mhurhangee/ep-ind-claims huggingface dataset:
An image pickup unit for an endoscope, comprising: a lens barrel portion which is configured to hold an objective lens including a movable lens disposed on a distal end side and an image pickup device disposed closer to a proximal end side than the objective lens and includes a movable lens holding barrel that holds the movable lens and is movable to advance and retract; and a drive mechanism portion which is disposed at a side surface portion of the lens barrel portion and drives the movable lens holding barrel, wherein the unit has a holding portion which is disposed at the side surface portion of the lens barrel portion and is configured to position and hold the drive mechanism portion, the drive mechanism portion is shaped to extend in a direction toward a proximal end, with a gap between the drive mechanism portion and the lens barrel portion on a side closer to the proximal end than the holding portion, and characterized in that the gap between the lens barrel portion and the drive mechanism portion is filled with an adhesive which is made to have a difference in hardness such that hardness is lower on a proximal end side than on a distal end side. a lens barrel portion which is configured to hold an objective lens including a movable lens disposed on a distal end side and an image pickup device disposed closer to a proximal end side than the objective lens and includes a movable lens holding barrel that holds the movable lens and is movable to advance and retract; and a drive mechanism portion which is disposed at a side surface portion of the lens barrel portion and drives the movable lens holding barrel, wherein the unit has a holding portion which is disposed at the side surface portion of the lens barrel portion and is configured to position and hold the drive mechanism portion, the drive mechanism portion is shaped to extend in a direction toward a proximal end, with a gap between the drive mechanism portion and the lens barrel portion on a side closer to the proximal end than the holding portion, and characterized in that the gap between the lens barrel portion and the drive mechanism portion is filled with an adhesive which is made to have a difference in hardness such that hardness is lower on a proximal end side than on a distal end side.
A computer-implemented method for providing a complete set of second key elements in an X-ray image, comprising: - receiving first input data, wherein the first input data is an optical image of an examination region, - applying a first trained function to the first input data, wherein first output data is generated, wherein the first output data comprises detected first key elements, and a first collimation region is determined based on the first key elements, - receiving second input data, wherein the second input data is an X-ray image of an examination region, acquired using the first collimation region, - applying a second trained function to the second input data, wherein second output data is generated, wherein the second output data comprises detected second key elements, - checking a set of second key elements for completeness, in case of an incomplete set of second key elements: - receiving third input data, wherein the third input data comprises an x-ray image of an examination region acquired using the first collimation region, and the second key elements, - applying a third trained function to the third input data, wherein third output data is generated, wherein the third output data comprises at least one estimated third key element to complete the set of second key elements, - providing a second collimation region based on the complete set of second key elements to acquire a further x-ray image. - receiving first input data, wherein the first input data is an optical image of an examination region, - applying a first trained function to the first input data, wherein first output data is generated, wherein the first output data comprises detected first key elements, and a first collimation region is determined based on the first key elements, - receiving second input data, wherein the second input data is an X-ray image of an examination region, acquired using the first collimation region, - applying a second trained function to the second input data, wherein second output data is generated, wherein the second output data comprises detected second key elements, - checking a set of second key elements for completeness, in case of an incomplete set of second key elements: - receiving third input data, wherein the third input data comprises an x-ray image of an examination region acquired using the first collimation region, and the second key elements, - applying a third trained function to the third input data, wherein third output data is generated, wherein the third output data comprises at least one estimated third key element to complete the set of second key elements, - providing a second collimation region based on the complete set of second key elements to acquire a further x-ray image.
A method of replacing a damaged blade of an integrally bladed rotor assembly including a disc and a plurality of blades extending outwardly from a rim of the disc, the method being characterised by including the steps of: removing the damaged blade to leave a blade repair stub projecting from the rim; locating sacrificial supports at the underside of the rim beneath the repair stub, the supports projecting axially beyond the trailing and leading edges of the rim; depositing metal around the trailing and leading edges of the repair stub, the deposited metal, supported by the sacrificial supports, projecting axially beyond the trailing and leading edges of the rim; attaching a replacement blade to the repair stub by linear friction welding; and removing excess deposited metal, upset metal from the linear friction welding, and the sacrificial supports. removing the damaged blade to leave a blade repair stub projecting from the rim; locating sacrificial supports at the underside of the rim beneath the repair stub, the supports projecting axially beyond the trailing and leading edges of the rim; depositing metal around the trailing and leading edges of the repair stub, the deposited metal, supported by the sacrificial supports, projecting axially beyond the trailing and leading edges of the rim; attaching a replacement blade to the repair stub by linear friction welding; and removing excess deposited metal, upset metal from the linear friction welding, and the sacrificial supports.
A method comprising: assembling a glucose sensor (400, 500, 620, 1001) with a mounting unit to form an assembled unit, where the glucose sensor comprises at least one electrode (401, 402, 403, 501, 502, 503), an area comprising an enzyme, and an area comprising a glucose diffusion limiting polymer; packaging the assembled unit in a container; packaging a predetermined number of the containers including the assembled units into a box; irradiating the box containing the predetermined number of containers including the assembled units with a predetermined dose level and/or for a predetermined time period using electron beam radiation to sterilize the assembled units, and separately packaging and separately sterilising at least one sensor inserter (600, 1002). assembling a glucose sensor (400, 500, 620, 1001) with a mounting unit to form an assembled unit, where the glucose sensor comprises at least one electrode (401, 402, 403, 501, 502, 503), an area comprising an enzyme, and an area comprising a glucose diffusion limiting polymer; packaging the assembled unit in a container; packaging a predetermined number of the containers including the assembled units into a box; irradiating the box containing the predetermined number of containers including the assembled units with a predetermined dose level and/or for a predetermined time period using electron beam radiation to sterilize the assembled units, and separately packaging and separately sterilising at least one sensor inserter (600, 1002).
Monitoring system of blood component bags, comprising at least one sensing device comprising at least one temperature sensor configured to detect at least one value of temperature of at least one bag containing blood components, said sensing device being moveable with respect to said bag between an operating position, wherein it is positioned at the point where said bag is located and wherein said temperature sensor detects said value of temperature, and a far-away position, wherein it is moved away from said bag, wherein the monitoring system comprises: - at least one support which is adapted to contain said bag and comprising at least one housing of said bag and at least one seat of said sensing device in said operating position; and - retaining means of said bag associated with said support and positionable between an open configuration, wherein said bag is movable with respect to said housing, and a closed configuration, wherein said bag is retained inside said housing; characterized by the fact that said sensing device comprises at least one contact sensor configured to detect the positioning of said sensing device in said operating position and by the fact that, in said operating position, said sensing device is configured to lock said retaining means in said closed configuration. - at least one support which is adapted to contain said bag and comprising at least one housing of said bag and at least one seat of said sensing device in said operating position; and - retaining means of said bag associated with said support and positionable between an open configuration, wherein said bag is movable with respect to said housing, and a closed configuration, wherein said bag is retained inside said housing;
A method for the display of an image in an image area of a display area of a display screen, the image area having a logical dimension being the number of logical pixels across the horizontal or vertical dimension of the image area; and the display area having a pixel density, the image being stored on a server in a plurality of versions, each version of the image having a respective image size, the method comprising: detecting the pixel density of the display area, the pixel density being the number of physical pixels of the display area of the display screen that are used to display one logical pixel; calculating a desired image dimension by multiplying the pixel density of the display area by the logical dimension of the image area; determining a first version of the image to request from the server based on the desired image dimension, the first version of the image having a first image size; requesting the first version of the image; receiving the first version of the image; and displaying the first version of the image in the display area, characterised by calculating a predefined amount as the smaller value of a fixed value and a fraction of the desired image dimension, wherein determining the first version of the image to request from the server comprises selecting, from the plurality of versions of the image, a version of the image: such that the first image size has an image dimension greater than the desired image dimension by the predefined amount; and that is the next largest version of the image that is larger than the desired image dimension added to the predefined amount; and displaying the first version of the image in the display area comprises resizing the first version of the image to fit the image area. detecting the pixel density of the display area, the pixel density being the number of physical pixels of the display area of the display screen that are used to display one logical pixel; calculating a desired image dimension by multiplying the pixel density of the display area by the logical dimension of the image area; determining a first version of the image to request from the server based on the desired image dimension, the first version of the image having a first image size; requesting the first version of the image; receiving the first version of the image; and displaying the first version of the image in the display area, characterised by calculating a predefined amount as the smaller value of a fixed value and a fraction of the desired image dimension, such that the first image size has an image dimension greater than the desired image dimension by the predefined amount; and that is the next largest version of the image that is larger than the desired image dimension added to the predefined amount; and
A process for the purification of crude terephthalic acid, comprising: (a) oxidizing paraxylene with air in an acetic acid-based solvent containing catalyst in a reactor to form a slurry containing crude terephthalic acid crystals and an oxygen-depleted air off-gas; (b) flash cooling the slurry by pressure letdown; (c) removing a portion of the oxygen-depleted air exiting the reactor to provide the motive force for a filtration-based solvent interchange; (d) conditioning the removed oxygen-depleted air; and (e) effecting solvent interchange in a first filtration step with counter-current washing utilizing the removed oxygen-depleted air to pressurize and exchange solvent in a rotary pressure filter. (a) oxidizing paraxylene with air in an acetic acid-based solvent containing catalyst in a reactor to form a slurry containing crude terephthalic acid crystals and an oxygen-depleted air off-gas; (b) flash cooling the slurry by pressure letdown; (c) removing a portion of the oxygen-depleted air exiting the reactor to provide the motive force for a filtration-based solvent interchange; (d) conditioning the removed oxygen-depleted air; and (e) effecting solvent interchange in a first filtration step with counter-current washing utilizing the removed oxygen-depleted air to pressurize and exchange solvent in a rotary pressure filter.
A method for presenting a unified interest layer in a computer system including a display screen comprising an area displaying a user interface, the method comprising: detecting a first trigger event for activating the unified interest layer; responsive to the first trigger event: temporarily inactivating the user interface; and activating the unified interest layer in the area displaying the user interface, thereby providing access to a plurality of widgets contained by the unified interest layer, wherein at least one widget in the plurality of widgets is capable of alerting a user when the unified interest layer is not currently active; detecting a second trigger event for dismissing the unified interest layer; and responsive to the second trigger event: dismissing the unified interest layer; and reactivating the user interface. detecting a first trigger event for activating the unified interest layer; responsive to the first trigger event: temporarily inactivating the user interface; and activating the unified interest layer in the area displaying the user interface, thereby providing access to a plurality of widgets contained by the unified interest layer, wherein at least one widget in the plurality of widgets is capable of alerting a user when the unified interest layer is not currently active; temporarily inactivating the user interface; and activating the unified interest layer in the area displaying the user interface, thereby providing access to a plurality of widgets contained by the unified interest layer, wherein at least one widget in the plurality of widgets is capable of alerting a user when the unified interest layer is not currently active; detecting a second trigger event for dismissing the unified interest layer; and responsive to the second trigger event: dismissing the unified interest layer; and reactivating the user interface. dismissing the unified interest layer; and reactivating the user interface.
Irradiation device for irradiating body parts of a patient comprising - a carrier system, several light heads (11, 12, 13, 14) attached to this having light sources to produce the irradiation and - a control element to control the irradiation device, characterized by a separate control module connected with the carrier system and formed as switchgear cabinet or rack, having a control for controlling the light heads (11, 12, 13, 14), wherein the light heads (11, 12, 13, 14) are modularly implemented and have housings, which are detachably connected with the control module by means of supporting arms, the control module is pivotably connected about a first pivot axis with the carrier system and the housings of the light heads (11, 12, 13, 14) can be pivoted relative to the control module about a respective second pivot axis. - a carrier system, several light heads (11, 12, 13, 14) attached to this having light sources to produce the irradiation and - a control element to control the irradiation device,
A rotatable cutting tool for impingement upon a substrate and adapted to be rotatably retained within the bore of a holder, the rotatable cutting tool comprising: an elongate cutting tool body having an axial forward end and an axial rearward end, the cutting tool body containing a socket at the axial forward end thereof; a hard cutting member being affixed to the cutting tool body within the socket, the hard cutting member having an axial forward end and an axial rearward end, and the hard cutting member having an axial length; the hard cutting member having an axial forward portion at the axial forward end thereof, and the axial forward portion having a maximum transverse dimension; the hard cutting member further having a hard axial rearward portion located axially rearward of the axial forward portion, and the hard axial rearward portion having a maximum transverse dimension; and a ratio (J/D) of the maximum transverse dimension of the hard axial rearward portion to the axial length of the hard cutting member ranging between 0.75 and 0.85, characterized in that the axial forward portion is a distinct superhard axial forward portion mounted to be contiguous with an axial forward face of the hard axial rearward portion of the hard cutting member, and the superhard axial forward portion comprises a substrate including a cylindrical base portion and a conical portion, which presents a conical surface, wherein a layer of the superhard material is adhered to the conical surface of the substrate, and wherein the layer of superhard material on the conical surface is of a generally constant thickness and an outer periphery of the layer presents a cylindrical layer portion disposed adjacent in axial direction to the cylindrical base portion of the substrate. an elongate cutting tool body having an axial forward end and an axial rearward end, the cutting tool body containing a socket at the axial forward end thereof; a hard cutting member being affixed to the cutting tool body within the socket, the hard cutting member having an axial forward end and an axial rearward end, and the hard cutting member having an axial length; the hard cutting member having an axial forward portion at the axial forward end thereof, and the axial forward portion having a maximum transverse dimension; the hard cutting member further having a hard axial rearward portion located axially rearward of the axial forward portion, and the hard axial rearward portion having a maximum transverse dimension; and a ratio (J/D) of the maximum transverse dimension of the hard axial rearward portion to the axial length of the hard cutting member ranging between 0.75 and 0.85,
A method of adjusting the oxygen concentration of a reactor water side stream in a nuclear plant, the method comprising: injecting demineralized water into the reactor water side stream the demineralized water having an oxygen concentration at least 20 times higher than that of the reactor water side stream, to produce an oxygenated stream with an increased oxygen concentration. injecting demineralized water into the reactor water side stream the demineralized water having an oxygen concentration at least 20 times higher than that of the reactor water side stream, to produce an oxygenated stream with an increased oxygen concentration.
Infiltration head (1, 101, 201, 301, 401) for dispensing water into an aquifer, wherein the infiltration head (1, 101, 201, 301, 401) comprises an infiltration tube (2, 102, 202, 302, 402) having a first end and a second end and a central axis extending in an axial direction between said first end and said second end, wherein the first end is arranged for allowing a water flow to enter the infiltration tube (2, 102, 202, 302, 402), wherein the infiltration tube (2, 102, 202, 302, 402) comprises a circumferential wall extending circumferentially about the central axis in a circumferential direction, wherein one or more apertures are provided at an axial position between the first end and the second end, wherein said one or more apertures extend through said circumferential wall in a radial direction transverse to the central axis, characterized in that the infiltration head (1, 101, 201, 301, 401) further comprises a deflector (4, 104, 204) which is positioned within the infiltration tube (2, 102, 202, 302, 402) at or near the axial position of the one or more apertures, wherein the deflector (4, 104, 204) comprises a deflector body (40, 140, 240) having a deflection portion (41, 141, 241) which is configured for deflecting a flow direction of the water flow from a first direction parallel or substantially parallel to the central axis to a second direction towards the one or more apertures, wherein the deflection portion (41, 141, 241) is tapered towards the first end of the infiltration tube (2, 102, 202, 302, 402).
Method for machining a longitudinal profile section having an actual length and one and another end (3, 3'), wherein the one and the other end (3, 3') are machined using respectively one and another tool head (6, 7) and material is continuously abraded by the one and the other rotating tool head (6, 7) during a machining period, characterized in that the machining period (t) is divided into time increments (Δti), a torque (M(ti,) M'(ti)) of the tool head (6, 7) is measured for each time increment (Δti) and an individual energy consumption (E(Δti), E'(Δti)) is determined for each time increment (Δti), said individual energy consumption corresponding to an individual quantity of material abraded during the time increment (Δti), and a total energy consumption (E(t), E'(t)) both of the one and of the other tool head (6, 7) is determined from the individual energy consumptions (E(Δti), E'(Δti)), said total energy consumption corresponding to the total quantity of abraded material, wherein the abraded quantity of material of the one and the other end (3, 3') is determined continuously and the two tool heads (6, 7) are controlled in such a way that, if the total energy consumption E(t) of the one tool head is greater than the total energy consumption E'(t) of the other tool head, the rate of advance of the other tool head is increased in comparison to the one tool head