mhurhangee/ep-ind-claims huggingface dataset:
A surgical imaging device, comprising: at least one light source for illuminating an object; a disposable loading unit portion including a first image sensor; an anvil portion including a second image sensor and a bore extending through the anvil portion, the anvil portion movable relative to the DLU portion, wherein the bore, in use, enables the object to be viewed by the first and second image sensors without removing the surgical imaging device from a surgical site; each image sensor having a view and being configured to generate image data corresponding to the object in the form of an image frame, each image frame partially overlapping with at least one other image frame, each of the image sensors directed to a different point of view with respect to the object; and a video processor configured to receive simultaneously from each image sensor the image data corresponding to the image frames and to process the image data by combining the image frames to generate a composite image from the combined image frames, each image frame corresponding to a sub-portion of the composite image, wherein the first and second image sensors are positioned opposite from one another and each opposing image sensor is angled towards its respective point of view such that the views of the sensors overlap. at least one light source for illuminating an object; a disposable loading unit portion including a first image sensor; an anvil portion including a second image sensor and a bore extending through the anvil portion, the anvil portion movable relative to the DLU portion, wherein the bore, in use, enables the object to be viewed by the first and second image sensors without removing the surgical imaging device from a surgical site; each image sensor having a view and being configured to generate image data corresponding to the object in the form of an image frame, each image frame partially overlapping with at least one other image frame, each of the image sensors directed to a different point of view with respect to the object; and a video processor configured to receive simultaneously from each image sensor the image data corresponding to the image frames and to process the image data by combining the image frames to generate a composite image from the combined image frames, each image frame corresponding to a sub-portion of the composite image, wherein the first and second image sensors are positioned opposite from one another and each opposing image sensor is angled towards its respective point of view such that the views of the sensors overlap.
A data authorization controlling and matching system (100,200), comprising a receiver configured to receive an image signal; a plurality of display devices (D1,D2) coupled to the receiver and configured to display the image signal; at least one transmitter (TX11,TX12,TX13,TX14) coupled to the receiver and configured to output the image signal; and at least one image signal source (NB11, NB12, NB13,NB14), wherein each transmitter of the at least one transmitter (TX11,TX12,TX13,TX14) is coupled to the corresponding at least one image signal source; wherein after a member list saved in the receiver is configured, a data link between the receiver and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver acquires identification data of the at least one transmitter (TX11,TX12,TX13,TX14) after the data link between the receiver and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver identifies the at least one transmitter (TX11,TX12,TX13,TX14) by mapping the at least one transmitter (TX11,TX12,TX13,TX14) to the member list according to the identification data, the image signal is transmitted from an image signal source coupled to a transmitter of the at least one transmitter (TX11,TX12,TX13,TX14) to the transmitter after the transmitter is triggered, the transmitter processes the image signal and transmits the image signal to the receiver, and the receiver controls a display device for displaying the image signal according to a plurality of authorization parameters included in the member list. a plurality of display devices (D1,D2) coupled to the receiver and configured to display the image signal; at least one transmitter (TX11,TX12,TX13,TX14) coupled to the receiver and configured to output the image signal; and at least one image signal source (NB11, NB12, NB13,NB14), wherein each transmitter of the at least one transmitter (TX11,TX12,TX13,TX14) is coupled to the corresponding at least one image signal source; wherein after a member list saved in the receiver is configured, a data link between the receiver and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver acquires identification data of the at least one transmitter (TX11,TX12,TX13,TX14) after the data link between the receiver and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver identifies the at least one transmitter (TX11,TX12,TX13,TX14) by mapping the at least one transmitter (TX11,TX12,TX13,TX14) to the member list according to the identification data, the image signal is transmitted from an image signal source coupled to a transmitter of the at least one transmitter (TX11,TX12,TX13,TX14) to the transmitter after the transmitter is triggered, the transmitter processes the image signal and transmits the image signal to the receiver, and the receiver controls a display device for displaying the image signal according to a plurality of authorization parameters included in the member list.
Power module with a housing (100, 70, 20) comprising a housing part, a housing cover and at least one sealing means (110; 110'), which is arranged in such a way that, in the event of a suddenly occurring excess pressure of the volume formed by the housing (100, 70, 20), the sealing means is pressurized into a sealing position which seals the housing part and the housing cover to one another, wherein the sealing means has at least one ring circumference, characterized in that the ring circumference of the sealing means runs in a wavy and/or folded manner in the circumferential direction of the ring circumference.
A process for the preparation of crystalline erlotinib hydrate having water content in the range of 1 - 10% by weight, which comprises: (a) slurrying erlotinib free base in water; and (b) collecting the crystalline erlotinib hydrate having water content in the range of 1 - 10% by weight from the slurry. (a) slurrying erlotinib free base in water; and (b) collecting the crystalline erlotinib hydrate having water content in the range of 1 - 10% by weight from the slurry.
A micro-voided film comprising, by weight, i) from about 20% to about 60% of high density polyethylene having a molecular weight of at least about 200,000, and ii) from about 40% to about 80% of low aspect ratio filler having a mean particle size from about 3 to about 5 microns, wherein the weight ratio of the low aspect ratio filler to the polyethylene is at least about 0.7, said film having a having a thickness of from about 10 to about 75 microns and a void fraction of from about 0.60 to about 0.75.
A composition comprising (i) amphotericin B (AmB), or a pharmaceutically acceptable salt or hydrate thereof, and (ii) cholesterol for use in treating cystic fibrosis. (i) amphotericin B (AmB), or a pharmaceutically acceptable salt or hydrate thereof, and (ii) cholesterol
A speaker system, comprising: a first speaker driver group, comprising at least one first speaker driver and a first amplifier, and a second speaker driver group, comprising at least one second speaker driver and a second amplifier, a digital signal processor, adapted to provide a first signal to the first speaker driver group and a second signal to the second speaker driver group, wherein the first and second signals differ with respect to frequency range, wherein at least one of the first speaker driver group and the second speaker driver group comprises at least 4, 6, 8 or 10 speaker drivers; wherein for all speaker driver groups the speaker drivers are substantially identical; characterized in that for all speaker driver groups a ratio of total effective speaker driver area to minimum wavelength of the signal provided to said group is equal. a first speaker driver group, comprising at least one first speaker driver and a first amplifier, and a second speaker driver group, comprising at least one second speaker driver and a second amplifier, a digital signal processor, adapted to provide a first signal to the first speaker driver group and a second signal to the second speaker driver group, wherein the first and second signals differ with respect to frequency range, wherein at least one of the first speaker driver group and the second speaker driver group comprises at least 4, 6, 8 or 10 speaker drivers; wherein for all speaker driver groups the speaker drivers are substantially identical; characterized in that for all speaker driver groups a ratio of total effective speaker driver area to minimum wavelength of the signal provided to said group is equal.
Method for extracting vegetable protein, in which shelled sunflower seeds as starting product are fed into a pre-heating device upstream of a pressing stage, in which the shelled sunflower seeds are heated to a defined preset temperature, in which the pre-heated shelled sunflower seeds are fed into the pressing stage by means of a metering device, and in which the pre-heated shelled sunflower seeds are compressed in one or more stages in the pressing stage comprising at least one oil press and, in addition to the oil pressed out, a protein-rich sunflower seed press cake is generated having a residual fat content of greater than or equal to 5% by weight to less than or equal to 9% by weight, based on the dry mass, and a protein content of greater than or equal to 40%, based on the dry mass.
A method of generating microscopic data of an object by a charged particle microscope and operating a data analysis system for generating analysis data depending on the microscopic data; wherein the generating of the microscopic data includes directing a primary beam of the charged particle microscope at a plurality of impingement locations; wherein the method further comprises generating X-ray intensity data by detecting X-rays emitted from each of the plurality of impingement locations; wherein the microscopic data comprises an image showing a structure, which is a non-divided image region; wherein the data analysis system comprises a graphical user interface and a display; wherein the method comprises: displaying a graphical representation of the structure on the display by the graphical user interface; interactively generating, depending on user input, separation data representing at least one path of a separation cut, which separates pixels of the structure from each other, wherein the structure is cut by the separation cut into at least two separated structure portions; visually marking the separation cut by the graphical user interface, depending on the separation data, by differently marking different area portions of the representation, which represent different pixels of the structure which are separated from each other by the separation cut, wherein the marking of the separation further comprises visibly marking the different portions of the representation depending on the generated X-ray intensity data; changing the generated separation data; wherein the changing of the separation data comprises receiving further user input; updating the marking of the separation cut by the graphical user interface in response to the change of the separation data; and generating separate analysis data for each of at least two portions of the object, depending on the microscopic data and depending on the separation data. displaying a graphical representation of the structure on the display by the graphical user interface; interactively generating, depending on user input, separation data representing at least one path of a separation cut, which separates pixels of the structure from each other, wherein the structure is cut by the separation cut into at least two separated structure portions; visually marking the separation cut by the graphical user interface, depending on the separation data, by differently marking different area portions of the representation, which represent different pixels of the structure which are separated from each other by the separation cut, wherein the marking of the separation further comprises visibly marking the different portions of the representation depending on the generated X-ray intensity data; changing the generated separation data; wherein the changing of the separation data comprises receiving further user input; updating the marking of the separation cut by the graphical user interface in response to the change of the separation data; and generating separate analysis data for each of at least two portions of the object, depending on the microscopic data and depending on the separation data.
An organic light-emitting display apparatus comprising: a display unit on a substrate; a pad unit at one outer side of the display unit on the substrate; a wiring unit comprising: a first wiring layer on the substrate comprising a plurality of first wirings; an insulating layer on the first wiring layer; and a second wiring layer comprising a plurality of second wirings as the uppermost wiring layer on the insulating layer, wherein the wiring layers (400A, 400B) couple the display unit to the pad unit; wherein the wiring unit includes a region in which the first wirings overlap the second wirings; and a thin film encapsulating layer on the display unit; the organic light-emitting display apparatus further comprising a protrusion unit comprising a plurality of support protrusions formed on the wiring unit except in the region in which the first wirings overlap the second wirings, wherein the support protrusions protrude over the second wirings. a display unit on a substrate; a pad unit at one outer side of the display unit on the substrate; a wiring unit comprising: a first wiring layer on the substrate comprising a plurality of first wirings; an insulating layer on the first wiring layer; and a second wiring layer comprising a plurality of second wirings as the uppermost wiring layer on the insulating layer, wherein the wiring layers (400A, 400B) couple the display unit to the pad unit; wherein the wiring unit includes a region in which the first wirings overlap the second wirings; and a first wiring layer on the substrate comprising a plurality of first wirings; an insulating layer on the first wiring layer; and a second wiring layer comprising a plurality of second wirings as the uppermost wiring layer on the insulating layer, wherein the wiring layers (400A, 400B) couple the display unit to the pad unit; wherein the wiring unit includes a region in which the first wirings overlap the second wirings; and a thin film encapsulating layer on the display unit; the organic light-emitting display apparatus further comprising a protrusion unit comprising a plurality of support protrusions formed on the wiring unit except in the region in which the first wirings overlap the second wirings, wherein the support protrusions protrude over the second wirings.
Treatment machine for containers, comprising: at least one treatment unit (3, 3'); and a linear motor system with long stators (5, 15) and transport vehicles (6, 16) individually driven by them, wherein the long stators (5, 15) are arranged in the form of a lower and an upper circulating track (20, 30) for the transport vehicles (6, 16) with in particular rectilinear transport sections (23, 33) facing one another on the treatment unit (3, 3'), and wherein the transport vehicles (6, 16) are designed in pairs to vertically clamp the containers, wherein the transport vehicles of the lower circulating track comprise rotary plates for receiving the containers, and the transport vehicles of the upper circulating track comprise centring heads for axially clamping the containers to the rotary plates, characterised in that the lower and upper circulating tracks (20, 30) comprise turning sections (21, 25, 31, 35) with a substantially vertical track curvature (27, 28, 37, 38) and the treatment machine comprises mechanical control cams for lowering the centring heads onto the incoming containers and for lifting the centring heads off the outgoing containers.
Cosmetic product applicator having an applicator tip and a gripping element designed to be grasped by a user, the applicator tip having branches that extend spirally about a main axis such that they define a cavity having a general shape of revolution about the main axis, characterized in that the applicator tip is mounted so as to be free to rotate about the main axis with respect to the gripping element. the applicator tip having branches that extend spirally about a main axis such that they define a cavity having a general shape of revolution about the main axis, characterized in that the applicator tip is mounted so as to be free to rotate about the main axis with respect to the gripping element.
A method of forming a device for spectroscopic identification of molecules, comprising: providing a topological insulator (102, 203, 302, 303, 402, 403, 503) oriented either above or below two metallic contacts (104, 204, 304, 404, 504) including: forming an insulating layer (201, 301, 401, 501); and forming the topological insulator (102, 203, 302, 303, 402, 403, 503) on the insulating layer (201, 301, 401, 501), wherein both of the two contacts (104, 204, 304, 404, 504) are formed either on a surface of the insulating layer (201, 301, 401, 501) with the topological insulator (102, 203, 302, 303, 402, 403, 503) formed over at least a portion of the contacts (104, 204, 304, 404, 504) or on a surface of the topological insulator (102, 203, 302, 303, 402, 403, 503); and wherein the contacts (104, 204, 304, 404, 504) are oriented such that a voltage sufficient to generate ballistic electron flows can be applied across the contacts (104, 204, 304, 404, 504) and a current-voltage characteristic can be measured. providing a topological insulator (102, 203, 302, 303, 402, 403, 503) oriented either above or below two metallic contacts (104, 204, 304, 404, 504) including: forming an insulating layer (201, 301, 401, 501); and forming the topological insulator (102, 203, 302, 303, 402, 403, 503) on the insulating layer (201, 301, 401, 501), wherein both of the two contacts (104, 204, 304, 404, 504) are formed either on a surface of the insulating layer (201, 301, 401, 501) with the topological insulator (102, 203, 302, 303, 402, 403, 503) formed over at least a portion of the contacts (104, 204, 304, 404, 504) or on a surface of the topological insulator (102, 203, 302, 303, 402, 403, 503); and forming an insulating layer (201, 301, 401, 501); and forming the topological insulator (102, 203, 302, 303, 402, 403, 503) on the insulating layer (201, 301, 401, 501), wherein both of the two contacts (104, 204, 304, 404, 504) are formed either on a surface of the insulating layer (201, 301, 401, 501) with the topological insulator (102, 203, 302, 303, 402, 403, 503) formed over at least a portion of the contacts (104, 204, 304, 404, 504) or on a surface of the topological insulator (102, 203, 302, 303, 402, 403, 503); and wherein the contacts (104, 204, 304, 404, 504) are oriented such that a voltage sufficient to generate ballistic electron flows can be applied across the contacts (104, 204, 304, 404, 504) and a current-voltage characteristic can be measured.
Method for assembling an aerial cableway station, in particular of a chair-lift or cable-car, characterized in that it comprises: - a prefabrication step in which at least one concrete prefabricated support designed to support a top part of the station is manufactured, the prefabrication step being performed in a manufacturing area; - a transportation step of each prefabricated support from the manufacturing area to an assembly area distinct from the manufacturing area; and - an assembly step of the station comprising placing of each prefabricated support at a predefined place on the ground delineating the assembly area. - a prefabrication step in which at least one concrete prefabricated support designed to support a top part of the station is manufactured, the prefabrication step being performed in a manufacturing area; - a transportation step of each prefabricated support from the manufacturing area to an assembly area distinct from the manufacturing area; and - an assembly step of the station comprising placing of each prefabricated support at a predefined place on the ground delineating the assembly area.
An arrangement for calibrating probes comprising a tip, the arrangement comprising - at least one calibration lever having a surface for placement of a tip of a probe to be calibrated, - at least one probe holder for holding the probe to be calibrated, the at least one probe holder having a controllable position in at least a direction (y) transverse to the surface of the calibration lever, - a calibration control facility for controlling said controllable position within a range of position values, and for determining a mechanical property of said probe from a deflection (δ C) of the tip of the probe relative to the probe holder as a function of said position and from a second parameter, characterized in that the arrangement further comprises at least one optically based strain sensor optically coupled to a source of coherent photon radiation for measuring an amount of strain (ε), the calibration lever being mechanically coupled to the at least one optically based strain sensor for converting a force exerted by said tip at said surface into an amount of strain in the optically based strain sensor and wherein the second parameter for determining a mechanical property of said probe is the measured amount of strain (ε). - at least one calibration lever having a surface for placement of a tip of a probe to be calibrated, - at least one probe holder for holding the probe to be calibrated, the at least one probe holder having a controllable position in at least a direction (y) transverse to the surface of the calibration lever, - a calibration control facility for controlling said controllable position within a range of position values, and for determining a mechanical property of said probe from a deflection (δ C) of the tip of the probe relative to the probe holder as a function of said position and from a second parameter,
An isolated antagonistic antibody specifically binding PD-1 or an antigen-binding portion thereof, comprising a heavy chain variable region of SEQ ID NO: 48 and a light chain variable region of SEQ ID NO: 56.