mhurhangee/ep-ind-claims huggingface dataset:
Perforation block for a perforation unit for a perforation apparatus to selectively die-cut at least a support element, preferably a continuous strip, even more preferably provided with cells, comprising: - a kit of blades connected to said perforation block and comprising at least a first blade with a first cutting edge and provided with at least a through slit, and at least a second blade with a second cutting edge configured to be inserted at least in said through slit of said first blade, so that said first cutting edge and said second cutting edge are coplanar, - at least a first slit and at least a second slit perpendicular to said first slit, into which said first blade and said second blade are respectively inserted, wherein each of said through slits has both an upper part having a cross section equal to that of each of the corresponding longitudinal slits and also a lower characterised in that said lower part converges symmetrically toward the first cutting edge, with the same angle at the apex (α). - a kit of blades connected to said perforation block and comprising at least a first blade with a first cutting edge and provided with at least a through slit, and at least a second blade with a second cutting edge configured to be inserted at least in said through slit of said first blade, so that said first cutting edge and said second cutting edge are coplanar, - at least a first slit and at least a second slit perpendicular to said first slit, into which said first blade and said second blade are respectively inserted, wherein each of said through slits has both an upper part having a cross section equal to that of each of the corresponding longitudinal slits and also a lower characterised in that said lower part converges symmetrically toward the first cutting edge, with the same angle at the apex (α).
An I- OnuI or I- OnuI homologue, in which mutations have been introduced to obtain a variant that cleaves a target nucleic acid sequence within the T cell receptor alpha constant gene (TRAC); said I- OnuI or I- OnuI homologue variant comprising at least 10 amino acid substitutions in positions selected from the group consisting of: 19, 24, 26, 28, 30, 32, 34, 35, 36, 37, 38, 40, 42, 44, 46, 48, 68, 70, 72, 75, 76 77, 78, 80, 82, 138, 159, 168, 178, 180, 182, 184, 186, 188, 189, 190, 191, 192, 193, 195, 197, 199, 201, 203, 207, 223, 225, 227, 229, 231, 232, 234, 236, 238, 240, in reference to SEQ ID NO: 2, and having at least 70% sequence identity with the protein sequence of SEQ ID NO: 6, SEQ ID NO: 8 or SEQ ID NO: 10.
Machine tool comprising: - a workpiece table, - a machining head, - movement means (18, 20, 22, 24, 26) which are adapted to move the machining head above the workpiece table, said machining head comprising a spindle, and - a sensing and positioning device adapted to be attached to said spindle, said sensing and positioning device comprising: - a fixing element with at least three sensing elements (40A, 40B, 40C) connected operationally to a programmable control unit of the machine tool; - said sensing and positioning device is configured to be used with a machining tool mounted on the spindle, initially and during execution of a machining operation by the machining tool, characterised in that - said programmable control unit is configured to compare continuously the surface sensed by the sensing and positioning device with a theoretical machining surface. - a workpiece table, - a machining head, - movement means (18, 20, 22, 24, 26) which are adapted to move the machining head above the workpiece table, said machining head comprising a spindle, and - a sensing and positioning device adapted to be attached to said spindle, said sensing and positioning device comprising: - a fixing element with at least three sensing elements (40A, 40B, 40C) connected operationally to a programmable control unit of the machine tool; - said sensing and positioning device is configured to be used with a machining tool mounted on the spindle, initially and during execution of a machining operation by the machining tool, characterised in that - said programmable control unit is configured to compare continuously the surface sensed by the sensing and positioning device with a theoretical machining surface. - a fixing element with at least three sensing elements (40A, 40B, 40C) connected operationally to a programmable control unit of the machine tool; - said sensing and positioning device is configured to be used with a machining tool mounted on the spindle, initially and during execution of a machining operation by the machining tool, characterised in that - said programmable control unit is configured to compare continuously the surface sensed by the sensing and positioning device with a theoretical machining surface.
A medical device configured to perform an endovascular therapy, the device comprising: an elongate manipulation member comprising a distal end portion; and an expandable member comprising a proximal end portion and a mesh, the proximal end portion being coupled with the distal end portion of the elongate manipulation member, the mesh having a plurality of cells in a tubular configuration and being compressible to a collapsed configuration for delivery to an endovascular treatment site through a catheter and being self-expandable from the collapsed configuration to an expanded configuration; characterized in that the mesh comprises a structural cathodic metal exposed along an outward-facing surface and an anodic metal covering substantially all of an inward-facing surface of the structural cathodic metal, and the anodic metal and the cathodic metal each forming a fraction of a total surface area of the mesh. an elongate manipulation member comprising a distal end portion; and an expandable member comprising a proximal end portion and a mesh, the proximal end portion being coupled with the distal end portion of the elongate manipulation member, the mesh having a plurality of cells in a tubular configuration and being compressible to a collapsed configuration for delivery to an endovascular treatment site through a catheter and being self-expandable from the collapsed configuration to an expanded configuration; characterized in that the mesh comprises a structural cathodic metal exposed along an outward-facing surface and an anodic metal covering substantially all of an inward-facing surface of the structural cathodic metal, and the anodic metal and the cathodic metal each forming a fraction of a total surface area of the mesh.
A method for processing a 3-dimensional content at a broadcast receiver, the method comprising: decoding the 3D content including 3D images which include left images and right images; generating a control signal for controlling a 3D glasses, wherein the control signal includes sync information including a left lens open reference field specifying a time reference for opening a left lens of the 3D glasses for watching the left image, and a left lens close reference field specifying a time reference for closing the left lens of the 3D glasses; transmitting the generated control signal to the 3D glasses; and displaying the decoded 3D content, wherein the displaying the decoded 3D content comprises displaying the left images and the right images alternately, wherein the control signal further includes a parameter change field specifying whether a change has been made to the sync information since last time the sync information was received. decoding the 3D content including 3D images which include left images and right images; generating a control signal for controlling a 3D glasses, wherein the control signal includes sync information including a left lens open reference field specifying a time reference for opening a left lens of the 3D glasses for watching the left image, and a left lens close reference field specifying a time reference for closing the left lens of the 3D glasses; transmitting the generated control signal to the 3D glasses; and displaying the decoded 3D content, wherein the displaying the decoded 3D content comprises displaying the left images and the right images alternately, wherein the control signal further includes a parameter change field specifying whether a change has been made to the sync information since last time the sync information was received.
Cleaning device for cleaning an underwater ground-working apparatus, having an enclosing body which extends substantially from a bottom of a body of water to above a water surface and encloses an inner space, along which the ground-working apparatus can be moved, and characterised in that the cleaning device encloses a separating device, through which in the enclosing body an upper portion of the inner space can be separated off to form a cleaning area, in which the ground-working apparatus can be received and dirt removed from it.
A method of manufacturing a wing-box, the method comprising: arranging a first set of components on an outer face of a first inner mould line tool; arranging a second set of components on an outer face of a second inner mould line tool; fitting spacer plates between the inner mould line tools, with the spacer plates engaging inner faces of the inner mould line tools so as to maintain a desired spacing between the inner mould line tools, wherein each spacer plate has an upper face and a lower face opposite to the upper face, and each spacer plate is fitted with the upper and lower faces of the spacer plate engaging the inner faces of the inner mould line tools; forming a layer around the inner mould line tools; fitting outer mould line tools (126, 127) on opposite sides of the inner mould line tools; moulding the wing-box by compressing the layer and the components between the inner and outer mould line tools; removing the spacer plates; disengaging the inner mould line tools from the wing-box after the spacer plates have been removed; and removing the inner mould line tools from the wing-box. arranging a first set of components on an outer face of a first inner mould line tool; arranging a second set of components on an outer face of a second inner mould line tool; fitting spacer plates between the inner mould line tools, with the spacer plates engaging inner faces of the inner mould line tools so as to maintain a desired spacing between the inner mould line tools, wherein each spacer plate has an upper face and a lower face opposite to the upper face, and each spacer plate is fitted with the upper and lower faces of the spacer plate engaging the inner faces of the inner mould line tools; forming a layer around the inner mould line tools; fitting outer mould line tools (126, 127) on opposite sides of the inner mould line tools; moulding the wing-box by compressing the layer and the components between the inner and outer mould line tools; removing the spacer plates; disengaging the inner mould line tools from the wing-box after the spacer plates have been removed; and removing the inner mould line tools from the wing-box.
A composition for use in reducing inflammation in an infant, toddler, or child, the composition comprising lacto-N- neotetraose in a concentration of from 001 mg/mL to 0.2 mg/mL.
Disruption device (100; 300; 400) adapted for fixing to an aerial vehicle, which disruption device is adapted to disrupt at least one radio path between at least one receiving unit of an unmanned flying body and at least one transmitting unit provided for controlling the flight path of the unmanned flying body; and wherein the disruption device (100; 300 or 400) is adapted Z r to switch on at the start of a take-off operation and/or of a landing operation of the aerial vehicle, wherein the take-off operation and/or the landing operation is initiated manually by a pilot of the aerial vehicle and/or automatically.
A tab terminal for an electrolytic capacitor comprising: a lead wire having a lead-free tin-plated surface; and an aluminum core wire that has a press flattened portion and is welded to the lead wire, characterized in that a portion in the vicinity of a weld zone between the lead wire and the aluminum core wire is covered with an ultraviolet cured resin, wherein the ultraviolet cured resin is formed by irradiating an ultraviolet curable resin composition composed mainly of a urethane acrylate and a (meth)acrylate and a solvent containing an inorganic acid salt.
A passive milk collection device for storing milk comprising: (i) a flexible inner member including a nipple hole for receiving a nipple, and in which, in use, part of the rear surface of the inner member is configured to securely seal onto a user's breast; and (ii) a removable rigid outer member configured to attach onto the front surface of the inner member and to provide a free air space around the nipple area for storing milk from the nipple, and in which, the circumference of the outer edge of the rear surface of the flexible inner member is substantially larger than the circumference of the rigid outer member, wherein the device is configured for decanting collected milk via the nipple hole. (i) a flexible inner member including a nipple hole for receiving a nipple, and in which, in use, part of the rear surface of the inner member is configured to securely seal onto a user's breast; and (ii) a removable rigid outer member configured to attach onto the front surface of the inner member and to provide a free air space around the nipple area for storing milk from the nipple, and in which, the circumference of the outer edge of the rear surface of the flexible inner member is substantially larger than the circumference of the rigid outer member,
A controlled mechanical ventilation device with directable nozzles, of the type formed by a controlled mechanical ventilation unit provided with a structural body and a plurality of air intake openings and a discharge outlet, with respect to which respective nozzles (5 and 6) are arranged for the connection of tubular ducts for circulating the air through the ventilation installation, characterized in that the controlled mechanical ventilation unit is provided with the discharge outlet having two openings directed towards one side and towards an upper part of the structural body, respectively, and the controlled mechanical ventilation unit determines in a lower part a seat around the intake openings of the structural body in an inclined position and the nozzles of the intake openings have a coupling formation defined with an inclined face, such that, by means of the combination of the inclinations of the coupling formation and of the seat the nozzles can be placed in a vertical orientation or in a horizontal orientation.
The use of a combination of one or more secondary paraffinsulfonates having 8 to 22 carbon atoms and amylase for increasing the cleaning capacity of liquid washing compositions with respect to starch-containing stains on textiles.
A quantum dot population comprising a plurality of quantum dots, wherein the quantum dots are configured to emit blue light and each of the quantum dots comprises a core comprising a first semiconductor nanocrystal including a zinc chalcogenide, and a semiconductor nanocrystal shell disposed on a surface of the core, the shell comprising zinc, selenium, and sulfur, wherein the zinc chalcogenide comprises zinc, selenium and tellurium, and wherein the core and the semiconductor nanocrystal shell each comprises a zinc blende crystal structure, wherein the quantum dot does not comprise cadmium, and wherein in an X-ray diffraction spectrum of the quantum dot, a ratio of a defect peak area with respect to a peak area of a zinc blende crystal structure is less than 0.8:1, and wherein an average particle size of the plurality of quantum dots is greater than or equal to 5 nanometers and less than or equal to 18 nanometers. and wherein the core and the semiconductor nanocrystal shell each comprises a zinc blende crystal structure, wherein the quantum dot does not comprise cadmium, and wherein in an X-ray diffraction spectrum of the quantum dot, a ratio of a defect peak area with respect to a peak area of a zinc blende crystal structure is less than 0.8:1, and wherein an average particle size of the plurality of quantum dots is greater than or equal to 5 nanometers and less than or equal to 18 nanometers.
A pharmaceutical composition for application to the eye comprising at least one water-miscible biocompatible solvent and a lipophilic pharmaceutical substance dissolved therein, wherein the pharmaceutical composition forms a nanosuspension upon contact with an aqueous eye fluid, the lipophilic pharmaceutical substance therein being present in the form of nanoparticles in suspension, wherein the water-miscible biocompatible solvent is selected from the group consisting of polyethylene glycol, glycerol, propylene glycol, dimethylsulfoxid and N-vinylpyrrolidone and a mixture thereof.
Method for an oscillating movement of a continuous casting mold, with which a device is provided, which is having at least one motor-driven eccentric and a transmission means acting on the mold, whereby the eccentric is driven by a rotary drive motor with a regularly alternating direction of rotation for the producing of the stroke and can be moved in a partially reversing movement control along a shaped curve (36, 37), characterized in that the eccentric is pivoted about the extreme position along the shaped curve (36, 37) around the lower or the upper dead position (36', 37').
A continuous analyte sensor configured for in vivo use, the continuous analyte sensor comprising: an elongated core; wherein the elongated core comprises an elongated conductive core having a Young's modulus of less than one hundred forty-seven GPa; a layer of conductive material covering a portion of the elongated conductive core; a working electrode disposed on the elongated core; and a membrane covering at least a portion of the working electrode, wherein the membrane comprises an enzyme layer, and wherein a portion of the continuous analyte sensor is configured to extend from a sensor electronics housing and to have a buckling force of less than 0.25 Newtons. an elongated core; wherein the elongated core comprises an elongated conductive core having a Young's modulus of less than one hundred forty-seven GPa; a layer of conductive material covering a portion of the elongated conductive core; a working electrode disposed on the elongated core; and a membrane covering at least a portion of the working electrode, wherein the membrane comprises an enzyme layer, and wherein a portion of the continuous analyte sensor is configured to extend from a sensor electronics housing and to have a buckling force of less than 0.25 Newtons.
A planar extended drain transistor comprising: a substrate; a control gate surrounded by a gate insulation layer; a drain region; a source region; a channel region; and a drift region, wherein the drain region, the channel region, and the drift region are arranged on or in the substrate, wherein the drift region is arranged between the channel region and the drain region; wherein the control gate is at least partially buried into the channel region to obtain a buried portion (102, 202, 402) of the control gate, wherein the control gate is partially formed in at least part of the source region and underneath at least part of the source region such that the buried portion (102, 202, 402) is embedded in the channel region and the buried portion (102, 202, 402) extends in the direction of the drain region; wherein the drift region comprises a doping material density which is lower than the doping material density of the drain region;and wherein the source region is arranged between the channel region and a control gate contact. a substrate; a control gate surrounded by a gate insulation layer; a drain region; a source region; a channel region; and a drift region, wherein the drain region, the channel region, and the drift region are arranged on or in the substrate, wherein the drift region is arranged between the channel region and the drain region; wherein the control gate is at least partially buried into the channel region to obtain a buried portion (102, 202, 402) of the control gate, wherein the control gate is partially formed in at least part of the source region and underneath at least part of the source region such that the buried portion (102, 202, 402) is embedded in the channel region and the buried portion (102, 202, 402) extends in the direction of the drain region; wherein the drift region comprises a doping material density which is lower than the doping material density of the drain region;and wherein the source region is arranged between the channel region and a control gate contact.
A vision testing device, comprising: a planar display device (12L, 12R) that displays a visual target for a testee who receives a vision test; and a display optical system (11L, 11R) provided on an optical axis between an eyeball position where an eyeball of the testee is placed and a display surface of the planar display device (12L, 12R), wherein the display optical system (11L, 11R) is configured by a f - θ optical system in which a relationship between an incident angle of a principal ray when the testee views a visual target from the eyeball position through the display optical system (11L, 11R) and an image height on a display surface of the planar display device (12L, 12R) is proportional. a planar display device (12L, 12R) that displays a visual target for a testee who receives a vision test; and a display optical system (11L, 11R) provided on an optical axis between an eyeball position where an eyeball of the testee is placed and a display surface of the planar display device (12L, 12R), wherein the display optical system (11L, 11R) is configured by a f - θ optical system in which a relationship between an incident angle of a principal ray when the testee views a visual target from the eyeball position through the display optical system (11L, 11R) and an image height on a display surface of the planar display device (12L, 12R) is proportional.
A method for the production of cement utilising by-products generated by a biorefinery unit comprising the following steps Step 1: Mechanical grinding of a feedstock comprising one or more CO 2 sequestering compounds; Step 2: Heating the ground feed stock resulting from step 1 to a temperature of 200 to 1500°C, preferably 200 to 750 °C, more preferably 200 to 600 ° C. Step 3: Functionalizing the dry plain cement resulting from step 2 by addition of one or more biological modifiers selected from the group of lignin, furfural, cellulose, phospholipids, exopolysaccharides and microbial cell residues. Step 4: Carbonation of the material resulting from step 3 under addition of gaseous CO 2 Step 5: Drying of the mineral carbonates resulting from step 4 wherein the energy used for step 1 and/or the heat used for step 2 is provided by the biorefinery unit or by a power plant utilizing a product provided by the biorefinery unit and wherein the CO2 used for step 4 is provided by the biorefinery unit and/or by ambient air. Step 1: Mechanical grinding of a feedstock comprising one or more CO 2 sequestering compounds; Step 2: Heating the ground feed stock resulting from step 1 to a temperature of 200 to 1500°C, preferably 200 to 750 °C, more preferably 200 to 600 ° C. Step 3: Functionalizing the dry plain cement resulting from step 2 by addition of one or more biological modifiers selected from the group of lignin, furfural, cellulose, phospholipids, exopolysaccharides and microbial cell residues. Step 4: Carbonation of the material resulting from step 3 under addition of gaseous CO 2 Step 5: Drying of the mineral carbonates resulting from step 4