mhurhangee/patent-ind-claim-en huggingface dataset:
Three-dimensional medical image anonymization method comprising: - determining a skin region of a three-dimensional medical image comprising determining, as the skin region, a region of a predefined thickness inwards into a human body with respect to a boundary portion of the human body in the three-dimensional medical image; - generating a human mask based on a human tissue region of the three-dimensional medical image, the human tissue region including bones and organs inside the human body; - generating a skin expansion region which comprises the skin region, a region expanded outwards from the skin region, and a region expanded inwards into the skin region, comprising expanding the skin region of the three-dimensional medical image in both an outward direction and an inward direction of the skin region with respect to voxels of the skin region; - generating an anonymization region obtained by removing a region corresponding to the human mask from the skin expansion region; and - changing brightness values of voxels corresponding to the anonymization region in the three-dimensional medical image to a predefined value or an arbitrary value. - determining a skin region of a three-dimensional medical image comprising determining, as the skin region, a region of a predefined thickness inwards into a human body with respect to a boundary portion of the human body in the three-dimensional medical image; - generating a human mask based on a human tissue region of the three-dimensional medical image, the human tissue region including bones and organs inside the human body; - generating a skin expansion region which comprises the skin region, a region expanded outwards from the skin region, and a region expanded inwards into the skin region, comprising expanding the skin region of the three-dimensional medical image in both an outward direction and an inward direction of the skin region with respect to voxels of the skin region; - generating an anonymization region obtained by removing a region corresponding to the human mask from the skin expansion region; and - changing brightness values of voxels corresponding to the anonymization region in the three-dimensional medical image to a predefined value or an arbitrary value.
Braking system for vehicles comprising - a hydraulic actuator unit operatively connected to at least one braking device , so as to control its actuation by means of a first hydraulic circuit at a first working pressure (P1), wherein the hydraulic actuator unit comprises at least one manual actuator for a user, to allow the user to supply the braking system with a braking request, characterised by - a power generation unit , operatively connected to the hydraulic actuator unit by means of a second hydraulic circuit at a second working pressure (P2), - an actuated brake pump , operatively connected, in input , to the second hydraulic circuit of the power generation unit .to be actuated, and operatively connected, in output , to the first hydraulic circuit for the actuation of the at least one braking device , - wherein the first and the second hydraulic circuits are supplied with different hydraulic fluids fluidically separate from each other, - at least one control unit of the system that supervises the operation of the braking system . - a hydraulic actuator unit operatively connected to at least one braking device , so as to control its actuation by means of a first hydraulic circuit at a first working pressure (P1), wherein the hydraulic actuator unit comprises at least one manual actuator for a user, to allow the user to supply the braking system with a braking request, characterised by - a power generation unit , operatively connected to the hydraulic actuator unit by means of a second hydraulic circuit at a second working pressure (P2), - an actuated brake pump , operatively connected, in input , to the second hydraulic circuit of the power generation unit .to be actuated, and operatively connected, in output , to the first hydraulic circuit for the actuation of the at least one braking device , - wherein the first and the second hydraulic circuits are supplied with different hydraulic fluids fluidically separate from each other, - at least one control unit of the system that supervises the operation of the braking system .
A duplex stainless steel comprising in weight% (wt%): C less than 0.03; Si less than 0.60; Mn 0.60 - 1.80; P less than 0.04; S less than or equal to 0.01; Cr more than 30.00 to 33.00; Ni 6.00 to 10.00; Mo 1.40 to 2.80; N 0.15 to 0.28; Cu 1.10 - 1.90; Al less than 0.05; Optionally one or more alloying elements, such as Calcium (Ca), Magnesium (Mg), Boron (B), and Cerium (Ce), for improving e.g. the processability, such as the hot ductility less than about 0.05; balance Fe and unavoidable impurities and wherein said duplex stainless steel has a PRE, which is greater than or equal to 36 and wherein PRE = wt% Cr+3.3*wt% Mo and wherein said duplex stainless steel has a ferrite content of from 40 to 70 vol% and the balance is austenite and wherein said duplex stainless steel has a Rp0.2 which is greater than 610 MPa measured according to the ASTM A-370 standard and wherein said duplex stainless steel has an impact toughness in a testing performed on notched Charpy-V samples with the dimensions of 10x10x55 mm at a test temperature of -50°C greater than 130 J. Optionally one or more alloying elements, such as Calcium (Ca), Magnesium (Mg), Boron (B), and Cerium (Ce), for improving e.g. the processability, such as the hot ductility less than about 0.05; balance Fe and unavoidable impurities and wherein said duplex stainless steel has a PRE, which is greater than or equal to 36 and wherein PRE = wt% Cr+3.3*wt% Mo and wherein said duplex stainless steel has a ferrite content of from 40 to 70 vol% and the balance is austenite and wherein said duplex stainless steel has a Rp0.2 which is greater than 610 MPa measured according to the ASTM A-370 standard and wherein said duplex stainless steel has an impact toughness in a testing performed on notched Charpy-V samples with the dimensions of 10x10x55 mm at a test temperature of -50°C greater than 130 J.
A method of producing a coated article, wherein the surface of the article is wetted with a crosslinkable composition and the crosslinkable composition is then crosslinked to form a coating, wherein the crosslinkable composition comprises functionalised monomers that have a crosslinkable group, a cationic group and a fluorinated group, wherein the composition comprises anions corresponding to the cationic groups of the functionalised monomers, wherein the cationic group is an N-substituted cyclic, and in particular heteroaromatic, group that comprises a 5-membered ring and/or at least two heteroatoms, and wherein a spacer is arranged between the cationic group and the fluorinated group, said spacer being an uncharged and unfluorinated organyl group and preferably an alkylene group.
A nucleic acid(s) encoding an antibody selected from the group consisting of: (i) an antibody comprising a V H sequence of and V L sequence of (ii) an antibody comprising a V H sequence of and a V L sequence of (iii) an antibody comprising a V H sequence of and a V L sequence of (iv) an antibody comprising a V H sequence of and a V L sequence of (v) an antibody comprising a V H sequence of and a V L sequence of (vi) an antibody comprising a V H sequence of and a V L sequence of (vii) an antibody comprising a V H sequence of and a V L sequence of (viii) an antibody comprising a V H sequence of and a V L sequence of (ix) an antibody comprising a V H sequence of and a V L sequence of (x) an antibody comprising a V H sequence of and a V L sequence of (xi) an antibody comprising a V H sequence of and a V L sequence of (xii) an antibody comprising a V H sequence of and a V L sequence of (xiii) an antibody comprising a V H sequence of and a V L sequence of (xiv) an antibody comprising a V H sequence of and a V L sequence of (xv) an antibody comprising a V H sequence of and a V L sequence of (xvi) an antibody comprising a V H sequence of and a V L sequence of (xvii) an antibody comprising a V H sequence of and a V L sequence of (xviii) an antibody comprising a V H sequence of and a V L sequence of (i) an antibody comprising a V H sequence of and V L sequence of (ii) an antibody comprising a V H sequence of and a V L sequence of (iii) an antibody comprising a V H sequence of and a V L sequence of (iv) an antibody comprising a V H sequence of and a V L sequence of (v) an antibody comprising a V H sequence of and a V L sequence of (vi) an antibody comprising a V H sequence of and a V L sequence of (vii) an antibody comprising a V H sequence of and a V L sequence of (viii) an antibody comprising a V H sequence of and a V L sequence of (ix) an antibody comprising a V H sequence of and a V L sequence of (x) an antibody comprising a V H sequence of and a V L sequence of (xi) an antibody comprising a V H sequence of and a V L sequence of (xii) an antibody comprising a V H sequence of and a V L sequence of (xiii) an antibody comprising a V H sequence of and a V L sequence of (xiv) an antibody comprising a V H sequence of and a V L sequence of (xv) an antibody comprising a V H sequence of and a V L sequence of (xvi) an antibody comprising a V H sequence of and a V L sequence of (xvii) an antibody comprising a V H sequence of and a V L sequence of (xviii) an antibody comprising a V H sequence of and a V L sequence of
A method for organizing and/or commissioning a network for communication with network nodes , the network nodes of the network being synchronized and data transmission taking place between the synchronized network nodes according to a timing scheme, in which the times are determined at which data transmission between which network nodes in which transmission direction can take place, the network, after set up during commissioning, having a hierarchical network topology with a central master network node and network nodes connected to the same in a tree-like manner over one or more hierarchy levels, non-synchronized network nodes sending out support data packets at predetermined support transmission intervals and, subsequent to the sending out of a support data packet, switching to receive for a response receiving interval and the master network node and/or synchronized network nodes switching to continuous reception for a support receiving interval for the synchronization of a non-synchronized network node and sending out a response data packet , which contains synchronization information, after receiving a support data packet, characterized in that the synchronization of non-synchronized network nodes starting from the master network node , which forms the network node of the lowest hierarchy level, takes place in such a manner in terms of hierarchy level that first, in a first synchronization pass, the master network node switches to continuous reception for a support receiving interval and sends out response data packets for the received support data packets and subsequently, in each case already synchronized network nodes of the respectively next-highest hierarchy level switch to continuous reception for a support receiving interval and send out response data packets for the received support data packets , until all of the network nodes to be synchronized are synchronized or no further support data packet is received through network nodes already synchronized in the network over a predetermined number of support receiving intervals.
System for convertible bunk beds, comprising: - a base frame ; - an upper frame of such dimensions that it can house a first mattress , movable between a first position in which the same is lowered and the system is in sofa configuration and a second position, substantially on the vertical of said first position, in which said upper frame is lifted and the system is in bunk bed configuration; - a third frame of such dimensions that it can house a second mattress , constrained so that it is comprised between said base frame and said upper frame , characterized in that the constraint of said upper frame to said base frame occurs by means of a kinematics with double four-bar linkage which allows to move said upper frame while keeping it constantly in horizontal position, and in that said kinematics with double four-bar linkage comprises: - a first four-bar linkage made up of the base frame , a bar parallel thereto and two further bars constrained so that they form the other sides of the four-bar linkage; - a second four-bar linkage made up of two bars hinged to said further bars of the first four-bar linkage at equal distance from the base frame and the upper frame , constrained thereto by means of hinges. - a base frame ; - an upper frame of such dimensions that it can house a first mattress , movable between a first position in which the same is lowered and the system is in sofa configuration and a second position, substantially on the vertical of said first position, in which said upper frame is lifted and the system is in bunk bed configuration; - a third frame of such dimensions that it can house a second mattress , constrained so that it is comprised between said base frame and said upper frame , - a first four-bar linkage made up of the base frame , a bar parallel thereto and two further bars constrained so that they form the other sides of the four-bar linkage; - a second four-bar linkage made up of two bars hinged to said further bars of the first four-bar linkage at equal distance from the base frame and the upper frame , constrained thereto by means of hinges.
A solar cell comprising: a support substrate having first and second surfaces opposite to each other; a photoelectric conversion part disposed on the first surface and including a first electrode , a light absorbing layer , and a second electrode; and a collecting electrode electrically connected to the first electrode and disposed on the second surface, characterized in that the first electrode is disposed on the first surface of the support substrate , and in that the light absorbing layer is disposed on the first electrode , wherein the second electrode is disposed on the light absorbing layer , wherein the first electrode includes an electrode part disposed on the first surface and an extension part extending from the first surface to the second surface , and the collecting electrode makes contact with the extension part , wherein the first electrode includes molybdenum (Mo), copper (Cu), nickel (Ni), aluminum (Al), or the alloy thereof, wherein the extension part extends from the first surface to the second surface while surrounding both lateral sides of the support substrate , wherein the extension part comprises a first extension part extending from one side of the electrode part and a second extension part extending from an opposite side of the electrode part and spaced apart from the first extension part on the second surface , and wherein the collecting electrode comprises a first collecting electrode making contact with the first extension part and a second collecting electrode making contact with the second extension part . a support substrate having first and second surfaces opposite to each other; a photoelectric conversion part disposed on the first surface and including a first electrode , a light absorbing layer , and a second electrode; and a collecting electrode electrically connected to the first electrode and disposed on the second surface, characterized in that the first electrode is disposed on the first surface of the support substrate , and in that the light absorbing layer is disposed on the first electrode , wherein the second electrode is disposed on the light absorbing layer , wherein the first electrode includes an electrode part disposed on the first surface and an extension part extending from the first surface to the second surface , and the collecting electrode makes contact with the extension part , wherein the first electrode includes molybdenum (Mo), copper (Cu), nickel (Ni), aluminum (Al), or the alloy thereof, wherein the extension part extends from the first surface to the second surface while surrounding both lateral sides of the support substrate , wherein the extension part comprises a first extension part extending from one side of the electrode part and a second extension part extending from an opposite side of the electrode part and spaced apart from the first extension part on the second surface , and wherein the collecting electrode comprises a first collecting electrode making contact with the first extension part and a second collecting electrode making contact with the second extension part .
Foundry component for an apparatus for casting or handling a metal melt, wherein - the component comprises a metallic main body which is provided in a melt-contact surface region with an anticorrosion layer structure composed of one or more superposed layers, characterized in that - the anticorrosion layer structure comprises, as sole layer , a protective woven fabric body prefabricated as flexible woven fabric body from a woven fabric material which is casting temperature resistant or a nonwoven protective layer prefabricated as pliable nonwoven layer from a fibre nonwoven material or fibre paper material which is casting temperature resistant or a protective shaped body prefabricated as rigid shaped body from a shaped body material which is casting temperature resistant and has a thickness in the range from 2 mm to 25 mm, or comprises a plurality of layers, of which layers one layer is a protective woven fabric body prefabricated as flexible woven fabric body from a woven fabric material which is casting temperature resistant or a nonwoven protective layer prefabricated as pliable nonwoven layer from a fibre nonwoven material or fibre paper material which is casting temperature resistant or a protective shaped body prefabricated as rigid shaped body from a shaped body material which is casting temperature resistant. - the component comprises a metallic main body which is provided in a melt-contact surface region with an anticorrosion layer structure composed of one or more superposed layers, characterized in that - the anticorrosion layer structure comprises, as sole layer , a protective woven fabric body prefabricated as flexible woven fabric body from a woven fabric material which is casting temperature resistant or a nonwoven protective layer prefabricated as pliable nonwoven layer from a fibre nonwoven material or fibre paper material which is casting temperature resistant or a protective shaped body prefabricated as rigid shaped body from a shaped body material which is casting temperature resistant and has a thickness in the range from 2 mm to 25 mm, or comprises a plurality of layers, of which layers one layer is a protective woven fabric body prefabricated as flexible woven fabric body from a woven fabric material which is casting temperature resistant or a nonwoven protective layer prefabricated as pliable nonwoven layer from a fibre nonwoven material or fibre paper material which is casting temperature resistant or a protective shaped body prefabricated as rigid shaped body from a shaped body material which is casting temperature resistant.
Module arrangement for a modular field device connection unit , the arrangement comprising a frame module with at least one interface receptacle for receiving at least one interchangeable interface module , and at least one interface module , which is insertable into the at least one interface receptacle along a module insertion path , wherein the at least one interface module is provided with at least one cartridge receptacle for receiving at least one cartridge member , and wherein the at least one interface module is provided with at least one movable coding element , which is moveable from a neutral position (N) into at least one coding position (C) by insertion of a cartridge member into the cartridge receptacle , characterized in that the at least one module arrangement is provided with at least one resetting mechanism for resetting the at least one movable coding element into the neutral position (N) by insertion of the at least one interface module into the at least one interface receptacle and/or removal out of it, respectively, the resetting mechanism comprising at least one trigger element , the trigger element at least partially protruding into the at least one module insertion path .
An articulation assembly comprising: a proximal universal joint configured to couple to a central section of a drive shaft defining a longitudinal axis (A-A) and to rotate in response to rotation of the drive shaft about the axis (A-A); and a distal universal joint rotatably coupled to the proximal universal joint such that rotation of the proximal universal joint effects rotation of the distal universal joint about the axis (A-A), the distal universal joint configured to couple to a distal section of the drive shaft to rotate the distal section about the axis (A-A) in response to rotation of the distal universal joint , wherein the proximal universal joint is biased towards a centered position, the biasing of the proximal universal joint is overcome when the distal universal joint reaches a maximum articulation angle relative to the axis (A-A). a proximal universal joint configured to couple to a central section of a drive shaft defining a longitudinal axis (A-A) and to rotate in response to rotation of the drive shaft about the axis (A-A); and a distal universal joint rotatably coupled to the proximal universal joint such that rotation of the proximal universal joint effects rotation of the distal universal joint about the axis (A-A), the distal universal joint configured to couple to a distal section of the drive shaft to rotate the distal section about the axis (A-A) in response to rotation of the distal universal joint , wherein the proximal universal joint is biased towards a centered position, the biasing of the proximal universal joint is overcome when the distal universal joint reaches a maximum articulation angle relative to the axis (A-A).