mhurhangee/ep-ind-claims huggingface dataset:
A method of securing an anvil assembly in a first tilted position, the method comprising: receiving a first end (S a) of a suture through a first opening (219 a) in a head assembly of an anvil assembly; receiving the first end of the suture through a bore in an adapter secured to a center rod assembly of the anvil assembly; receiving the first end of the suture back through a second opening (219 b) in the head assembly; characterised by: tying the first end of the suture to a second end (S b) of the suture to form a knot between the first and the second opening (219 a, 219 b) adjacent the head assembly. receiving a first end (S a) of a suture through a first opening (219 a) in a head assembly of an anvil assembly; receiving the first end of the suture through a bore in an adapter secured to a center rod assembly of the anvil assembly; receiving the first end of the suture back through a second opening (219 b) in the head assembly; characterised by: tying the first end of the suture to a second end (S b) of the suture to form a knot between the first and the second opening (219 a, 219 b) adjacent the head assembly.
A prechamber-type gas engine where a torch jet formed by combusting a prechamber fuel in a precombustion chamber is injected to a main combustion chamber through a plurality of injection holes, comprising: the precombustion chamber on which the plurality of injection holes are provided, and a piston which includes a piston top surface portion for defining the main combustion chamber together with a cylinder head and a cylinder liner, wherein the piston top surface portion has a cavity formed concentrically with the piston, the cavity having a bottom portion such that the cavity has a concave curved surface in a cross-sectional view and having a depth which increases as a radial position becomes closer to the center position of the piston from a circumferential edge portion and which is the largest at the center position of the piston, characterised in that the piston top surface portion has a land portion formed in a first region extending between axis line directions of adjacent injection holes among the plurality of injection holes, the first region being positioned at a higher position than a second region extending across the axis line direction, and the bottom portion of the cavity has the concave curved surface such that a part of the bottom portion of the cavity on an axis line through the center of the piston and a tip portion of the land portion has a larger curvature than another part of the bottom portion of the cavity on an axis line through the center of the piston and not through the tip portion. the precombustion chamber on which the plurality of injection holes are provided, and a piston which includes a piston top surface portion for defining the main combustion chamber together with a cylinder head and a cylinder liner, wherein the piston top surface portion has a cavity formed concentrically with the piston, the cavity having a bottom portion such that the cavity has a concave curved surface in a cross-sectional view and having a depth which increases as a radial position becomes closer to the center position of the piston from a circumferential edge portion and which is the largest at the center position of the piston, characterised in that the piston top surface portion has a land portion formed in a first region extending between axis line directions of adjacent injection holes among the plurality of injection holes, the first region being positioned at a higher position than a second region extending across the axis line direction, and the bottom portion of the cavity has the concave curved surface such that a part of the bottom portion of the cavity on an axis line through the center of the piston and a tip portion of the land portion has a larger curvature than another part of the bottom portion of the cavity on an axis line through the center of the piston and not through the tip portion.
A control and data transmission system for transmitting safety-related data via a fieldbus, comprising - a first safe control device for controlling a safety-critical process; - at least one signal unit which is linked to the safety-critical process via I/O channels (60, 62); - a fieldbus; and - a higher-level control device including a bus master for controlling the communication on the field bus and being adapted to control a safety- non-critical process, wherein the first control device and the at least one signal unit each include safety-related devices (44; 54) to ensure fail-safe communication with each other, wherein the higher-level control device, the first control device and the at least one signal unit are connected to each other via the fieldbus and are each connected to the fieldbus in physically separated manner; wherein the first safe control device (40, 44) is adapted to provide first safety-related data to the signal unit to control the safety-critical process, and to provide second safety-related data and transmit the second safety-related data to the higher-level control device; and wherein the higher-level control device (20, 24) is adapted to evaluate, modify and transmit to the at least one signal unit or to the first control device the second safety-related data, in order to be able to centrally control the safety-critical process; characterized in that the first safe control device (40, 44) is adapted to transmit, during error-free operation of the control and data transmission system, defined second safety-related data to the higher-level control device (20, 24); and that the higher-level control device is adapted to selectively modify the defined second safety-related data received during error-free operation in order to ensure that there will be no undesired rapid shutdown of the safety-critical process. - a first safe control device for controlling a safety-critical process; - at least one signal unit which is linked to the safety-critical process via I/O channels (60, 62); - a fieldbus; and - a higher-level control device including a bus master for controlling the communication on the field bus and being adapted to control a safety- non-critical process, wherein the first control device and the at least one signal unit each include safety-related devices (44; 54) to ensure fail-safe communication with each other, wherein the higher-level control device, the first control device and the at least one signal unit are connected to each other via the fieldbus and are each connected to the fieldbus in physically separated manner; wherein the first safe control device (40, 44) is adapted to provide first safety-related data to the signal unit to control the safety-critical process, and to provide second safety-related data and transmit the second safety-related data to the higher-level control device; and
Vehicle seat with a pad of a cushion and / or a backrest, with a massaging device having a plurality of elements to which pressure can be applied, which are integrated into the pad to influence the seat contour and can each be separately controlled, and with a control unit to control the massage device, wherein seat temperature control is possible by means of the control unit in addition to the massage device, characterised in that the individual elements to which pressure can be applied are formed as cells of a massage mat, through which substantially point by point changes of the seat contour can be carried out, and a function element is assigned to the elements which can be operated as selected as a heating device or a cooling device, wherein the function element is arranged in an area of the vehicle seat to which pressure can be applied by means of the assigned element, so that the provision of heat or cold can be coupled locally with the pressure provided by the element so that, as selected, a cold or a warm pressure point can be provided.
A method of cementing in a subterranean formation comprising the steps of: preparing a cement composition comprising hydraulic cement, water and one or more flexible beads; wherein the flexible beads are hollow, have a flexible outer wall comprising one or more elastomeric materials and are filled with a fluid, whereby in response to changes in pressure, temperature, or both the fluid expands or contracts thereby causing the flexible outer wall of the bead to likewise expand or contract; and placing the cement composition into the subterranean formation; and allowing the cement composition to set. preparing a cement composition comprising hydraulic cement, water and one or more flexible beads; wherein the flexible beads are hollow, have a flexible outer wall comprising one or more elastomeric materials and are filled with a fluid, whereby in response to changes in pressure, temperature, or both the fluid expands or contracts thereby causing the flexible outer wall of the bead to likewise expand or contract; and placing the cement composition into the subterranean formation; and allowing the cement composition to set.
An active heat-dissipation system for a base station of a communication system, comprising: a measuring module, configured to detect a temperature sensing signal of the base station; a controller, configured to receive the temperature sensing signal detected by the measuring module to set a preset temperature signal, to generate a difference between the temperature sensing signal and the preset temperature signal and a time derivative of the difference, and to output a control signal according to the difference and the time derivative of the difference based on a control program; and a power module, configured to receive the control signal and output an electrical signal to a heat-dissipation module according to the control signal, such that the heat-dissipation module performs a heat-dissipation process for the base station according to the electrical signal; wherein the control program is an adaptive fuzzy control algorithm for determining the difference between the temperature sensing signal, the preset temperature signal and the time derivative of the difference according to a time-variant temperature measured by the measuring module. a measuring module, configured to detect a temperature sensing signal of the base station; a controller, configured to receive the temperature sensing signal detected by the measuring module to set a preset temperature signal, to generate a difference between the temperature sensing signal and the preset temperature signal and a time derivative of the difference, and to output a control signal according to the difference and the time derivative of the difference based on a control program; and a power module, configured to receive the control signal and output an electrical signal to a heat-dissipation module according to the control signal, such that the heat-dissipation module performs a heat-dissipation process for the base station according to the electrical signal; wherein the control program is an adaptive fuzzy control algorithm for determining the difference between the temperature sensing signal, the preset temperature signal and the time derivative of the difference according to a time-variant temperature measured by the measuring module.
Compound having at least one reactive group of the formula where R 1 is a monovalent organic moiety having from 5 to 30 C atoms; R 2 is a linear or branched alkylene or cycloalkylene moiety having from 2 to 6 C atoms; R 3 is a linear or branched alkylene or cycloalkylene moiety having from 1 to 12 C atoms; R 4 is an alkyl group having from 1 to 6 C atoms; R 5 is an alkyl group having from 1 to 10 C atoms which optionally has one or more ether-oxygens; and x is 0 or 1; characterized in that it is a silane-functional polymer and is free from isocyanate groups, where an NH/NCO ratio of from 1.0 to 1.25 is used for the production of the compound having at least one reactive group of the formula via reaction of at least one polyisocyanate with at least one secondary aminosilane of the formula to give an adduct; or that it is an isocyanatosilane of the formula where R 11 is a divalent hydrocarbon moiety having from 4 to 16 C atoms, and where an NH/NCO ratio of about 0.5 is used for the production of the isocyanatosilane of the formula. R 1 is a monovalent organic moiety having from 5 to 30 C atoms; R 2 is a linear or branched alkylene or cycloalkylene moiety having from 2 to 6 C atoms; R 3 is a linear or branched alkylene or cycloalkylene moiety having from 1 to 12 C atoms; R 4 is an alkyl group having from 1 to 6 C atoms; R 5 is an alkyl group having from 1 to 10 C atoms which optionally has one or more ether-oxygens; and x is 0 or 1; characterized in that it is a silane-functional polymer and is free from isocyanate groups, where an NH/NCO ratio of from 1.0 to 1.25 is used for the production of the compound having at least one reactive group of the formula via reaction of at least one polyisocyanate with at least one secondary aminosilane of the formula to give an adduct; or that it is an isocyanatosilane of the formula where R 11 is a divalent hydrocarbon moiety having from 4 to 16 C atoms, and where an NH/NCO ratio of about 0.5 is used for the production of the isocyanatosilane of the formula. to give an adduct; or that it is an isocyanatosilane of the formula where R 11 is a divalent hydrocarbon moiety having from 4 to 16 C atoms, and where an NH/NCO ratio of about 0.5 is used for the production of the isocyanatosilane of the formula.
An aluminium alloy forging consisting of: Si: not less than 0.4% by mass but not more than 1.5% by mass, Fe: more than 0.4% by mass but not more than 1.0% by mass, Cu: not more than 0.40% by mass, Mg: not less than 0.8% by mass but not more than 1.3% by mass, and Ti: not less than 0.01% by mass but not more than 0.1% by mass, Zn being restricted to not more than 0.05% by mass, at least one member selected from the group consisting of Mn: not less than 0.01% by mass but not more than 1.0% by mass, Cr: not less than 0.1% by mass but not more than 0.4% by mass, and Zr: not less than 0.05% by mass but not more than 0.2% by mass, the amount of hydrogen being restricted to not more than 0.25 ml/100 g Al, with the remainder being inevitable impurities and Al, and the aluminium alloy forging having an average grain size of 50 μm or lower, a crystallized area ratio of 3% or lower, and an average crystallized grain size of 8 μm or lower. Si: not less than 0.4% by mass but not more than 1.5% by mass, Fe: more than 0.4% by mass but not more than 1.0% by mass, Cu: not more than 0.40% by mass, Mg: not less than 0.8% by mass but not more than 1.3% by mass, and Ti: not less than 0.01% by mass but not more than 0.1% by mass, Zn being restricted to not more than 0.05% by mass, at least one member selected from the group consisting of Mn: not less than 0.01% by mass but not more than 1.0% by mass, Cr: not less than 0.1% by mass but not more than 0.4% by mass, and Zr: not less than 0.05% by mass but not more than 0.2% by mass, the amount of hydrogen being restricted to not more than 0.25 ml/100 g Al, with the remainder being inevitable impurities and Al, and the aluminium alloy forging having an average grain size of 50 μm or lower, a crystallized area ratio of 3% or lower, and an average crystallized grain size of 8 μm or lower.
A computer system (522; 622; 722) having thermal management, the system comprising: a boiler tank (220; 310; 420; 520; 620; 720-1, 720-2; 820) having a length, width, and height; a first computer component (214; 314-1; 514; 614; 714-1, 714-2; 814) on a substrate (218; 322; 418) in the boiler tank; a second computer component (314-2; 514; 614; 714-1, 714-2) on the substrate in the boiler tank; a cooling fluid (204; 304; 808) positioned in the boiler tank and covering the first computer component; and at least one computer component on the substrate that is not covered by a boiler tank, wherein the length and the width of the boiler tank define a tank area that is no more than 50% of a substrate area; wherein the boiler tank has nucleation sites on a surface thereof that promote the nucleation of vapor bubbles of the cooling fluid at or below the boiling temperature of the cooling fluid, wherein the nucleation sites comprise surface etching or boiling enhancement coatings. a first computer component (214; 314-1; 514; 614; 714-1, 714-2; 814) on a substrate (218; 322; 418) in the boiler tank; a second computer component (314-2; 514; 614; 714-1, 714-2) on the substrate in the boiler tank; a cooling fluid (204; 304; 808) positioned in the boiler tank and covering the first computer component; and at least one computer component on the substrate that is not covered by a boiler tank, wherein the length and the width of the boiler tank define a tank area that is no more than 50% of a substrate area; wherein the boiler tank has nucleation sites on a surface thereof that promote the nucleation of vapor bubbles of the cooling fluid at or below the boiling temperature of the cooling fluid, wherein the nucleation sites comprise surface etching or boiling enhancement coatings.
Coriolis measuring sensor of a Coriolis measuring device for measuring a density or a mass flow rate of a medium flowing through a pipeline: at least one measuring tube for guiding the medium; a carrier body for carrying the at least one measuring tube; at least one vibration exciter for generating measuring tube vibrations; at least two vibration sensors for detecting measuring tube vibrations, wherein the vibration sensors each have at least one permanent magnet (14.1) and at least one sensor coil (14.2), and wherein the vibration exciter has in each case at least one permanent magnet (13.1) and in each case at least one excitation coil (13.2) wherein the Coriolis measuring sensor has at least one amplitude sensor configured to detect an oscillation amplitude of the measuring tube oscillations, characterised in that the amplitude sensor has a first coil (15.1) and a second coil (15.2), which are magnetically coupled and in particular aligned coaxially to one another, wherein the coils are configured to be moved relative to each other, in particular along their coil axes (15.3), by measuring tube oscillations, wherein the first coil is configured to be energised with a measuring current, in particular a direct current, and to generate a magnetic field, wherein the second coil is configured to detect the magnetic field and generate an induced measurement voltage. at least one measuring tube for guiding the medium; a carrier body for carrying the at least one measuring tube; at least one vibration exciter for generating measuring tube vibrations; at least two vibration sensors for detecting measuring tube vibrations, wherein the vibration sensors each have at least one permanent magnet (14.1) and at least one sensor coil (14.2), and wherein the vibration exciter has in each case at least one permanent magnet (13.1) and in each case at least one excitation coil (13.2) wherein the Coriolis measuring sensor has at least one amplitude sensor configured to detect an oscillation amplitude of the measuring tube oscillations, characterised in that the amplitude sensor has a first coil (15.1) and a second coil (15.2), which are magnetically coupled and in particular aligned coaxially to one another, wherein the coils are configured to be moved relative to each other, in particular along their coil axes (15.3), by measuring tube oscillations, wherein the first coil is configured to be energised with a measuring current, in particular a direct current, and to generate a magnetic field, wherein the second coil is configured to detect the magnetic field and generate an induced measurement voltage.
Retaining device for absorber tubes which comprise a metal tube and a glass cladding tube, comprising: a tube clamp consisting of two tube clamp halves (42a, b) which comprise a main part that has retaining means, the tube clamp surrounding the metal tube in the mounted state and the retaining means resting against the outside of the metal tube, characterised in that a thermal radiation shield is arranged on the inside of the main part of the tube clamp and has a reflectance of 0.5 to 1.0 over the entire wavelength range of from 0.5 μm to 30 μm, the thermal radiation shield being arranged at a distance from the main part of the tube clamp halves (42a, b). a tube clamp consisting of two tube clamp halves (42a, b) which comprise a main part that has retaining means, the tube clamp surrounding the metal tube in the mounted state and the retaining means resting against the outside of the metal tube, characterised in that a thermal radiation shield is arranged on the inside of the main part of the tube clamp and has a reflectance of 0.5 to 1.0 over the entire wavelength range of from 0.5 μm to 30 μm, the thermal radiation shield being arranged at a distance from the main part of the tube clamp halves (42a, b).
A method for production of a nanocomposite packaging material, comprising the substitution of a zeolite matrix with silver ions, addition of an active material in the form of a zeolite matrix containing silver to a cellulose suspension and its deposition on cellulose fibres, formation of the paper pulp into a desired shape and its drying, characterised in that before the addition of the zeolite matrix substituted with silver ions to a cellulose suspension, the zeolite is rinsed with an aqueous solution of disodium salt of ethylenediaminetetraacetic acid (EDTA), wherein the rinsing with EDTA comprises the following steps: a) rinsing of the zeolite with 0.01 M EDTA at room temperature; b) washing for one hour at boiling temperature with the 0.01 M EDTA; c) rinsing of the zeolite with of 0.1 M EDTA solution and d) flushing of the zeolite with deionised water.
A use of a film comprising one or more layer(s), wherein at least one of the layers consists of a polymer composition comprising a) a bi- or multimodal LLDPE b) a compound according to the following formula wherein each of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9 and R 10 is independently selected from hydrogen and a C 1 to C 10 hydrocarbyl group; whereby two of R 3 to R 10 located on adjacent carbon atoms may be fused to form a cyclic hydrocarbyl structure; M is selected from the groups consisting of calcium, strontium, lithium, zinc, magnesium and monobasic aluminium; n is 1 or 2; z is 1 or 2; the sum of n+z is 3, wherein the film has a hemispherical PAR transmittance of at least 80% and a F-scatter value of not more than 64%, as agricultural film. a) a bi- or multimodal LLDPE b) a compound according to the following formula wherein each of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9 and R 10 is independently selected from hydrogen and a C 1 to C 10 hydrocarbyl group; whereby two of R 3 to R 10 located on adjacent carbon atoms may be fused to form a cyclic hydrocarbyl structure; M is selected from the groups consisting of calcium, strontium, lithium, zinc, magnesium and monobasic aluminium; n is 1 or 2; z is 1 or 2; the sum of n+z is 3, wherein the film has a hemispherical PAR transmittance of at least 80% and a F-scatter value of not more than 64%, as agricultural film. each of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9 and R 10 is independently selected from hydrogen and a C 1 to C 10 hydrocarbyl group; whereby two of R 3 to R 10 located on adjacent carbon atoms may be fused to form a cyclic hydrocarbyl structure; M is selected from the groups consisting of calcium, strontium, lithium, zinc, magnesium and monobasic aluminium; n is 1 or 2; z is 1 or 2; the sum of n+z is 3, wherein the film has a hemispherical PAR transmittance of at least 80% and a F-scatter value of not more than 64%, as agricultural film.