mhurhangee/patent-ind-claim-en huggingface dataset:
A micro object detection apparatus comprising: a first optical system including a first reflection region , a second reflection region , and a light reception element , wherein the first reflection region has an ellipsoidal shape, and is arranged to reflect scattered light scattered when irradiation light hits a particle (R) in the region of one focal point of the ellipsoidal shape, to direct the scattered light to the light reception element located at a position of the other focal point of the ellipsoidal shape, characterized in that the second reflection region has an aspherical shape, wherein a curvature radius of the second reflection region changes along the surface, and is arranged to reflect scattered light coming from the particle (R) to direct the scattered light to the first reflection region , so that the scattered light is directed to the light reception element by utilizing the ellipsoidal shape of the first reflection region , and in that the aspherical shape is adapted to generate a light flux diameter of the scattered light reflected by the second reflection region being larger than the particle (R), at a position of the particle (R) at which the scattered light is generated. a first optical system including a first reflection region , a second reflection region , and a light reception element , wherein the first reflection region has an ellipsoidal shape, and is arranged to reflect scattered light scattered when irradiation light hits a particle (R) in the region of one focal point of the ellipsoidal shape, to direct the scattered light to the light reception element located at a position of the other focal point of the ellipsoidal shape, characterized in that the second reflection region has an aspherical shape, wherein a curvature radius of the second reflection region changes along the surface, and is arranged to reflect scattered light coming from the particle (R) to direct the scattered light to the first reflection region , so that the scattered light is directed to the light reception element by utilizing the ellipsoidal shape of the first reflection region , and in that the aspherical shape is adapted to generate a light flux diameter of the scattered light reflected by the second reflection region being larger than the particle (R), at a position of the particle (R) at which the scattered light is generated.
An isolated antibody, or antigen-binding fragment thereof, that binds to human CD40 and comprises (i) a heavy chain variable region comprising the VHCDR1 region set forth in SEQ ID NO:3, the VHCDR2 region set forth in SEQ ID NO:4, and the VHCDR3 region set forth SEQ ID NO:5; (ii) a light chain variable region comprising the VLCDR1 region set forth in SEQ ID NO:6, the VLCDR2 region set forth in SEQ ID NO:7, and the VLCDR3 region set forth in SEQ ID NO: 8; and a human IgG1 Fc region modified_by a S267E mutation.
Pack comprising: at least one stack of Petri dishes that extends in the longitudinal direction (L); a connecting means that holds the stack together and is detachable, preferably by severing, in order to remove Petri dishes from the stack ; and an outer packaging that surrounds the at least one stack and can be opened in order to remove the at least one stack , the connecting means comprising either a strip material that at least partially surrounds the stack in the longitudinal direction (L) thereof and/or the connecting means comprising a loop arrangement that encompasses the stack in the longitudinal direction (L) thereof and is made of an elastic, preferably rubber-elastic material. at least one stack of Petri dishes that extends in the longitudinal direction (L); a connecting means that holds the stack together and is detachable, preferably by severing, in order to remove Petri dishes from the stack ; and an outer packaging that surrounds the at least one stack and can be opened in order to remove the at least one stack , the connecting means comprising either a strip material that at least partially surrounds the stack in the longitudinal direction (L) thereof and/or the connecting means comprising a loop arrangement that encompasses the stack in the longitudinal direction (L) thereof and is made of an elastic, preferably rubber-elastic material.
An air filter for grease filtering, comprising a housing with a filter mounting element , at least one mechanical separation element , a UV source mounting element , and a catalyst coating present inside the air filter, wherein the filter mounting element is adapted to install the air filter in connection with an intake opening of an air ventilation duct , wherein the at least one mechanical separation element is adapted to separate solid impurities from flowing air , and wherein the catalyst coating, together with UV light generated by a UV source , which is installed in the UV source mounting element , is adapted to transform a physical state of grease flowing into the ventilation duct along with the airflow pre-scrubbed by the at least one mechanical separation element, wherein further the UV source mounting element is installed in connection with the at least one mechanical separation element , which is a rotatable perforated plate , which is coated at least partially with the catalyst coating. a housing with a filter mounting element , at least one mechanical separation element , a UV source mounting element , and a catalyst coating present inside the air filter, wherein the filter mounting element is adapted to install the air filter in connection with an intake opening of an air ventilation duct , wherein the at least one mechanical separation element is adapted to separate solid impurities from flowing air , and wherein the catalyst coating, together with UV light generated by a UV source , which is installed in the UV source mounting element , is adapted to transform a physical state of grease flowing into the ventilation duct along with the airflow pre-scrubbed by the at least one mechanical separation element, at least one mechanical separation element , a UV source mounting element , and a catalyst coating present inside the air filter, wherein the filter mounting element is adapted to install the air filter in connection with an intake opening of an air ventilation duct , wherein the at least one mechanical separation element is adapted to separate solid impurities from flowing air , and wherein the catalyst coating, together with UV light generated by a UV source , which is installed in the UV source mounting element , is adapted to transform a physical state of grease flowing into the ventilation duct along with the airflow pre-scrubbed by the at least one mechanical separation element, wherein further the UV source mounting element is installed in connection with the at least one mechanical separation element , which is a rotatable perforated plate , which is coated at least partially with the catalyst coating.
A host system , comprising: a bus interface configured to be coupled to a plurality of peripheral component interconnect express, PCIe, endpoints to receive at least one PCIe transaction layer packet, TLP, that comprises a TLP prefix ; and characterised by a PCIe root complex, RC, comprising attribute prefix detection and parsing logic configured to: receive the at least one PCIe TLP from the bus interface; detect the TLP prefix in the at least one PCIe TLP; parse the TLP prefix to extract one or more transaction-specific attributes associated with a predefined host transaction, wherein transaction-specific attributes define transaction-handling preferences for the pre-defined host transaction; and provide the one or more transaction-specific attributes to an attribute interface . a bus interface configured to be coupled to a plurality of peripheral component interconnect express, PCIe, endpoints to receive at least one PCIe transaction layer packet, TLP, that comprises a TLP prefix ; and characterised by a PCIe root complex, RC, comprising attribute prefix detection and parsing logic configured to: receive the at least one PCIe TLP from the bus interface; detect the TLP prefix in the at least one PCIe TLP; parse the TLP prefix to extract one or more transaction-specific attributes associated with a predefined host transaction, wherein transaction-specific attributes define transaction-handling preferences for the pre-defined host transaction; and provide the one or more transaction-specific attributes to an attribute interface . receive the at least one PCIe TLP from the bus interface; detect the TLP prefix in the at least one PCIe TLP; parse the TLP prefix to extract one or more transaction-specific attributes associated with a predefined host transaction, wherein transaction-specific attributes define transaction-handling preferences for the pre-defined host transaction; and provide the one or more transaction-specific attributes to an attribute interface .
A near-infrared fluorescent molecule active targeting a folate receptor, with a structural formula as follows: wherein M is independently selected from the group consisting of H, Na, and K.
An image forming apparatus , comprising: a plurality of heads (311, 312, and 313) configured to eject ink onto an image forming body to form an image on the image forming body; a holding unit that holds the plurality of heads (311, 312, and 313); a temperature determination unit configured to determine a temperature of the holding unit ; and an adjustment unit characterised in that the adjustment unit is configured to adjust a position of the image formed on the image forming body by the ink ejected from each of the heads (311, 312, and 313) according to a predicted amount of change in position of each of the heads (311, 312, and 313), that is due to thermal deformation of the holding unit at the temperature of the holding unit determined by the temperature determination unit. a plurality of heads (311, 312, and 313) configured to eject ink onto an image forming body to form an image on the image forming body; a holding unit that holds the plurality of heads (311, 312, and 313); a temperature determination unit configured to determine a temperature of the holding unit ; and an adjustment unit characterised in that the adjustment unit is configured to adjust a position of the image formed on the image forming body by the ink ejected from each of the heads (311, 312, and 313) according to a predicted amount of change in position of each of the heads (311, 312, and 313), that is due to thermal deformation of the holding unit at the temperature of the holding unit determined by the temperature determination unit.
A swimming and diving aid , having a hull which comprises a flow channel or with which a flow channel is associated, a motor-driven water acceleration arrangement, in particular a propeller, being associated with the flow channel ; having a support surface (11.3) for an upper body on an upper side of the hull ; having grips mounted on the swimming and diving aid , control elements (16.1) for controlling the water acceleration arrangement by means of an associated motor controller being provided on the grips ; and having a display , facing toward the support surface (11.3), for showing operating parameters of the swimming and diving aid , characterized in that a forward-directed front camera is integrated into the hull in front of the support surface (11.3) in a direction of travel, and is connected to an electronic control system ; in that the front camera is adapted for video capture; wherein the electronic control system is embodied to apply control to the front camera and to receive camera signals; in that a switching element (16.2) for starting and ending a video capture is arranged on at least one grip ; in that the front camera is arranged in a watertight camera enclosure ; in that the watertight camera enclosure is received in a front camera receptacle inside the hull and fastened to the hull of the swimming and diving aid ; in that the outer envelope of the hull comprises, in the viewing direction of the front camera , a camera passthrough in which a transparent window is arranged; and in that the transparent window closes off the watertight camera enclosure at the front.
A numerical control, NC, program conversion processing method that converts a pre-correction numerical control, NC, program and generates a post-correction numerical control, NC, program , the method comprising: based on a plurality of blocks in the pre-correction NC program , identifying (S12) a contactless portion tool path, which is a path on which a tool of a work machine executing the pre-correction NC program does not come into contact with a workpiece (W) during the processes corresponding to the blocks; wherein the method is characterized by further comprising: identifying (S13) contactless blocks, which are blocks having only the contactless portion tool path as a path; determining (S20), for each contactless block, a tool route correction quantity in a tool radial direction in a work process of the workpiece (W) according to following blocks, which are one or more blocks, other than the contactless blocks, following a respective contactless block; wherein the tool route correction quantity is determined based on a spindle rigidity of the work machine or a rigidity of the tool, and creating (S21) correction blocks including descriptions correcting the tool route by the respective tool route correction quantity; inserting (S22) the correction blocks before the respective contactless blocks. based on a plurality of blocks in the pre-correction NC program , identifying (S12) a contactless portion tool path, which is a path on which a tool of a work machine executing the pre-correction NC program does not come into contact with a workpiece (W) during the processes corresponding to the blocks; wherein the method is characterized by further comprising: identifying (S13) contactless blocks, which are blocks having only the contactless portion tool path as a path; determining (S20), for each contactless block, a tool route correction quantity in a tool radial direction in a work process of the workpiece (W) according to following blocks, which are one or more blocks, other than the contactless blocks, following a respective contactless block; wherein the tool route correction quantity is determined based on a spindle rigidity of the work machine or a rigidity of the tool, and creating (S21) correction blocks including descriptions correcting the tool route by the respective tool route correction quantity; inserting (S22) the correction blocks before the respective contactless blocks.
A pneumatic tire for a racing kart, the pneumatic tire comprising: a tread ; a pair of sidewalls ; a pair of beads ; a carcass ; and a pair of reinforcing layers , wherein the sidewalls extend almost inwardly from ends, respectively, of the tread in a radial direction, the beads are disposed inward of the sidewalls , respectively, in an axial direction, the carcass extends along inner sides of the tread and the sidewalls , is extended on and between one of the beads and another of the beads , and has a bias structure, the reinforcing layers are disposed inward of the sidewalls , respectively, in the axial direction, a width (Wr) of each reinforcing layer is not greater than 25 mm, wherein the width (Wr) represents a linear distance between an inner end (Pi) of each reinforcing layer in the radial direction and an outer end (Po) of each reinforcing layer in the radial direction, each reinforcing layer includes a plurality of cords , and an absolute value of an angle of each cord relative to a circumferential direction is not less than 0° and not greater than 15°, characterized in that a height Hi of the inner end (Pi) of each reinforcing layer measured in the radial direction is not less than 20 mm. a tread ; a pair of sidewalls ; a pair of beads ; a carcass ; and a pair of reinforcing layers , wherein the sidewalls extend almost inwardly from ends, respectively, of the tread in a radial direction, the beads are disposed inward of the sidewalls , respectively, in an axial direction, the carcass extends along inner sides of the tread and the sidewalls , is extended on and between one of the beads and another of the beads , and has a bias structure, the reinforcing layers are disposed inward of the sidewalls , respectively, in the axial direction, a width (Wr) of each reinforcing layer is not greater than 25 mm, wherein the width (Wr) represents a linear distance between an inner end (Pi) of each reinforcing layer in the radial direction and an outer end (Po) of each reinforcing layer in the radial direction, each reinforcing layer includes a plurality of cords , and an absolute value of an angle of each cord relative to a circumferential direction is not less than 0° and not greater than 15°, characterized in that a height Hi of the inner end (Pi) of each reinforcing layer measured in the radial direction is not less than 20 mm.
Method for producing an insulating glass unit having at least two glass panes which are separated from one another by a spacer frame , wherein still non-interconnected frame legs of the space frame of the insulating glass unit to be produced are positioned on a first glass pane of the insulating glass unit and, during positioning and/or after positioning on the first glass pane , are connected to one another without the use of corner connectors to form the spacer frame .
A blower , said blower comprising: a frame ; a surface engaging wheel attached to said frame ; a power source attached to said frame ; an impeller housing attached to said frame , said impeller housing defining an intake opening ; an impeller rotatably connected to said power source and positioned within said impeller housing ; an exhaust chute attached to said impeller housing ; and characterized by the exhaust chute being selectively rotatable; and by a selectively and rotatably closeable aperture structure attached to said intake opening , wherein the selectively and rotatably closeable aperture structure comprises one of: a rotationally variable disc defining radial slots ; and a rotationally activated iris opening assembly . a frame ; a surface engaging wheel attached to said frame ; a power source attached to said frame ; an impeller housing attached to said frame , said impeller housing defining an intake opening ; an impeller rotatably connected to said power source and positioned within said impeller housing ; an exhaust chute attached to said impeller housing ; and characterized by the exhaust chute being selectively rotatable; and by a selectively and rotatably closeable aperture structure attached to said intake opening , wherein the selectively and rotatably closeable aperture structure comprises one of: a rotationally variable disc defining radial slots ; and a rotationally activated iris opening assembly . a rotationally variable disc defining radial slots ; and a rotationally activated iris opening assembly .
A computer-implemented method of processing a set of images to determine a spatial arrangement for the set of images for display by a display device, the method comprising: for each image in the set of images: obtaining data indicative of a respective initial position of the image within an image plane; processing the image to identify one or more subregions of the image; determining an area and a centroid of each of the identified one or more subregions; determining , for each of the identified one or more subregions, a weight value depending on the determined area of that subregion; determining a position of an anchor point within the image in dependence on the weight values and positions of the centroids of the determined one or more subregions; and determining a respective offset direction from the determined anchor point to a centre of the image; and transposing the images in the set from the respective initial positions of the images, in the respective offset directions, whereby the transposing of the images from the respective initial positions of the images determines the spatial arrangement for the set of images. for each image in the set of images: obtaining data indicative of a respective initial position of the image within an image plane; processing the image to identify one or more subregions of the image; determining an area and a centroid of each of the identified one or more subregions; determining , for each of the identified one or more subregions, a weight value depending on the determined area of that subregion; determining a position of an anchor point within the image in dependence on the weight values and positions of the centroids of the determined one or more subregions; and determining a respective offset direction from the determined anchor point to a centre of the image; and obtaining data indicative of a respective initial position of the image within an image plane; processing the image to identify one or more subregions of the image; determining an area and a centroid of each of the identified one or more subregions; determining , for each of the identified one or more subregions, a weight value depending on the determined area of that subregion; determining a position of an anchor point within the image in dependence on the weight values and positions of the centroids of the determined one or more subregions; and determining a respective offset direction from the determined anchor point to a centre of the image; and transposing the images in the set from the respective initial positions of the images, in the respective offset directions, whereby the transposing of the images from the respective initial positions of the images determines the spatial arrangement for the set of images.
Reinforcing element for a concrete barrier-wall element , which concrete barrier-wall element has a repelling profile on at least one longitudinal side , wherein the repelling profile is a New Jersey profile or a step profile, wherein the reinforcing element has longitudinal reinforcing bars and has bows , which extend transversely to the longitudinal reinforcing bars and are welded to the longitudinal reinforcing bars , that the reinforcing element has at least a first region , that the first region is substantially formed like the repelling profile of the concrete barrier-wall element to be produced, characterized in that the longitudinal reinforcing bars and the bows make up a two-dimensional curved grid, and that the reinforcing element in order to be stacked easily and thus transported in a space-saving manner is flat and formed substantially like a curved surface.
A preparation formulation suitable for coating a transdermal patch wherein said preparation formulation comprises abaloparatide and an excipient comprising ZnCl 2 .