mhurhangee/ep-ind-claims huggingface dataset:
A lubricating composition comprising: (a) 0.1 to 15 wt % of a polymer with radial or star architecture, obtained from RAFT or ATRP polymerisation processes, wherein the polymer has (i) a weight average molecular weight of 100,000 to 500,000, and (ii) a shear stability index of 10 to 60; wherein the polymer comprises a polymethacrylate, or mixtures thereof, and wherein the polymethacrylate is derived from a monomer composition consisting of: (i) 50 wt % to 100 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 12 to 15 carbon atoms; (ii) 0 wt % to 40 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 1 to 9 carbon atoms; and (iii) 0 wt % to 10 wt % of a nitrogen containing monomer; (b) 0.01 wt% to 20 wt% of a phosphorus-containing acid, salt, or ester; (c) 0.01 wt% to 20 wt% of a dispersant; and (d) an oil of lubricating viscosity. (a) 0.1 to 15 wt % of a polymer with radial or star architecture, obtained from RAFT or ATRP polymerisation processes, wherein the polymer has (i) a weight average molecular weight of 100,000 to 500,000, and (ii) a shear stability index of 10 to 60; wherein the polymer comprises a polymethacrylate, or mixtures thereof, and wherein the polymethacrylate is derived from a monomer composition consisting of: (i) 50 wt % to 100 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 12 to 15 carbon atoms; (ii) 0 wt % to 40 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 1 to 9 carbon atoms; and (iii) 0 wt % to 10 wt % of a nitrogen containing monomer; (i) 50 wt % to 100 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 12 to 15 carbon atoms; (ii) 0 wt % to 40 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 1 to 9 carbon atoms; and (iii) 0 wt % to 10 wt % of a nitrogen containing monomer; (b) 0.01 wt% to 20 wt% of a phosphorus-containing acid, salt, or ester; (c) 0.01 wt% to 20 wt% of a dispersant; and (d) an oil of lubricating viscosity.
A zinc monoglycerolate in the form of agglomerates of crystallites, wherein the crystallite size based on the average coherence domain length is less than 30nm in the <100> direction (size along the <100> zone axis), and less than 60nm in the <011> direction (size along the <100> zone axis), as determined by the Scherrer equation via powder X-ray diffraction; and the aspect ratio computed by <100>/<011> coherent domain lengths is less than 0.65, preferably less than 0.56.
A power electronics unit for an electric drive train, wherein the power electronics unit has: an electrically conductive carrier element, a power semiconductor module, which is arranged on the carrier element and is designed to convert a direct current into a three-phase alternating current, and a current sensor used to determine the alternating current, which is integrated in such a way that it forms a main module with the carrier element and the power semiconductor module, characterised in that the carrier element is implemented as a lead frame. an electrically conductive carrier element, a power semiconductor module, which is arranged on the carrier element and is designed to convert a direct current into a three-phase alternating current, and a current sensor used to determine the alternating current, which is integrated in such a way that it forms a main module with the carrier element and the power semiconductor module, characterised in that the carrier element is implemented as a lead frame.
Use of a water treatment system comprising a filter bed comprising layers of inert particulate material, wherein: the first, top layer of particulate material comprises particles with a density in the range of 1.25 to 1.55 g/cc and within the size range of 1.6 to 2.5 mm; the second layer of particulate material comprises particles with a density in the range of 2.35 to 2.95 g/cc and within the size range of 0.5 to 0.85 mm; the third layer of particulate material comprises particles with a density in the range of 3.5 to 4.3 g/cc and within the size range of 0.2 to 0.6 mm; and the fourth, bottom layer of particulate material comprises particles with a density in the range of 4.0 to 6.0 g/cc and within the size range of 0.2 to 0.5 mm; for pre-treating water to be subjected to a process comprising reverse osmosis. the first, top layer of particulate material comprises particles with a density in the range of 1.25 to 1.55 g/cc and within the size range of 1.6 to 2.5 mm; the second layer of particulate material comprises particles with a density in the range of 2.35 to 2.95 g/cc and within the size range of 0.5 to 0.85 mm; the third layer of particulate material comprises particles with a density in the range of 3.5 to 4.3 g/cc and within the size range of 0.2 to 0.6 mm; and the fourth, bottom layer of particulate material comprises particles with a density in the range of 4.0 to 6.0 g/cc and within the size range of 0.2 to 0.5 mm; for pre-treating water to be subjected to a process comprising reverse osmosis.
An analytical device comprising: an optical waveguide comprising an optical core and a cladding; a metallic layer disposed on the surface of the cladding; and a plurality of nanometer-scale apertures disposed in the metallic layer, such that optical energy passing through the optical core of the optical waveguide illuminates the plurality of apertures by an evanescent field that emanates from the waveguide; wherein the optical core has a thickness, a width, and a cross-sectional area, and wherein the cross-sectional area of the waveguide core is modulated so as to be decreased at locations where the optical waveguide illuminates the apertures. an optical waveguide comprising an optical core and a cladding; a metallic layer disposed on the surface of the cladding; and a plurality of nanometer-scale apertures disposed in the metallic layer, such that optical energy passing through the optical core of the optical waveguide illuminates the plurality of apertures by an evanescent field that emanates from the waveguide; wherein the optical core has a thickness, a width, and a cross-sectional area, and wherein the cross-sectional area of the waveguide core is modulated so as to be decreased at locations where the optical waveguide illuminates the apertures.
A Controller Area Network, CAN, transceiver (120, 520) comprising: a security module connected between a CAN bus interface of the CAN transceiver (120, 520) and a microcontroller communications interface of the CAN transceiver (120, 520), wherein the security module is configured to perform a security function on data traffic received from the CAN bus interface or from a Serial Peripheral Interface, SPI, interface of the microcontroller communications interface; a shield device (456, 556) connected between the CAN bus interface and the microcontroller communications interface, wherein the shield device (456, 556) is configured to block CAN Flexible Data-rate, FD, traffic received from the CAN bus interface from reaching the microcontroller communications interface; and an FD protocol controller configured to direct CAN Flexible Data-rate, FD, traffic received from the CAN bus interface to the security module. a security module connected between a CAN bus interface of the CAN transceiver (120, 520) and a microcontroller communications interface of the CAN transceiver (120, 520), wherein the security module is configured to perform a security function on data traffic received from the CAN bus interface or from a Serial Peripheral Interface, SPI, interface of the microcontroller communications interface; a shield device (456, 556) connected between the CAN bus interface and the microcontroller communications interface, wherein the shield device (456, 556) is configured to block CAN Flexible Data-rate, FD, traffic received from the CAN bus interface from reaching the microcontroller communications interface; and an FD protocol controller configured to direct CAN Flexible Data-rate, FD, traffic received from the CAN bus interface to the security module.
Method for automatically determining insulation stripping parameters (CD, WB) for stripping insulation from a cable comprising a conductor, characterized by the following steps: a) making an incision in an insulation up to a cutting depth of a cable extending along a longitudinal axis (x) with at least one insulation stripping blade (4, 4'), wherein as the cutting depth an initial cutting depth is first chosen, at which it is ensured that the at least one insulation stripping blade (4, 4') touches the conductor, b) removing the incised insulation by moving the at least one insulation stripping blade (4, 4') in a longitudinal direction (x) in relation to the cable, wherein after the incision, at least for a possible second method cycle the at least one insulation stripping blade (4, 4') is withdrawn from the cable by a reset distance relative to the incision depth, c) using a detection device, determining whether the at least one insulation stripping blade (4, 4') has touched the conductor during step a) and step b), d) repetition of the steps a) to c), wherein the cutting depth is continually reduced by a cutting depth adjustment value until conductor contact is no longer detected, as a result of which the insulation removal cutting depth is obtained in a parameter determination phase and that on contact with the conductor the steps a) to c) plus the reset step are repeated, wherein in the parameter determination phase the reset distance is increased between each step sequence until conductor contact is no longer detected during the stripping operation, as a result of which the insulation removal reset distance is obtained. a) making an incision in an insulation up to a cutting depth of a cable extending along a longitudinal axis (x) with at least one insulation stripping blade (4, 4'), wherein as the cutting depth an initial cutting depth is first chosen, at which it is ensured that the at least one insulation stripping blade (4, 4') touches the conductor, b) removing the incised insulation by moving the at least one insulation stripping blade (4, 4') in a longitudinal direction (x) in relation to the cable, wherein after the incision, at least for a possible second method cycle the at least one insulation stripping blade (4, 4') is withdrawn from the cable by a reset distance relative to the incision depth, c) using a detection device, determining whether the at least one insulation stripping blade (4, 4') has touched the conductor during step a) and step b), d) repetition of the steps a) to c), wherein the cutting depth is continually reduced by a cutting depth adjustment value until conductor contact is no longer detected, as a result of which the insulation removal cutting depth is obtained in a parameter determination phase and that on contact with the conductor the steps a) to c) plus the reset step are repeated, wherein in the parameter determination phase the reset distance is increased between each step sequence until conductor contact is no longer detected during the stripping operation, as a result of which the insulation removal reset distance is obtained.
Method of operating an inkjet printing machine, the inkjet printing machine comprising a reservoir for ink, a plurality of printing heads for emitting ink drops, and two ink lines, namely a supply line and a return line, between the reservoir and the printing heads, wherein the ink pressure in at least one of the two ink lines is measured by a pressure sensor (20, 21), wherein the inkjet printing machine is temporarily operated in a printing mode (M1, 41) and temporarily operated in a non-printing mode (M2, 42), and wherein in the non-printing mode, the pressure p1 in the supply line is measured by a first pressure sensor and the pressure p2 in the return line is measured by a second pressure sensor, characterized i) in that the temporary operation of the machine in the non-printing mode (M2, 42) and the measurement of the pressures p1 and p2 in the non-printing mode (M2, 42) are used to check whether the two pressure sensors (20, 21) work without fault, ii) in that once the measures in i) have ensured that the two pressure sensors (20, 21) measure without fault, the meniscus pressure at the printing heads is set or adjusted correctly, and iii) in that, if the measures taken in step ii) do not result in a better printing result, defective printing heads are exchanged. i) in that the temporary operation of the machine in the non-printing mode (M2, 42) and the measurement of the pressures p1 and p2 in the non-printing mode (M2, 42) are used to check whether the two pressure sensors (20, 21) work without fault, ii) in that once the measures in i) have ensured that the two pressure sensors (20, 21) measure without fault, the meniscus pressure at the printing heads is set or adjusted correctly, and iii) in that, if the measures taken in step ii) do not result in a better printing result, defective printing heads are exchanged.
A method of responding to a condition in an exhaust ventilation system including an exhaust hood, the method comprising: regulating a flow of exhaust through a ventilation component responsively to a first sensor that includes a radiant temperature sensor or an air temperature sensor and is adapted to detect a fume load from a cooking appliance; low pass filtering the signal from the first sensor; and detecting a fire condition responsively to said first sensor and regulating a fire suppression mechanism responsively to the detecting; the regulating of the flow of exhaust and the detecting being performed by a controller configured to receive signals from the first sensor, wherein said regulating of the fire suppression mechanism is responsive to both the signal from the first sensor and a result of the low pass filtering. regulating a flow of exhaust through a ventilation component responsively to a first sensor that includes a radiant temperature sensor or an air temperature sensor and is adapted to detect a fume load from a cooking appliance; low pass filtering the signal from the first sensor; and detecting a fire condition responsively to said first sensor and regulating a fire suppression mechanism responsively to the detecting; the regulating of the flow of exhaust and the detecting being performed by a controller configured to receive signals from the first sensor, wherein said regulating of the fire suppression mechanism is responsive to both the signal from the first sensor and a result of the low pass filtering.
A method of printing on cigarette tipping paper, the method comprising printing onto the cigarette tipping paper an ink or coating composition comprising: a) 3-35 wt% hollow polymeric microspheres, based on the total weight of the composition, wherein the microspheres have an outside diameter of 0.2 to 1.5 microns, said microspheres comprising one or more polymers surrounding a void, wherein one or more of the polymers comprise acrylate monomer units, styrene monomer units, or both acrylate and styrene monomer units; b) 2-30 wt% one or more resins, based on the total weight of the composition; and c) one or more solvents; wherein the ink or coating composition contains no titanium dioxide and less than 2 wt% water, based on the total weight of the composition. a) 3-35 wt% hollow polymeric microspheres, based on the total weight of the composition, wherein the microspheres have an outside diameter of 0.2 to 1.5 microns, said microspheres comprising one or more polymers surrounding a void, wherein one or more of the polymers comprise acrylate monomer units, styrene monomer units, or both acrylate and styrene monomer units; b) 2-30 wt% one or more resins, based on the total weight of the composition; and c) one or more solvents;
Method for manufacturing a hybrid structural part of a motor vehicle comprising the steps during which: - step a: a sheet of metal material is shaped to form a metal part, - step b: fastening of one or more reinforcement strips formed of continuous fibers coated in a polymer matrix with a composite sheet formed of fibers impregnated in a thermoplastic polymer matrix, to create a complex reinforcement sheet, - step c: The metal part and the complex reinforcement sheet are placed in a mold, arranging the complex reinforcement sheet so that the composite sheet is arranged to come into contact with one of the faces (23, 24) of the metal part. - step d: the mold is closed to conform by stamping and adhere the complex reinforcement sheet on said face of the metal part, Characterized in that the method is such that it consists in using, during steps c and d, needles judiciously arranged on a gripping and loading robot as well as in the mold, and which pass through the layers formed by the reinforcement strips 3 and the composite sheet 4. - step a: a sheet of metal material is shaped to form a metal part, - step b: fastening of one or more reinforcement strips formed of continuous fibers coated in a polymer matrix with a composite sheet formed of fibers impregnated in a thermoplastic polymer matrix, to create a complex reinforcement sheet, - step c: The metal part and the complex reinforcement sheet are placed in a mold, arranging the complex reinforcement sheet so that the composite sheet is arranged to come into contact with one of the faces (23, 24) of the metal part. - step d: the mold is closed to conform by stamping and adhere the complex reinforcement sheet on said face of the metal part,
A tunneling device for creating a subcutaneous path for placement of a catheter in a patient, comprising: an elongate shaft (24; 24A; 24B; 24C), said shaft (24; 24A; 24B; 24C) defining an interior lumen; a handle (22; 22B; 22C) secured to said shaft (24; 24A; 24B; 24C), said handle (22; 22B; 22C) configured to permit a user of said device to manually manipulate said device; at least one fluid exit opening extending from said interior lumen to an external surface of said shaft; an inlet to said interior lumen to permit liquid to be introduced into said interior lumen and administered to the patient through said at least one fluid exit opening; and a sheath (40; 40B; 40C) slidably positioned on said shaft (24; 24A; 24B; 24C); characterised in that said shaft (24; 24A; 24B; 24C) has a rounded distal end; in that said at least one fluid exit opening is positioned along the length of the shaft (24; 24A; 24B; 24C); and in that said sheath (40; 40B; 40C) does not cover said at least one fluid exit opening when said sheath (40; 40B; 40C) is positioned on said shaft (24; 24A; 24B; 24C), wherein said fluid exit opening or openings of the device are located near but not in the rounded distal end of the shaft (24; 24A; 24B; 24C). an elongate shaft (24; 24A; 24B; 24C), said shaft (24; 24A; 24B; 24C) defining an interior lumen; a handle (22; 22B; 22C) secured to said shaft (24; 24A; 24B; 24C), said handle (22; 22B; 22C) configured to permit a user of said device to manually manipulate said device; at least one fluid exit opening extending from said interior lumen to an external surface of said shaft; an inlet to said interior lumen to permit liquid to be introduced into said interior lumen and administered to the patient through said at least one fluid exit opening; and a sheath (40; 40B; 40C) slidably positioned on said shaft (24; 24A; 24B; 24C);
A breathing device for increasing and maintaining the level of CO 2 in inhaled air, comprising - a mouthpiece forming a breathing channel to form a connection between a first end and a second end of the mouthpiece, the first end being configured for a user breathing into the mouthpiece through a breathing opening, - an at least partly flexible rebreathing air chamber attached to the second end of the mouthpiece, thereby being in fluid connection with the breathing channel, the rebreathing air chamber being formed by at least partly flexible wall section(s), wherein the at least partly flexible rebreathing chamber has a first wall section (3, 10, 11, 16, 28) being permeable to air by one or more of a plurality of pores and/or through going openings provided in said wall section allowing fluid communication between the breathing channel and the surrounding atmosphere, and wherein the at least partly flexible rebreathing chamber has a second wall section (4, 18) impermeable to air, and characterized in that the mouth piece comprises one or more through going openings (19, 35) allowing fluid communication between the breathing channel and the surrounding atmosphere. - a mouthpiece forming a breathing channel to form a connection between a first end and a second end of the mouthpiece, the first end being configured for a user breathing into the mouthpiece through a breathing opening, - an at least partly flexible rebreathing air chamber attached to the second end of the mouthpiece, thereby being in fluid connection with the breathing channel, the rebreathing air chamber being formed by at least partly flexible wall section(s), the at least partly flexible rebreathing chamber has a first wall section (3, 10, 11, 16, 28) being permeable to air by one or more of a plurality of pores and/or through going openings provided in said wall section allowing fluid communication between the breathing channel and the surrounding atmosphere, and wherein the at least partly flexible rebreathing chamber has a second wall section (4, 18) impermeable to air, and characterized in that the mouth piece comprises one or more through going openings (19, 35) allowing fluid communication between the breathing channel and the surrounding atmosphere.
A compound of the formula I: or a pharmaceutically acceptable salt thereof, for use in the therapy of a liver cancer in a mammal, characterized by the concurrent or sequential treatment of the mammal with a monoclonal antibody which blocks the binding of PD-L1 and/or PD-L2 to PD-1.
A negative electrode material for a lithium ion secondary battery, the negative electrode material comprising particles in a state in which a plurality of flat graphite particles are aggregated or bonded, wherein, with respect to a volume-based particle diameter measured by a laser diffraction/scattering method, a cumulative value at 9.516 μm is 8.0% or less, a standard deviation of a particle size distribution is 0.22 or less, and a specific surface area is 3.0 m 2 /g or less.