mhurhangee/patent-ind-claim-en huggingface dataset:
A friction stirring tool comprising: a first rotating tool that is arranged for a welding-target portion of a metal material , on one side across the welding-target portion ; and a second rotating tool that is arranged on the other side across the welding-target portion , and that is disposed so as to face the first rotating tool , wherein the first rotating tool has a first tool main body having a first shoulder portion which comes into contact with one side surface of the welding-target portion , a first probe protruding toward the second rotating tool from the first tool main body , and a protrusion protruding toward the second rotating tool from the first probe , and wherein the second rotating tool has a second tool main body having a second shoulder portion which comes into contact with the other side surface of the welding-target portion , a second probe protruding toward the first rotating tool from the second tool main body , and a protrusion accommodating portion disposed in the second probe and capable of accommodating the protrusion of the first rotating tool , characterized in that the protrusion is detachably fixed to the first probe , the first probe further has a fixing hole for fixing the protrusion , and the protrusion has a flange portion which protrudes outward from the fixing hole and which comes into contact with the first probe . a first rotating tool that is arranged for a welding-target portion of a metal material , on one side across the welding-target portion ; and a second rotating tool that is arranged on the other side across the welding-target portion , and that is disposed so as to face the first rotating tool , wherein the first rotating tool has a first tool main body having a first shoulder portion which comes into contact with one side surface of the welding-target portion , a first probe protruding toward the second rotating tool from the first tool main body , and a protrusion protruding toward the second rotating tool from the first probe , and wherein the second rotating tool has a second tool main body having a second shoulder portion which comes into contact with the other side surface of the welding-target portion , a second probe protruding toward the first rotating tool from the second tool main body , and a protrusion accommodating portion disposed in the second probe and capable of accommodating the protrusion of the first rotating tool , characterized in that the protrusion is detachably fixed to the first probe , the first probe further has a fixing hole for fixing the protrusion , and the protrusion has a flange portion which protrudes outward from the fixing hole and which comes into contact with the first probe .
A system comprising: a radiation source ; a marker ; a first image sensor ; and a second image sensor ; wherein the first image sensor is configured to capture images of the marker; wherein the second image sensor is configured to move between a first position relative to the radiation source and a second position relative to the radiation source; wherein the second image sensor is configured to capture, with radiation from the radiation source, a first set of images of portions of a scene when the second image sensor is at the first position relative to the radiation source; wherein the second image sensor is configured to capture, with the radiation from the radiation source, a second set of images of portions of the scene when the second image sensor is at the second position relative to the radiation source; wherein the second image sensor and the radiation source are configured to collectively rotate relative to the scene; wherein the second image sensor is configured to form an image of the scene by selecting an image from the first set based on the images of the marker and selecting an image from the second set based on the images of the marker, and configured to stitch the image selected from the first set and the image selected from the second set. a radiation source ; a marker ; a first image sensor ; and a second image sensor ; wherein the first image sensor is configured to capture images of the marker; wherein the second image sensor is configured to move between a first position relative to the radiation source and a second position relative to the radiation source; wherein the second image sensor is configured to capture, with radiation from the radiation source, a first set of images of portions of a scene when the second image sensor is at the first position relative to the radiation source; wherein the second image sensor is configured to capture, with the radiation from the radiation source, a second set of images of portions of the scene when the second image sensor is at the second position relative to the radiation source; wherein the second image sensor and the radiation source are configured to collectively rotate relative to the scene; wherein the second image sensor is configured to form an image of the scene by selecting an image from the first set based on the images of the marker and selecting an image from the second set based on the images of the marker, and configured to stitch the image selected from the first set and the image selected from the second set.
A weapon launch system for a submersible vessel, comprising: - at least one electric actuator capable of performing a series of mechanical actions on a weapon launch tube; - a first box comprising a power module capable of supplying electrical power; - a second box comprising a control module capable of controlling the operation of the electric actuator ; - a first security module electrically connecting the power module to the control module ; - a second security module electrically connecting the control module to the electric actuator ; the boxes being separated from one another and from the electric actuator . - at least one electric actuator capable of performing a series of mechanical actions on a weapon launch tube; - a first box comprising a power module capable of supplying electrical power; - a second box comprising a control module capable of controlling the operation of the electric actuator ; - a first security module electrically connecting the power module to the control module ; - a second security module electrically connecting the control module to the electric actuator ;
A window or the like, comprising a frame , comprising a leaf that is pivotable against the frame , and comprising an electronic data memory , the electronic data memory forming a structural unit with the window, characterized in that the electronic data memory contains data on components of the window and can be read out on the window.
A carrier substrate for electrical components, comprising - an insulating layer , wherein the insulating layer preferably comprises a material that comprises a ceramic or a compound having at least one ceramic layer; - a component metallization formed on one component side (BS) with a first primary structure ; and - a cooling part metallization formed on a cooling side (KS) opposite the component side (BS) and having a second primary structure , wherein the insulating layer ; the component metallization ; and the cooling part metallization are arranged on top of one another along a stacking direction (S) and wherein the first primary structuring and the second primary structuring , viewed in the stacking direction (S), extend congruently at least in sections, characterized in that the cooling part metallization has a second secondary structure , which is in particular part of the cooling structure, wherein the second primary structure has a second depth (T2) and a second width (B2) and the second secondary structure has a further second depth (T2') and a further second width (B2'), wherein the second depth (T2) is greater than or less than the further second depth (T2') and/or the second width (B2) is greater than or less than the further second width (B2'). - an insulating layer , wherein the insulating layer preferably comprises a material that comprises a ceramic or a compound having at least one ceramic layer; - a component metallization formed on one component side (BS) with a first primary structure ; and - a cooling part metallization formed on a cooling side (KS) opposite the component side (BS) and having a second primary structure , wherein the insulating layer ; the component metallization ; and the cooling part metallization are arranged on top of one another along a stacking direction (S) and wherein the first primary structuring and the second primary structuring , viewed in the stacking direction (S), extend congruently at least in sections, characterized in that the cooling part metallization has a second secondary structure , which is in particular part of the cooling structure, wherein the second primary structure has a second depth (T2) and a second width (B2) and the second secondary structure has a further second depth (T2') and a further second width (B2'), wherein the second depth (T2) is greater than or less than the further second depth (T2') and/or the second width (B2) is greater than or less than the further second width (B2').
A patch assembly comprising: a power source positioned between two layers of material; the patch assembly being configured to serve as a surface return electrode; and a first electrically conductive path and a second electrically conductive path, both electrically conductive paths extending from the power source through at least one of the two layers of material. a power source positioned between two layers of material; the patch assembly being configured to serve as a surface return electrode; and a first electrically conductive path and a second electrically conductive path, both electrically conductive paths extending from the power source through at least one of the two layers of material.
Connector for drill pipes, that can be materially connected by friction welding with a longitudinal end of a drill pipe (B), comprising a substantially cylindrical body , provided with a central through hole, at one longitudinal end of which a connecting section is configured for a correspondingly configured connecting section of a second connector and the second longitudinal end of which has a coupling part for the form-fitting connection with a longitudinal end of a drill pipe (B), wherein the coupling part is configured on a plug-in section of the body , that is facing away from the connecting section , in which the central through hole continues and radially projects over the plug-in section , the central through hole has a hole section following a cylindrical hole section and conically widened to the free end of the plug-in section , the conically widened hole section has an inner face that encloses an angle (α) of 2° to 16° with the axis of the body, characterized in that the coupling part is formed by a lateral part with the form of a connecting sleeve that is limited by cylindrical outer and inner faces and that is separated from the plug-in section by an axially extending concave groove .
A thermoplastic resin film comprising a base layer (A) containing a thermoplastic resin and a coating layer (B) provided on at least one surface of the base layer (A), the coating layer (B) containing components derived from (a) an emulsion containing resin particles formed from an olefin-based copolymer and (b) an ethyleneimine-based resin, wherein the thermoplastic resin film is characterized in that a volume-average particle size of the resin particles contained in the emulsion is from 0.3 to 0.6 μm, wherein the volume-average particle size is measured using a laser diffraction particle size distribution measurement apparatus SALD-2200.
Tubular spring , in particular as a coil spring , torsion-rod spring , and/or stabilizer for motor vehicles, comprising at least one metal tube element having a tube internal cross section , a tube internal diameter (DI), a tube external diameter (DA), a tube internal wall , and a tube wall thickness (W), characterized in that at least one metal foam is disposed in the tube internal cross section of the at least one metal tube element of the tubular spring in at least one part-region, and the at least one metal tube element has an at least partially martensitic structure.
A system comprising: a plurality of medical devices (210a-210n) each including a radio frequency identification (RFID) transponder (220a-220n); and an RFID transponder emulator configured to emulate functionality of each of the RFID transponders of the plurality of medical devices, characterised in that the RFID transponder emulator includes a plurality of input controls having a user interface for selecting a mode from a plurality of modes of operation and providing selective emulation of some or all of the RFID transponders. a plurality of medical devices (210a-210n) each including a radio frequency identification (RFID) transponder (220a-220n); and an RFID transponder emulator configured to emulate functionality of each of the RFID transponders of the plurality of medical devices, characterised in that the RFID transponder emulator includes a plurality of input controls having a user interface for selecting a mode from a plurality of modes of operation and providing selective emulation of some or all of the RFID transponders.
A white light source whose color temperature is 2,500 to 5,400 K, comprising: one type of a blue light emitting LED having a light emission peak of 421 to 490 nm; and a phosphor excited by a primary light emitted from the blue light emitting LED thereby to emit a secondary white light, wherein the phosphor comprises four or more types of phosphors selected out of: types of blue phosphors; types of blue-green phosphors; types of green phosphors; types of yellow phosphors; and/or types of red phosphors, the phosphor comprises at least one of the four or more types of phosphor that is a europium-activated orthosilicate phosphor having a peak wavelength of 520 to 550 nm, a europium-activated β-sialon phosphor having a peak wavelength of 535 to 545 nm, a europium-activated strontium sialon phosphor having a peak wavelength of 510 to 530 nm, and a europium-activated orthosilicate phosphor having a peak wavelength of 550 to 580 nm, or a cerium-activated rare-earth aluminum garnet phosphor having a peak wavelength of 550 to 580 nm, each phosphor has a light emission peak in a range of 420 to 700 nm, adjacent peak wavelengths of the respective phosphors are deviated to each other by 10 nm to 100 nm, and a half band width of the peak wavelength of the light emission spectrum of each phosphor is 40 nm or more, the white light source satisfies a relational equation of − 0.2 ≤ P λ × V λ / P λ max 1 × V λ max 1 − B λ × V λ / B λ max 2 × V λ max 2 ≤ + 0.2 , assuming that: a light emission spectrum of the white light source is P(λ); a light emission spectrum of black-body radiation having a same color temperature as that of the white light source is B(λ); a spectrum of a spectral luminous efficiency is V(λ); a wavelength at which P(λ) × V(λ) becomes largest is λmax1; and a wavelength at which B(λ) × V(λ) becomes largest is λmax2.
A weight checker comprising: a transport unit configured to transport products under inspection; a weighing unit configured to determine the weights of the products under inspection on the transport unit ; a body that has a screen relating to the weighing performed by the weighing unit ; and a frame to which the transport unit and the weighing unit are anchored, wherein the frame has rail members that extend in a transport direction (X) of the transport unit ; the body is independent from the transport unit and the weighing unit and is mounted to the rail members in such a way that its position in the transport direction (X) can be changed; characterized in that the position of the body in the transport direction is adjustable by sliding the body in the transport direction in a state in which the load of the body is applied to the rail members . a transport unit configured to transport products under inspection; a weighing unit configured to determine the weights of the products under inspection on the transport unit ; a body that has a screen relating to the weighing performed by the weighing unit ; and a frame to which the transport unit and the weighing unit are anchored, wherein the frame has rail members that extend in a transport direction (X) of the transport unit ; the body is independent from the transport unit and the weighing unit and is mounted to the rail members in such a way that its position in the transport direction (X) can be changed; characterized in that the position of the body in the transport direction is adjustable by sliding the body in the transport direction in a state in which the load of the body is applied to the rail members .
Drive for opening and/or closing a movable wing of a door or a window, with an output shaft which is operatively connectable to the wing and to a drive motor apparatus; with a spring device which acts upon the wing in the closing direction or opening direction; and with a locking device which can be switched on and off and, in the switched-on position, blocks the spring device in a pretensioned manner and has a housing with a chamber in which at least one spring piston is displaceably mounted, wherein the spring piston divides the chamber in a liquid-tight manner into at least two pressure chambers , wherein the pressure chambers are connected to one another via at least one hydraulic line , wherein a first pressure chamber is bounded and closed by a cover , wherein the cover has an opening , through which a piston rod of the locking device reaches, wherein the piston rod is connected at one end to the spring piston and at the other end to a slide , wherein the slide is mounted displaceably within the drive and has an elongate recess , through which the output shaft of the drive reaches, wherein a disc cam is mounted on the output shaft for rotation therewith, wherein the slide has a pressure roller which interacts with the outer contour of the disc cam by the pressure roller being acted upon against the disc cam by the spring device , wherein the spring device is arranged in the first pressure chamber between the cover and the spring piston , wherein the locking device is designed in such a manner that it becomes effective after a predetermined opening angle of the wing is reached, wherein the compression of the spring device in the final angular degrees of the opening movement of the wing brings about the braking thereof, and therefore the drive motor device has to apply less, ideally no braking power for this purpose.
A method for combining legacy transmit-rate data with one or more additional differing transmit-rate data conveyed on a uni-directional or bi-directional model railroad layout control system link, comprising: (i) said legacy transmit-rate data, (ii) at least one said additional differing transmit-rate data, (iii) conveyed on said model railroad layout control system link, and further comprising; (iv) a system control device, with at least; (v) a control unit logic to enable and/or control data flow on said model railroad layout control system link, communicating with a protocol codec configured for processing; a legacy output as encoding and/or decoding of said legacy transmit-rate data, including an additional codec protocol for encoding and/or decoding of said differing transmit-rate data as an additional output, and combining this with said legacy output, whereby said additional codec protocol allows said system control device to combine said legacy and additional outputs such that the transmitted combination of said additional differing transmit-rate data conveyed along with a said legacy transmit-rate data provides codec outputs valid and/or compatible for processing. (i) said legacy transmit-rate data, (ii) at least one said additional differing transmit-rate data, (iii) conveyed on said model railroad layout control system link, and further comprising; (iv) a system control device, with at least; (v) a control unit logic to enable and/or control data flow on said model railroad layout control system link, communicating with a protocol codec configured for processing; a legacy output as encoding and/or decoding of said legacy transmit-rate data, including an additional codec protocol for encoding and/or decoding of said differing transmit-rate data as an additional output, and combining this with said legacy output,
Vicenin 2 as an active ingredient for use in preventing, delaying onset, controlling and/or treating a neurological dysfunction, condition, disorder or disease, wherein the neurological dysfunction, condition, disorder or disease is an age or stress related neurological dysfunction, a cognitive disorder, depression or dementia, wherein dementia is preferably Alzheimer disease.
A particle detector for selectively detecting at least one of secondary ions, or secondary electrons from a sample, or tertiary electrons (SE3) that are created by back-scattered electrons emitted from the sample, all secondary ions, or secondary electrons or back-scattered electrons originating from a focused scanning ion and/or electron beams, said particle detector comprising: a sparse collecting electrode (17; 26; 31); Venetian Blind strips (19; 27; 33) for converting secondary ions to electrons, said Venetian Blind strips (19; 27; 33) comprising a conducting material and being disposed behind the sparse collecting electrode; at least one further electrode adjacent the Venetian Blind strips (19; 27; 33), a scintillating disc (24; 37) for producing scintillation photons upon impingement of energetic electrons, said scintillating disc (24; 37) being biasable with respect to said Venetian Blind strips (19; 27; 33) and said at least one further electrode, respectively; wherein the detector has a longitudinal axis which extends from the sparse collecting electrode (27; 26; 31) to the scintillating disc (24; 37), and the scintillating disc (24; 37) is spaced apart from the Venetian Blind strips (19; 27; 33) in the direction of the longitudinal axis, characterized in that the at least one further electrode comprises an extracting electrode (20; 28; 34) arranged behind the Venetian strips (19; 27; 33), wherein a positive potential can be applied to extracting electrode (20; 28; 34) with respect to the Venetian Blind strips (19; 27; 33) in order to extract electrons originating from the Venetian Blind strips; the particle detector further comprises a light-guide (25; 38) for guiding scintillation photons to a photo-multiplier; and a set of ring electrodes (22; 29; 35) for collecting or repelling said tertiary electrons, said set of ring electrodes (22; 29; 35) being arranged behind said extracting electrode (20; 28; 24) between the extracting electrode (20; 28; 24) and the scintillating disc (24; 37); wherein by switching appropriate voltages on the sparse collecting electrode and the at least one further electrode the particle detector is arranged to detect the selected of said at least one of secondary ions, secondary electrons and tertiary electrons (SE3), and to exclude an unselected of said at least one of secondary ions, secondary electrons and tertiary electrons (SE3). a sparse collecting electrode (17; 26; 31); Venetian Blind strips (19; 27; 33) for converting secondary ions to electrons, said Venetian Blind strips (19; 27; 33) comprising a conducting material and being disposed behind the sparse collecting electrode; at least one further electrode adjacent the Venetian Blind strips (19; 27; 33), a scintillating disc (24; 37) for producing scintillation photons upon impingement of energetic electrons, said scintillating disc (24; 37) being biasable with respect to said Venetian Blind strips (19; 27; 33) and said at least one further electrode, respectively;