mhurhangee/patent-ind-claim-en huggingface dataset:
An infrared imaging microscope for generating an image of a sample , the infrared imaging microscope comprising: a beam source that emits a temporally coherent first illumination beam that is within the infrared range, the beam source including a laser that emits the first illumination beam , the first illumination beam including a plurality of rays; an illumination lens assembly that directs the first illumination beam at the sample , the illumination lens assembly adjusting the first illumination beam so that the illumination beam illuminates a two-dimensional illuminated area on the sample all at once; an image sensor that converts an optical image into an array of electronic signals, the image sensor including a two-dimensional array of sensors that are used to construct a two-dimensional image; and an imaging lens assembly that receives rays from the beam source that are transmitted through the sample and forms an image on the image sensor ; wherein the imaging lens assembly receives the rays from a plurality of points on the sample and forms the image on the image sensor without splitting and recombining the received rays. a beam source that emits a temporally coherent first illumination beam that is within the infrared range, the beam source including a laser that emits the first illumination beam , the first illumination beam including a plurality of rays; an illumination lens assembly that directs the first illumination beam at the sample , the illumination lens assembly adjusting the first illumination beam so that the illumination beam illuminates a two-dimensional illuminated area on the sample all at once; an image sensor that converts an optical image into an array of electronic signals, the image sensor including a two-dimensional array of sensors that are used to construct a two-dimensional image; and an imaging lens assembly that receives rays from the beam source that are transmitted through the sample and forms an image on the image sensor ; wherein the imaging lens assembly receives the rays from a plurality of points on the sample and forms the image on the image sensor without splitting and recombining the received rays.
An organic light emitting diode comprising: a first electrode ; a hole auxiliary layer on the first electrode ; a light emitting material layer on the hole auxiliary layer and emitting white light; an electron auxiliary layer on the light emitting material layer ; and a second electrode on the electron auxiliary layer , wherein the light emitting material layer includes a first light emitting material layer emitting red light, a second light emitting material layer emitting green light and a third light emitting material layer emitting blue light sequentially layered, wherein the first light emitting material layer includes a light emitting material (R) comprising a host material and a dopant material and an electron blocking material (EBM), and characterized in that a thickness of the second light emitting material layer is equal to or larger than a thickness of the first light emitting material layer and is smaller than a thickness of the third light emitting material layer . a first electrode ; a hole auxiliary layer on the first electrode ; a light emitting material layer on the hole auxiliary layer and emitting white light; an electron auxiliary layer on the light emitting material layer ; and a second electrode on the electron auxiliary layer , wherein the light emitting material layer includes a first light emitting material layer emitting red light, a second light emitting material layer emitting green light and a third light emitting material layer emitting blue light sequentially layered, wherein the first light emitting material layer includes a light emitting material (R) comprising a host material and a dopant material and an electron blocking material (EBM), and characterized in that a thickness of the second light emitting material layer is equal to or larger than a thickness of the first light emitting material layer and is smaller than a thickness of the third light emitting material layer .
A simulation method of predicting a behavior of a curable composition (IM) in a process of bringing a plurality of droplets of the curable composition arranged on one of a first member (S) and a second member (M) into contact with the other of the first member and the second member and forming a film of the curable composition on the first member, the method comprising: generating (S201) a link by connecting two adjacent representative points of the plurality of droplets; generating (S203) a cell as a closed region formed by a plurality of links; characterized by further comprising: determining (S005), for each link forming the cell, the link as an open link (LNO) if the droplets forming the link do not merge each other, and the link as a closed link (LNC) if the droplets forming the link merge each other; and determining (S007), based on all links forming the cell being closed links, that a bubble is formed in the cell. generating (S201) a link by connecting two adjacent representative points of the plurality of droplets; generating (S203) a cell as a closed region formed by a plurality of links; characterized by further comprising: determining (S005), for each link forming the cell, the link as an open link (LNO) if the droplets forming the link do not merge each other, and the link as a closed link (LNC) if the droplets forming the link merge each other; and determining (S007), based on all links forming the cell being closed links, that a bubble is formed in the cell. determining (S005), for each link forming the cell, the link as an open link (LNO) if the droplets forming the link do not merge each other, and the link as a closed link (LNC) if the droplets forming the link merge each other; and determining (S007), based on all links forming the cell being closed links, that a bubble is formed in the cell.
A gasket comprising: a bi-directionally self-energizing main body , wherein the main body is configured to be self-energizing to seal regardless of with pressure from a first direction and/or from a second direction opposite the first direction, wherein the main body is annular, and wherein the main body includes a radially inward opening self-energizing feature configured to increase sealing engagement with pressure in the heat exchange chamber, and wherein the self-energizing feature includes a pair of axially spaced ridges extending from the main body of the gasket on either side of an annular pocket that opens radially inward from the main body of the gasket, wherein the gasket includes a radially outward opening self-energizing feature configured to increase sealing engagement with pressure in the inlet-outlet chamber, and in particular, wherein the self-energizing feature includes a pair of axially spaced ridges extending from the main body on either side of an annular pocket that opens radially outward from the main body , characterised in that the inward opening self-energizing feature includes a pair of axially opposed annular channels in the main body proximate the annular pocket to facilitate flexure of the ridges for self-energized sealing of the ridges, and in that the outward opening self-energizing feature includes a pair of axially opposed annular channels in the main body proximate the annular pocket to facilitate flexure of the ridges for self-energized sealing of the ridges. a bi-directionally self-energizing main body , wherein the main body is configured to be self-energizing to seal regardless of with pressure from a first direction and/or from a second direction opposite the first direction, wherein the main body is annular, and wherein the main body includes a radially inward opening self-energizing feature configured to increase sealing engagement with pressure in the heat exchange chamber, and wherein the self-energizing feature includes a pair of axially spaced ridges extending from the main body of the gasket on either side of an annular pocket that opens radially inward from the main body of the gasket, wherein the gasket includes a radially outward opening self-energizing feature configured to increase sealing engagement with pressure in the inlet-outlet chamber, and in particular, wherein the self-energizing feature includes a pair of axially spaced ridges extending from the main body on either side of an annular pocket that opens radially outward from the main body , characterised in that the inward opening self-energizing feature includes a pair of axially opposed annular channels in the main body proximate the annular pocket to facilitate flexure of the ridges for self-energized sealing of the ridges, and in that the outward opening self-energizing feature includes a pair of axially opposed annular channels in the main body proximate the annular pocket to facilitate flexure of the ridges for self-energized sealing of the ridges.
An ion drift tube, comprising: a Faraday plate, arranged in the ion drift tube so that ions are travelling towards the Faraday plate in an ion drift direction; and a plurality of electrode structures arranged at intervals, wherein the plurality of electrode structures are arranged at decreasing intervals in the ion drift direction, wherein each of the electrode structures comprises an annular electrode with an annular inner edge, wherein the inner edges of the annular electrodes of the electrode structures are bent in a same direction in an axial direction of the annular electrodes such that a section of a central portion of each of the annular electrodes has a swallowtail shape, and the same direction is opposite to the ion drift direction, and wherein a cross sectional area of a space defined by the inner edge of the annular electrode increases gradually in the ion drift direction. a Faraday plate, arranged in the ion drift tube so that ions are travelling towards the Faraday plate in an ion drift direction; and a plurality of electrode structures arranged at intervals, wherein the plurality of electrode structures are arranged at decreasing intervals in the ion drift direction, wherein each of the electrode structures comprises an annular electrode with an annular inner edge, wherein the inner edges of the annular electrodes of the electrode structures are bent in a same direction in an axial direction of the annular electrodes such that a section of a central portion of each of the annular electrodes has a swallowtail shape, and the same direction is opposite to the ion drift direction, and wherein a cross sectional area of a space defined by the inner edge of the annular electrode increases gradually in the ion drift direction.
A method comprising: receiving, at a user device while in an offline state, a request for a document, the request comprising a public uniform resource locator corresponding to a location remote from the user device, wherein a remote copy of the document is stored at the location remote from the user device; in response to determining that the user device is in the offline state, launching a launcher application that intercepts the request; selecting, by the launcher application, one of a plurality of local caches based on the public uniform resource locator, each of the plurality of local caches being associated with a private uniform resource locator, wherein the private uniform resource locator comprises a document identifier and a cache identifier of the selected local cache; accessing the selected local cache via the private uniform resource locator to retrieve an editor; modifying a uniform resource locator history by replacing the private uniform resource locator with the public uniform resource locator, wherein the uniform resource locator history comprises a list of uniform resource locators of documents that were previously accessed using the user device; and providing, while the user device is in the offline state, a local copy of the document that is stored locally on the user device, via the editor, to a display on the user device. receiving, at a user device while in an offline state, a request for a document, the request comprising a public uniform resource locator corresponding to a location remote from the user device, wherein a remote copy of the document is stored at the location remote from the user device; in response to determining that the user device is in the offline state, launching a launcher application that intercepts the request; selecting, by the launcher application, one of a plurality of local caches based on the public uniform resource locator, each of the plurality of local caches being associated with a private uniform resource locator, wherein the private uniform resource locator comprises a document identifier and a cache identifier of the selected local cache; accessing the selected local cache via the private uniform resource locator to retrieve an editor; modifying a uniform resource locator history by replacing the private uniform resource locator with the public uniform resource locator, wherein the uniform resource locator history comprises a list of uniform resource locators of documents that were previously accessed using the user device; and providing, while the user device is in the offline state, a local copy of the document that is stored locally on the user device, via the editor, to a display on the user device.
Weaving method having the steps of • guiding warp fibers into a weaving machine , • deflecting the fibers to the weaving plane (A) to obtain a fabric • guiding the fabric into a desizing proces, • heating the fabric by using an infrared-irradiation unit characterized in that the distance of said infrared-irradiation unit from the fabric is controlled with a hydraulic arm , • feeding air by an air fan (24,25 and • sucking hot air by an air ventilation unit . • guiding warp fibers into a weaving machine , • deflecting the fibers to the weaving plane (A) to obtain a fabric • guiding the fabric into a desizing proces, • heating the fabric by using an infrared-irradiation unit characterized in that the distance of said infrared-irradiation unit from the fabric is controlled with a hydraulic arm , • feeding air by an air fan (24,25 and • sucking hot air by an air ventilation unit .
A peristaltic pump, in particular for conveying fluid in a device for extracorporeal blood treatment, with a pump housing , in which a rotor rotatable about a rotor axis (A) with at least two squeeze elements offset in a circumferential direction to each other is accommodated and which has a support surface extending arc-shaped about the rotor axis (A) and spaced radially from the rotor , wherein the support surface is configured to support a tube segment which can be inserted radially between the rotor and the support surface , characterized by co-rotating guide surfaces with the rotor , which are arranged and configured adjacent to both sides of a squeeze element in the circumferential direction in such a way that they each form a circular segment-like guiding passage (FK1, FK2) with the support surface , in which the tube segment can be fixed radially with a predetermined clearance fit. a pump housing , in which a rotor rotatable about a rotor axis (A) with at least two squeeze elements offset in a circumferential direction to each other is accommodated and which has a support surface extending arc-shaped about the rotor axis (A) and spaced radially from the rotor , wherein the support surface is configured to support a tube segment which can be inserted radially between the rotor and the support surface , characterized by co-rotating guide surfaces with the rotor , which are arranged and configured adjacent to both sides of a squeeze element in the circumferential direction in such a way that they each form a circular segment-like guiding passage (FK1, FK2) with the support surface , in which the tube segment can be fixed radially with a predetermined clearance fit.
MACHINE FOR PACKING SAND, GRAVEL, CLAY, EARTH AND HUMID GRANULATED MATERIAL SUCH AS MORTAR AND ORGANIC FERTILIZER IN BAGS comprising a silo and a series of other mechanisms mounted on a support structure , a vibrating set disposed on the outside of one of the walls of the silo ; a oscillating tray mounted directly below the silo , and said oscillating tray operates on an oscillating set characterized by the oscillatory set being comprised of a motor fixed to the machine structure , which rotates a vertical axis that moves back and forth the oscillating tray , and the oscillating tray is arranged at an angle to the horizontal such that the lower end is positioned over a funnel and the upper end is positioned under the outlet of the silo , and said vibrating set comprises a motor (A) containing an eccentric weight (B), the motor (A) being fixed to a support plate (C) which through an extension member (D) is fixed to a second inner plate (G) fixed to the internal surface of the wall (E) of the silo , the inner plate (G) being on one side, fixed only on its upper part and containing a spacing rubber (F) located between the internal plate (G) and the internal wall of the silo .
Method for operating a device for injecting water into an internal combustion engine , wherein the device has • a water tank for storing water, • a pump for conveying the water, wherein the pump is connected to the water tank via a first line , and wherein the pump is operable in a conveying mode and in a back-suction mode, • a drive for driving the pump , • at least one water injector which is configured to inject water into an air-conducting line of the internal combustion engine , wherein the water injector is connected to the pump via a second line , wherein the device for water injection has a control unit , wherein the control unit controls the operation of the pump and the at least one water injector , characterized in that , during the operation of the pump in the back-suction mode, in which the water is conveyed in the direction of the water tank , the at least one water injector is opened such that air flows into the second line , wherein the control unit controls a starting time, a duration and/or a progression of the back-suction mode of the pump in model-based fashion, wherein, in a manner dependent on the volume for evacuation of the device for water injection and on the conveying power of the pump , a progression with respect to time for the rotational speed of the pump and a duration of the operation of the pump in the back-suction mode are predetermined and stored in the control unit , such that the control unit controls the progression of the back-suction mode of the pump on the basis of the model stored in the control unit . • a water tank for storing water, • a pump for conveying the water, wherein the pump is connected to the water tank via a first line , and wherein the pump is operable in a conveying mode and in a back-suction mode, • a drive for driving the pump , • at least one water injector which is configured to inject water into an air-conducting line of the internal combustion engine , wherein the water injector is connected to the pump via a second line ,
A laser welding method comprising: a first step of stacking a first workpiece and a second workpiece each other, each of the first workpiece and the second workpiece having a surface coated with a first material , each of the first workpiece and the second workpiece being made of a second material , the second material differing from the first material ; a second step of irradiating a laser beam onto a first region where the first workpiece and the second workpiece are stacked on each other, wherein in the second step the laser beam penetrates both the first workpiece and the second workpiece to form a through hole penetrating the first workpiece and the second workpiece, the through hole being made of a melted metal; and in that the method further comprises a third step of irradiating a second region with a laser beam in a spiral fashion after the second step, the second region including the first region, the first workpiece and the second workpiece being stacked on each other within the second region, characterized in that an output of the laser beam in the second step is higher than an output of the laser beam in the third step. a first step of stacking a first workpiece and a second workpiece each other, each of the first workpiece and the second workpiece having a surface coated with a first material , each of the first workpiece and the second workpiece being made of a second material , the second material differing from the first material ; a second step of irradiating a laser beam onto a first region where the first workpiece and the second workpiece are stacked on each other, wherein in the second step the laser beam penetrates both the first workpiece and the second workpiece to form a through hole penetrating the first workpiece and the second workpiece, the through hole being made of a melted metal; and in that the method further comprises a third step of irradiating a second region with a laser beam in a spiral fashion after the second step, the second region including the first region, the first workpiece and the second workpiece being stacked on each other within the second region, characterized in that an output of the laser beam in the second step is higher than an output of the laser beam in the third step.
An access control method executed by a remote user equipment, UE, for transmitting user data to a network through a relay UE in a wireless communication system, the method comprising: establishing a connection with the relay UE that is directly connected to the network; receiving access control information transmitted by the network through the relay UE; and determining, on the basis of the access control information, whether to perform an access control check for the user data depending on whether the user data are data to which an access control scheme allowed in an indirect connection mode is applied, wherein the access control information includes information on an access control scheme which is allowed or not allowed in the indirect connection mode, wherein, if the user data are data to which an access control scheme which is not allowed in the indirect connection mode is applied, the user data are transmitted to the relay UE without the access control check for the user data, and wherein, if the remote UE is connected with the network by a direct connection mode, the access control check is performed regardless of an access control scheme applied to the user data. establishing a connection with the relay UE that is directly connected to the network; receiving access control information transmitted by the network through the relay UE; and determining, on the basis of the access control information, whether to perform an access control check for the user data depending on whether the user data are data to which an access control scheme allowed in an indirect connection mode is applied, wherein the access control information includes information on an access control scheme which is allowed or not allowed in the indirect connection mode, wherein, if the user data are data to which an access control scheme which is not allowed in the indirect connection mode is applied, the user data are transmitted to the relay UE without the access control check for the user data, and wherein, if the remote UE is connected with the network by a direct connection mode, the access control check is performed regardless of an access control scheme applied to the user data.
A logic mechanism comprising: a driven element , a mechanical output , and at least one mechanical input ; characterized in that : the mechanism being configured such that the position(s) of said input(s) determine whether or not movement of said driven element is transmitted to said output by determining whether or not a path for transmitting such motion exists. a driven element , a mechanical output , and at least one mechanical input ;