixed jibs installed around the hub circumferentially and spaced from one another, with each of the plurality of first fixed jibs extending in a radial direction perpendicular to an axial direction of the shaft , wherein the plurality of first fixed jibs is rotatable about the shaft to define a plane of rotation perpendicular to the axial direction of the shaft ; and a plurality of inner vanes ; characterized in that each inner vane is elastically fixed at a corresponding first fixed jib and extends outwardly from an outer surface of the corresponding first fixed jib in a direction parallel to the plane of rotation when not acted upon by external forces such that the plurality of inner vanes , when acted upon by the external forces, make no rotary movement but are elastically bendable relative to the plurality of first fixed jibs and can rebound after removal of the external forces, wherein bending directions of each inner vane are perpendicular to the plane of rotation. a hub adapted to be coupled with a shaft ; a plurality of first fixed jibs installed around the hub circumferentially and spaced from one another, with each of the plurality of first fixed jibs extending in a radial direction perpendicular to an axial direction of the shaft , wherein the plurality of first fixed jibs is rotatable about the shaft to define a plane of rotation perpendicular to the axial direction of the shaft ; and a plurality of inner vanes ; characterized in that each inner vane is elastically fixed at a corresponding first fixed jib and extends outwardly from an outer surface of the corresponding first fixed jib in a direction parallel to the plane of rotation when not acted upon by external forces such that the plurality of inner vanes , when acted upon by the external forces, make no rotary movement but are elastically bendable relative to the plurality of first fixed jibs and can rebound after removal of the external forces, wherein bending directions of each inner vane are perpendicular to the plane of rotation.
An upper cover assembly, characterized by comprising: an upper cover body , comprising a top plate and a side plate connected to an outer periphery of the top plate , wherein an exhaust vent is provided in the side plate ; and an exhaust unit , comprising a first exhaust unit and a second exhaust unit that communicate with each other, wherein the first exhaust unit is disposed on the top plate , the second exhaust unit is disposed on the side plate , and the first exhaust unit communicates with the exhaust vent through the second exhaust unit ; wherein the second exhaust unit has an exhaust cavity , and two ends of the exhaust cavity respectively communicate with the first exhaust unit and the exhaust vent ; and wherein the second exhaust unit is further provided with a second inlet hole and an exhaust hole , and the first exhaust unit communicates with the exhaust vent through the second inlet hole , the exhaust cavity , and the exhaust hole in turn; and a filter screen is provided at both the second inlet hole and the exhaust hole . an upper cover body , comprising a top plate and a side plate connected to an outer periphery of the top plate , wherein an exhaust vent is provided in the side plate ; and an exhaust unit , comprising a first exhaust unit and a second exhaust unit that communicate with each other, wherein the first exhaust unit is disposed on the top plate , the second exhaust unit is disposed on the side plate , and the first exhaust unit communicates with the exhaust vent through the second exhaust unit ; wherein the second exhaust unit has an exhaust cavity , and two ends of the exhaust cavity respectively communicate with the first exhaust unit and the exhaust vent ; and wherein the second exhaust unit is further provided with a second inlet hole and an exhaust hole , and the first exhaust unit communicates with the exhaust vent through the second inlet hole , the exhaust cavity , and the exhaust hole in turn; and a filter screen is provided at both the second inlet hole and the exhaust hole .
Objective having a fixed focal length, consisting of five lens groups, wherein three lens groups (G1, G3, G5) are spatially fixed and two lens groups (G2, G4) are displaceable along an optical axis, characterized in that a) a first front lens group (G1), viewed from an object side, is spatially fixed, b) a second lens group having a positive refractive power as a focusing front group (G2) is displaceable, c) a third lens group, containing a spatially fixed iris diaphragm (AP) that has an adjustable opening, as a centre group (G3) is spatially fixed, d) a fourth lens group having a positive refractive power as a focusing rear group (G4) is displaceable and e) a fifth back lens group (G5) is spatially fixed with respect to an imaging plane (IM) in an objective tube, and both the focusing front group (G2) and the focusing rear group (G4) are movable together relative to one another and to the lens groups (G1, G3, G5) that are spatially fixed for focusing the objective at objects at different object distances, and the front lens group (G1) has a positive refractive power, and the centre group (G3) and the back lens group (G5) have a negative refractive power. a) a first front lens group (G1), viewed from an object side, is spatially fixed, b) a second lens group having a positive refractive power as a focusing front group (G2) is displaceable, c) a third lens group, containing a spatially fixed iris diaphragm (AP) that has an adjustable opening, as a centre group (G3) is spatially fixed, d) a fourth lens group having a positive refractive power as a focusing rear group (G4) is displaceable and e) a fifth back lens group (G5) is spatially fixed with respect to an imaging plane (IM) in an objective tube, and both the focusing front group (G2) and the focusing rear group (G4) are movable together relative to one another and to the lens groups (G1, G3, G5) that are spatially fixed for focusing the objective at objects at different object distances, and the front lens group (G1) has a positive refractive power, and the centre group (G3) and the back lens group (G5) have a negative refractive power.
A thermal block assembly comprising: a substrate comprising a substrate surface configured with a plurality of reaction sites, each reaction site configured to contain a biological sample, the reaction sites comprising heated reaction sites and adjacent reaction sites; a heated sample block ; and a thermal isolation feature configured to restrict heat flow from the heated reaction sites to the adjacent reaction sites, wherein the thermal isolation feature comprises pedestals , and a top of each pedestal comprises a pedestal surface , wherein the pedestals are provided on the sample block, wherein each pedestal surface is proximate to a corresponding heated reaction site of the substrate surface, wherein each pedestal comprises a ring fitted in a radius around the pedestal surface, wherein each ring is composed of a material that is thermally insulating. a substrate comprising a substrate surface configured with a plurality of reaction sites, each reaction site configured to contain a biological sample, the reaction sites comprising heated reaction sites and adjacent reaction sites; a heated sample block ; and a thermal isolation feature configured to restrict heat flow from the heated reaction sites to the adjacent reaction sites, wherein the thermal isolation feature comprises pedestals , and a top of each pedestal comprises a pedestal surface , wherein the pedestals are provided on the sample block, wherein each pedestal surface is proximate to a corresponding heated reaction site of the substrate surface, wherein each pedestal comprises a ring fitted in a radius around the pedestal surface, wherein each ring is composed of a material that is thermally insulating.
A process for preparing a modified polymeric material, said process comprising: providing a polymer selected from the group consisting of polypropylene, polyetheretherketone (PEEK), poly lactic glycolic acid, poly lactic lactic acid, poly lactic acid, and polyurethane; and subjecting the polymer to a high vacuum treatment regimen under conditions effective to modify a surface of the polymer by introducing nano, micron, and/or submicron scale features to the surface of the polymer, wherein said high vacuum treatment regimen comprises heating the polymer at a temperature of between 275 °C and 400 °C under high vacuum conditions to modify the surface of the polymer. providing a polymer selected from the group consisting of polypropylene, polyetheretherketone (PEEK), poly lactic glycolic acid, poly lactic lactic acid, poly lactic acid, and polyurethane; and subjecting the polymer to a high vacuum treatment regimen under conditions effective to modify a surface of the polymer by introducing nano, micron, and/or submicron scale features to the surface of the polymer, wherein said high vacuum treatment regimen comprises heating the polymer at a temperature of between 275 °C and 400 °C under high vacuum conditions to modify the surface of the polymer.