mhurhangee/patent-ind-claim-en huggingface dataset:
A profiled steel frame with a laterally arranged tie bar and a laterally arranged lock bar as well as a head bar connecting the tie bar to the lock bar , wherein the tie bar , the lock bar and the head bar are constituted by a steel profile, wherein the head bar abuts against the tie bar and/or the lock bar in a corner region with a mitre cut , wherein the head bar is connected to the tie bar and/or the lock bar with an angle shoe inserted at the end into the respective steel profile and fixed to the profiles, wherein the angle shoe is produced from a single piece of sheet metal, wherein the angle shoe comprises a first angle section and a second angle section folded at right-angles thereto, that the first angle section is adjoined by a first tab , which is folded at right angles to the first angle section , and that the first tab is connected, preferably welded, to the second angle section , wherein the second angle section is adjoined by a second tab , which is folded at right angles to second angle section , wherein the first tab and the second tab run flush with one another, and wherein the second tab is connected to the first tab , characterised in that the second tab is welded to the first tab and/or that the second tab is connected to the first tab by a form-fit connection .
A medical device coated with a lubricious silicone coating, comprising: a medical device having a surface; and, a lubricious silicone coating on at least a part of the surface, the coating formed from a coating composition comprising: a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst is an ambient inactive catalyst and consists essentially of platinum divinyltetramethyldisiloxane vinylcyclohexanol complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O · C 6 H 10 (OH)(CH = CH 2 ). a medical device having a surface; and, a lubricious silicone coating on at least a part of the surface, the coating formed from a coating composition comprising: a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst is an ambient inactive catalyst and consists essentially of platinum divinyltetramethyldisiloxane vinylcyclohexanol complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O · C 6 H 10 (OH)(CH = CH 2 ). a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst is an ambient inactive catalyst and consists essentially of platinum divinyltetramethyldisiloxane vinylcyclohexanol complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O · C 6 H 10 (OH)(CH = CH 2 ).
A battery comprising: a) an electrochemical unit comprising i) at least one electrochemical cell that comprises a cell anode, a cell cathode and an electrolyte in contact with said cell anode and cell cathode, and ii) a first contact electrode mounted on a surface of the electrochemical unit, b) a second contact electrode positioned adjacent to the electrochemical unit, whereby the first and second contact electrodes face each other to allow a contact resistance between the first contact electrode and second contact electrode to be measured; and c) a device configured to measure the contact resistance between the first and second contact electrodes, wherein the measured contact resistance between the first and second contact electrodes is indicative of contraction or expansion of the electrochemical cell during charging or discharging of the battery. a) an electrochemical unit comprising i) at least one electrochemical cell that comprises a cell anode, a cell cathode and an electrolyte in contact with said cell anode and cell cathode, and ii) a first contact electrode mounted on a surface of the electrochemical unit, b) a second contact electrode positioned adjacent to the electrochemical unit, whereby the first and second contact electrodes face each other to allow a contact resistance between the first contact electrode and second contact electrode to be measured; and c) a device configured to measure the contact resistance between the first and second contact electrodes,
A method for locating a fault cause, comprising: obtaining parameter values of a plurality of running parameters and a parameter value of a fault parameter in preset duration before a wavelength division multiplexing board device is faulty, wherein the fault parameter is a parameter that is abnormal when the wavelength division multiplexing board device is faulty ; determining a correlation between each of the plurality of running parameters and the fault parameter based on the parameter values of the plurality of running parameters and the parameter value of the fault parameter, wherein the correlation represents a correlation degree between a parameter value change of a running parameter and a parameter value change of a fault parameter ; and determining at least one target parameter from the plurality of running parameters based on a value of the correlation, wherein a correlation between each of the at least one target parameter and the fault parameter is greater than a correlation between the fault parameter and a running parameter other than the at least one target parameter in the plurality of running parameters . obtaining parameter values of a plurality of running parameters and a parameter value of a fault parameter in preset duration before a wavelength division multiplexing board device is faulty, wherein the fault parameter is a parameter that is abnormal when the wavelength division multiplexing board device is faulty ; determining a correlation between each of the plurality of running parameters and the fault parameter based on the parameter values of the plurality of running parameters and the parameter value of the fault parameter, wherein the correlation represents a correlation degree between a parameter value change of a running parameter and a parameter value change of a fault parameter ; and determining at least one target parameter from the plurality of running parameters based on a value of the correlation, wherein a correlation between each of the at least one target parameter and the fault parameter is greater than a correlation between the fault parameter and a running parameter other than the at least one target parameter in the plurality of running parameters .
A float glass system in which molten glass is cooled to form a glass ribbon moving along a glass ribbon path , comprising: a float bath having a pool of molten metal ; at least one chemical vapor deposition coater located in the float bath ; at least one optical low-coherence interferometry probe located adjacent the glass ribbon path in the float bath above the pool of molten metal ; an optical low-coherence interferometry (OLCI) system operatively connected to the at least one probe , and at least one window located in the bottom of the at least one coater wherein the at least one probe is connected to the at least one coater , with the at least one probe located in the at least one coater and aligned with the at least one window . a float bath having a pool of molten metal ; at least one chemical vapor deposition coater located in the float bath ; at least one optical low-coherence interferometry probe located adjacent the glass ribbon path in the float bath above the pool of molten metal ; an optical low-coherence interferometry (OLCI) system operatively connected to the at least one probe , and at least one window located in the bottom of the at least one coater wherein the at least one probe is connected to the at least one coater , with the at least one probe located in the at least one coater and aligned with the at least one window .
A prepreg prepared by impregnating a base material with a resin composition, wherein the resin composition contains aluminum hydroxide having an average particle diameter of 2.5 to 4.5 μm and a glass filler having an average particle diameter of 1.0 to 3.0 μm, a specific gravity of 2.3 to 2.6 g/cm 3 and a SiO 2 content of 50 to 65 % by mass; and a sum of blending amounts of aluminum hydroxide and the glass filler is 30 to 50 % by mass based on a whole amount of solid matters in the resin composition, and wherein a use ratio of aluminum hydroxide and the glass filler is 4 : 6 to 6 : 4.
A method for assessing strain in a structural component , comprising: creating a geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) on the structural component having a first set of grooves (14, 14A-14F) each having a first groove width (WG) and a second set of grooves each having a second groove width; illuminating the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) with a first light at a band of first wavelength that corresponds to the first groove width (WG) to create diffraction when the first light hits the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) and a second light at a band of second wavelength that corresponds to the second groove width to create diffraction when the second light hits the geometric pattern of grooves , and corresponding changes in a wavelength of light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) indicating changes in the first groove width (WG) and in the second groove width due to strain caused when the structural component is exposed to environmental conditions; detecting the wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) as the first light and the second light illuminate the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F); and correlating the detected wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) to the strain in the structural component . creating a geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) on the structural component having a first set of grooves (14, 14A-14F) each having a first groove width (WG) and a second set of grooves each having a second groove width; illuminating the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) with a first light at a band of first wavelength that corresponds to the first groove width (WG) to create diffraction when the first light hits the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) and a second light at a band of second wavelength that corresponds to the second groove width to create diffraction when the second light hits the geometric pattern of grooves , and corresponding changes in a wavelength of light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) indicating changes in the first groove width (WG) and in the second groove width due to strain caused when the structural component is exposed to environmental conditions; detecting the wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) as the first light and the second light illuminate the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F); and correlating the detected wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) to the strain in the structural component .
A CMOS device comprising - a semiconductor substrate on a wafer surface with a <110> notch, - a patterned strain-relaxed buffer layer of fins comprising SiGe on the semiconductor substrate ;on the patterned strain-relaxed buffer layer , a nFinFET having a n-channel region and a pFinFET having a p-channel region , - both channel regions having a top surface in a /<110> direction and sidewall surface in a /<110> direction; - both channel regions having an identical composition and being isolated from each other by an isolation region 400 and comprising Ge whereby the concentration of Ge in the channel regions is higher than the concentration of Ge in the strain-relaxed buffer layer and whereby the lattice constant for the channel regions is larger than the lattice constant of the strain-relaxed buffer layer in strain-relaxed state, - source/drain regions comprising SiGe for the nFinFET and the concentration of Ge being lower than the concentration of Ge in the strain-relaxed-buffer layer and; - source/drain regions comprising Ge for the pFinFET and the concentration of Ge being higher than the concentration of Ge in the strain-relaxed-buffer layer. - a semiconductor substrate on a wafer surface with a <110> notch, - a patterned strain-relaxed buffer layer of fins comprising SiGe on the semiconductor substrate ;on the patterned strain-relaxed buffer layer , a nFinFET having a n-channel region and a pFinFET having a p-channel region , - both channel regions having a top surface in a /<110> direction and sidewall surface in a /<110> direction; - both channel regions having an identical composition and being isolated from each other by an isolation region 400 and comprising Ge whereby the concentration of Ge in the channel regions is higher than the concentration of Ge in the strain-relaxed buffer layer and whereby the lattice constant for the channel regions is larger than the lattice constant of the strain-relaxed buffer layer in strain-relaxed state, - source/drain regions comprising SiGe for the nFinFET and the concentration of Ge being lower than the concentration of Ge in the strain-relaxed-buffer layer and; - source/drain regions comprising Ge for the pFinFET and the concentration of Ge being higher than the concentration of Ge in the strain-relaxed-buffer layer.
An additive layer manufacturing apparatus comprising multiple doctor blades , each doctor blade having a tip which, in use, is arranged proximal to a material layer to be recoated during an additive layer manufacturing method, the doctor blade having a cavity with an inlet and an outlet, the outlet located at the tip and the inlet connectable to an air supply whereby air can be directed through the cavity to the outlet and onto a surface of the material layer , wherein each doctor blade includes features downstream of the outlet which are configured to control and/or direct air exiting the outlet and wherein the air supply to each doctor blade is individually controllable.
A display device comprising: a substrate (SUB) including a display area (DA) for displaying an image and a peripheral area (PA) neighboring the display area (DA); a plurality of signal lines formed in the display area (DA); a pad (P) formed in the peripheral area (PA); and a plurality of connection wires for connecting the signal lines and the pad (P), wherein a first connection wire (311; 351) and a second connection wire (312; 352) adjacent to and neighboring the first connection wire (311; 351) from among the plurality of connection wires are disposed on different layers, and the first connection wire (311; 351) and the second connection wire (312; 352) each including a section extended to the display area from the pad (P), in which the first and second connection wires (311, 312; 351, 352) extend to the display area (DA) in a forward direction, bent to extend toward the pad (P) in a backward direction, and then bent to extend to the display area (DA), the first connection wire (311; 351) and the second connection wire (312; 352) are disposed in the peripheral area (PA), wherein the first and second connection wires (311, 312; 351, 352) are arranged in parallel and are disposed and separated from each other with a constant predetermined gap (D1). a substrate (SUB) including a display area (DA) for displaying an image and a peripheral area (PA) neighboring the display area (DA); a plurality of signal lines formed in the display area (DA); a pad (P) formed in the peripheral area (PA); and a plurality of connection wires for connecting the signal lines and the pad (P), wherein a first connection wire (311; 351) and a second connection wire (312; 352) adjacent to and neighboring the first connection wire (311; 351) from among the plurality of connection wires are disposed on different layers, and the first connection wire (311; 351) and the second connection wire (312; 352) each including a section extended to the display area from the pad (P), in which the first and second connection wires (311, 312; 351, 352) extend to the display area (DA) in a forward direction, bent to extend toward the pad (P) in a backward direction, and then bent to extend to the display area (DA), the first connection wire (311; 351) and the second connection wire (312; 352) are disposed in the peripheral area (PA), wherein the first and second connection wires (311, 312; 351, 352) are arranged in parallel and are disposed and separated from each other with a constant predetermined gap (D1).
A method for producing a catheter with a plurality of spaced apart electrodes thereon, the method comprising forming the electrodes from respective electrically conductive elements and bonding the electrically conductive elements to the catheter to form the electrodes thereon, characterised in that the electrically conductive elements are formed from a single sheet of electrically conductive foil material with the electrically conductive elements spaced apart from each other and joined by connecting portions formed by portions of the single sheet between the electrically conductive elements , each electrically conductive element being of length sufficient to form a band electrode to extend at least partly around the catheter, the electrically conductive elements are bonded to the catheter with the electrically conductive elements joined by the connecting portions and extending at least partly around the catheter, and each electrically conductive element is severed from at least one of the connecting portions connecting the electrically conductive element to an adjacent one of the electrically conductive elements subsequent to the electrically conductive elements being bonded to the catheter to form the electrodes .
Device for resistive measurement of the moisture of a porous material, comprising: - a block of a material M which is mineral, porous and rigid, of which it is desired to measure the resistance variations as a function of the water content - at least two electrodes and which are rigid and non-oxidising, applied parallel against the said material M, and sealed on to the latter by a binder consisting of a blend of powder of material M and lime, where each electrode and is connected to an electronic unit able to generate a measuring current i and another electronic unit able to measure the resistance between the said electrodes. - a block of a material M which is mineral, porous and rigid, of which it is desired to measure the resistance variations as a function of the water content - at least two electrodes and which are rigid and non-oxidising, applied parallel against the said material M, and sealed on to the latter by a binder consisting of a blend of powder of material M and lime,
A handpiece for intraorifice radiofrequency treatments of the type comprising a substantially tubular body provided with at least one emitter along its outer surface, said at least one emitter being connected by means of adapted cables to at least one power supply unit provided with devices for the control and management of the electrical values transmitted to said at least one emitter , characterized in that it comprises, distributed on the outer surface of the tubular body made of dielectric material, at least two emitters which comprise at least one electrode surmounted by a layer of insulating material constituted by the dielectric element of a ceramic capacitor, one surface of said element comprising a cladding made of a material with high electrical conductivity which is electrically connected to said electrode in order to deliver a radiofrequency treatment of the capacitive type.
A method for managing an international mobile subscriber identity, IMSI, status of a terminal device, comprising: receiving (S301), by a core network node, a first activation request message sent by a first terminal device, wherein the first activation request message carries an IMSI of a second terminal device and an IMSI status indication of the second terminal device, the first activation request message is used to request the core network node to set the IMSI of the second terminal device to a deactivated state, and the IMSI status indication is used to indicate that an IMSI status is the deactivated state; setting (S302), by the core network node based on subscription information of the second terminal device, the IMSI of the second terminal device to the deactivated state, and updating the IMSI status indication of the second terminal device; and sending (S303), by the core network node, an activation response message to the first terminal device, wherein the activation response message carries the IMSI of the second terminal device and an updated IMSI status indication of the second terminal device. receiving (S301), by a core network node, a first activation request message sent by a first terminal device, wherein the first activation request message carries an IMSI of a second terminal device and an IMSI status indication of the second terminal device, the first activation request message is used to request the core network node to set the IMSI of the second terminal device to a deactivated state, and the IMSI status indication is used to indicate that an IMSI status is the deactivated state; setting (S302), by the core network node based on subscription information of the second terminal device, the IMSI of the second terminal device to the deactivated state, and updating the IMSI status indication of the second terminal device; and sending (S303), by the core network node, an activation response message to the first terminal device, wherein the activation response message carries the IMSI of the second terminal device and an updated IMSI status indication of the second terminal device.
Bioreactor for production and harvesting of microalgae, comprising a reactor basin in the form of a tank arranged to receive CO 2 and water, as well as algae, and which is equipped with at least one outlet for harvested algal biomass, characterised in that the reactor basin comprises a horizontally rotating beam equipped with one or more tiltable mixing grates and harvesting grates , wherein the harvesting grates are formed as a fine grate or grid to let through water but not the algal mass, and comprise a lower part that scrapes against the bottom of the reactor basin to bring along the mass of algae, and the mixing grates are formed as a coarse grid to let through water and the algal mass and are arranged to mix or stir the mass of algae in the reactor basin .