mhurhangee/ep-ind-claims huggingface dataset:
A roll container comprising a silencer, which includes: - an engaging portion made of a material having a first durometer value and comprising: • an interior surface which is configured to engage to a profile of the roll container in an at least partly enclosing manner, and • an exterior surface opposing the interior surface, and - a compression portion for receiving external impacts, which compression portion: • is formed on the exterior surface of the engaging portion for receiving external impacts, • comprises a relieved profile for extending the compression length of the compression portion, and • has a second durometer value which is substantially smaller than the first durometer value of the engaging portion, characterized in that the second durometer value is at most 80 per cent of the first durometer value. - an engaging portion made of a material having a first durometer value and comprising: • an interior surface which is configured to engage to a profile of the roll container in an at least partly enclosing manner, and • an exterior surface opposing the interior surface, and • an interior surface which is configured to engage to a profile of the roll container in an at least partly enclosing manner, and • an exterior surface opposing the interior surface, and - a compression portion for receiving external impacts, which compression portion: • is formed on the exterior surface of the engaging portion for receiving external impacts, • comprises a relieved profile for extending the compression length of the compression portion, and • has a second durometer value which is substantially smaller than the first durometer value of the engaging portion, • is formed on the exterior surface of the engaging portion for receiving external impacts, • comprises a relieved profile for extending the compression length of the compression portion, and • has a second durometer value which is substantially smaller than the first durometer value of the engaging portion,
A combustor module for a gas turbine engine, comprising: a first annular liner assembly extending along a longitudinal axis, the first annular liner assembly comprising a first annular support shell and a plurality of first heat shield panels (48,50) coupled to the first annular support shell, the first heat shield panels (48,50) forming a segmented ring defining a plurality of first axial seams therebetween; a bulkhead coupled to the first annular liner assembly, the bulkhead providing a plurality of fuel nozzles for passing a first mass flow comprising fuel and air; and a second annular liner assembly coupled to the bulkhead, the second annular liner assembly in spaced-apart generally coaxial relationship from the first annular liner assembly by a channel height H, the second annular liner assembly comprising a second annular support shell and a plurality of second heat shield panels (62, 64) coupled to the second annular support shell, the second heat shield panels (62,64) forming a segmented ring having second axial seams therebetween, wherein each second heat shield panel (62, 64) includes air admittance holes having a mean diameter D, each air admittance hole extending along a respective hole axis, wherein each second heat shield panel (62, 64) is arranged opposing a first axial seam of the first annular liner assembly; characterised in that: each hole axis of a given second heat shield panel (62, 64) is circumferentially offset from the opposing first axial seam by an equal distance. a first annular liner assembly extending along a longitudinal axis, the first annular liner assembly comprising a first annular support shell and a plurality of first heat shield panels (48,50) coupled to the first annular support shell, the first heat shield panels (48,50) forming a segmented ring defining a plurality of first axial seams therebetween; a bulkhead coupled to the first annular liner assembly, the bulkhead providing a plurality of fuel nozzles for passing a first mass flow comprising fuel and air; and a second annular liner assembly coupled to the bulkhead, the second annular liner assembly in spaced-apart generally coaxial relationship from the first annular liner assembly by a channel height H, the second annular liner assembly comprising a second annular support shell and a plurality of second heat shield panels (62, 64) coupled to the second annular support shell, the second heat shield panels (62,64) forming a segmented ring having second axial seams therebetween, wherein each second heat shield panel (62, 64) includes air admittance holes having a mean diameter D, each air admittance hole extending along a respective hole axis, wherein each second heat shield panel (62, 64) is arranged opposing a first axial seam of the first annular liner assembly; characterised in that: each hole axis of a given second heat shield panel (62, 64) is circumferentially offset from the opposing first axial seam by an equal distance.
An apparatus for measuring bio-information, comprising: a pulse wave measurer configured to measure a pulse wave signal from a first region of an object; a contact pressure extractor comprising a touch screen (31; 850) and configured to obtain a contact pressure signal, indicating a contact pressure between the first region and the pulse wave measurer, based on touch data that is generated based on a second region of the object being in contact with the touch screen (31; 850); and a processor configured to measure bio-information of the object based on the pulse wave signal and the contact pressure signal, wherein the bio-information comprises a blood pressure, wherein the processor is further configured to determine a characteristic point based on the pulse wave signal and the contact pressure signal and measure the bio-information using the characteristic point and a blood pressure measurement model, wherein the processor is further configured to extract a feature for measuring the blood pressure based on the characteristic point, wherein the bio-information is measured by inputting the extracted feature to the blood pressure measurement model, wherein the processor is further configured to determine the characteristic point based on two or more pulse wave signals having different wavelengths, the two or more pulse wave signals being measured in a transition period of the contact pressure signal. a pulse wave measurer configured to measure a pulse wave signal from a first region of an object; a contact pressure extractor comprising a touch screen (31; 850) and configured to obtain a contact pressure signal, indicating a contact pressure between the first region and the pulse wave measurer, based on touch data that is generated based on a second region of the object being in contact with the touch screen (31; 850); and a processor configured to measure bio-information of the object based on the pulse wave signal and the contact pressure signal, wherein the bio-information comprises a blood pressure, wherein the processor is further configured to determine a characteristic point based on the pulse wave signal and the contact pressure signal and measure the bio-information using the characteristic point and a blood pressure measurement model, wherein the processor is further configured to extract a feature for measuring the blood pressure based on the characteristic point, wherein the bio-information is measured by inputting the extracted feature to the blood pressure measurement model, wherein the processor is further configured to determine the characteristic point based on two or more pulse wave signals having different wavelengths, the two or more pulse wave signals being measured in a transition period of the contact pressure signal.
A fixing structure between a metal part and a plastic part of a relay/circuit breaker, comprising a metal part, a first plastic part and a second plastic part; wherein a positioning groove is disposed on the first plastic part, one portion of the metal part is inserted and positioned in the positioning groove of the first plastic part, and the other portion of the metal part is positioned between the first plastic part and the second plastic part; characterised in that a through hole is disposed at a position of the second plastic part near to the positioning groove, a glue is dispensed into the positioning groove through the through hole to package the first plastic part, the metal part and the second plastic part together; a first glue blocking rib suitably fitting with a corresponding side of the other portion of the metal part is respectively disposed at a position of the first plastic part corresponding to both sides of the positioning groove to prevent the glue entering through the through hole from flowing to an inside of the relay/circuit breaker.
An apparatus composed of at least one pressure-rated apparatus shell and at least one modular framework system composed of two different types of framework element and arranged within the apparatus shell, wherein multiple transverse elements form at least one prism or one cylinder and multiple lateral elements project into the interior of the prism or cylinder, where the transverse elements and the lateral elements can be inserted into one another and/or can be connected with the aid of one or more connecting elements, where the material of the framework elements includes ceramic fiber composite materials.
A polycarbonate resin composition comprising: 100 parts by weight of a polycarbonate; 0.02 to 1 part by weight of a block copolymer containing a polyethylene oxide block represented by the following chemical formula 1 and a polypropylene oxide block represented by the following chemical formula 2; and 0.01 to 5 parts by weight of a vinyl-based polymer including a (meth)acrylate repeating unit containing an epoxy functional group. in the above formulas 1 and 2, n and m are each independently an integer of 1 or more, and n+m is 7 to 70. 100 parts by weight of a polycarbonate; 0.02 to 1 part by weight of a block copolymer containing a polyethylene oxide block represented by the following chemical formula 1 and a polypropylene oxide block represented by the following chemical formula 2; and 0.01 to 5 parts by weight of a vinyl-based polymer including a (meth)acrylate repeating unit containing an epoxy functional group. in the above formulas 1 and 2, n and m are each independently an integer of 1 or more, and n+m is 7 to 70. n and m are each independently an integer of 1 or more, and n+m is 7 to 70.
A compound having formula, or pharmaceutically acceptable salt and/or solvate thereof, characterized by; R: Phenyl, 4-Nitrophenyl, 4-Cyanophenyl, 4-Fluorophenyl, 4-Chlorophenyl, 4-Bromophenyl, 4-Methoxyphenyl, 4-Methylphenyl, 4-Methylsulfonylphenyl, Naphthalene-2-yl, 4-Trifluoromethylphenyl, 3-Fluorophenyl, 3-Chlorophenyl, Biphenyl-4-yl or 4-(Thiophene-2-yl)phenyl.
A computer-implemented method, comprising: Determining, by a computing device, a number, k, of network nodes for a content centric networking network; Determining an average degree of connectivity, and a degree-of-connectivity distribution, that achieves an optimal performance metric for the CCN network; Generating a network topology of k network nodes that satisfies the average degree of connectivity, and satisfies the degree-of-connectivity distribution; and mapping the k nodes of the generated network topology to nodes of a physical computer network, wherein determining the degree-of-connectivity distribution involves: iterating over one or more distribution functions, to generate a network topology of k network nodes that satisfies the average degree of connectivity based on a corresponding distribution function; computing a performance metric for each network topology; and selecting a degree-of-connectivity distribution with a highest performance metric. Determining, by a computing device, a number, k, of network nodes for a content centric networking network; Determining an average degree of connectivity, and a degree-of-connectivity distribution, that achieves an optimal performance metric for the CCN network; Generating a network topology of k network nodes that satisfies the average degree of connectivity, and satisfies the degree-of-connectivity distribution; and mapping the k nodes of the generated network topology to nodes of a physical computer network, wherein determining the degree-of-connectivity distribution involves: iterating over one or more distribution functions, to generate a network topology of k network nodes that satisfies the average degree of connectivity based on a corresponding distribution function; computing a performance metric for each network topology; and selecting a degree-of-connectivity distribution with a highest performance metric. iterating over one or more distribution functions, to generate a network topology of k network nodes that satisfies the average degree of connectivity based on a corresponding distribution function; computing a performance metric for each network topology; and selecting a degree-of-connectivity distribution with a highest performance metric.
A stopcock comprising: a housing element (10, 510) defining at least first (14, 514), second (16, 516) and third ports (18, 518); a handle element (20, 520) which is selectably positionable relative to said housing element (10, 510); at least one fluid passageway communicating between at least two of said at least first, second and third ports, said at least one fluid passageway being selectably defined by at least one of said housing element and said handle element, said at least one fluid passageway being defined by at least one recess (52, 552) formed on a peripheral surface of said handle element; a fluid flow guide (54, 554) associated with said at least one fluid passageway; characterized in that: said fluid flow guide (54, 554) extends radially and at least partially bifurcates said at least one recess (52, 552); said fluid flow guide is configured to selectably direct a flow of liquid into an internal volume (25, 228) of at least one of said first, second and third ports; and said at least one fluid passageway is configured for enabling flushing said internal volume (25,528) of at least one of said first, second and third ports by a fluid flow which does not flow entirely through said port whose internal volume is being flushed. a housing element (10, 510) defining at least first (14, 514), second (16, 516) and third ports (18, 518); a handle element (20, 520) which is selectably positionable relative to said housing element (10, 510); at least one fluid passageway communicating between at least two of said at least first, second and third ports, said at least one fluid passageway being selectably defined by at least one of said housing element and said handle element, said at least one fluid passageway being defined by at least one recess (52, 552) formed on a peripheral surface of said handle element; a fluid flow guide (54, 554) associated with said at least one fluid passageway; characterized in that: said fluid flow guide (54, 554) extends radially and at least partially bifurcates said at least one recess (52, 552); said fluid flow guide is configured to selectably direct a flow of liquid into an internal volume (25, 228) of at least one of said first, second and third ports; and said at least one fluid passageway is configured for enabling flushing said internal volume (25,528) of at least one of said first, second and third ports by a fluid flow which does not flow entirely through said port whose internal volume is being flushed. said fluid flow guide (54, 554) extends radially and at least partially bifurcates said at least one recess (52, 552); said fluid flow guide is configured to selectably direct a flow of liquid into an internal volume (25, 228) of at least one of said first, second and third ports; and said at least one fluid passageway is configured for enabling flushing said internal volume (25,528) of at least one of said first, second and third ports by a fluid flow which does not flow entirely through said port whose internal volume is being flushed.
A lamination head having self-threading capability, comprising: a material supply drum configured to support a material roll of backed material, the backed material comprising layup material backed by a backing layer; a backing layer collection drum configured to move from a collection drum home position to a collection drum engagement position proximate the material supply drum, engage, in the collection drum engagement position, a backing layer leading edge of the backing layer on the material roll, and move back to the collection drum home position while dispensing a threadable portion of at least the backing layer between the material supply drum and the backing layer collection drum; and a backing layer separation assembly having a backing layer separation device and at least one backing layer separation mechanism (250, 270), the backing layer separation device configured to translate from a separation device home position to a separation device engagement position and engage the threadable portion for moving the threadable portion into proximity to the backing layer separation mechanism (250, 270) for separating the backing layer from the layup material prior to application of the layup material onto a substrate. a material supply drum configured to support a material roll of backed material, the backed material comprising layup material backed by a backing layer; a backing layer collection drum configured to move from a collection drum home position to a collection drum engagement position proximate the material supply drum, engage, in the collection drum engagement position, a backing layer leading edge of the backing layer on the material roll, and move back to the collection drum home position while dispensing a threadable portion of at least the backing layer between the material supply drum and the backing layer collection drum; and a backing layer separation assembly having a backing layer separation device and at least one backing layer separation mechanism (250, 270), the backing layer separation device configured to translate from a separation device home position to a separation device engagement position and engage the threadable portion for moving the threadable portion into proximity to the backing layer separation mechanism (250, 270) for separating the backing layer from the layup material prior to application of the layup material onto a substrate.
A motorcycle tire for running on rough terrain comprising a tread portion provided with blocks each having a polygonal ground contacting top surface, wherein the blocks include a twist block having a twisted portion from the top surface toward the radially inside, characterized in that the twisted portion is twisted about an axis intersecting the top surface, wherein the tire has an intended rotational direction, and the top surface of the twist block has an axial edge on its heel side in the intended rotational direction, which extends parallel with the tire axial direction, and a counter shape of a base of the twist block has an oblique edge on its heel side in the intended rotational direction, which is inclined with respect to the tire axial direction.
A device for ground improvement of soil prior to loading of a structure, comprising: (a) a top plate having a first surface configured for having a driving device attached thereto to provide impact thereon; (b) a plurality of vertically extending tines rigidly attached to a second surface of the top plate opposite the first surface of the top plate, and horizontally spaced from each other at upper lateral edges thereof, for being driven into a ground surface in response to the impact provided by the driving device; and (c) the tines being shaped, spaced, and oriented relative to each other in a manner to achieve displacement of ground material downward and radially outward, wherein the tines are tapered at an angle in the range of 0.5° to 5°, and wherein the tines have a length to width ratio of 9 to 14.5, 15 to 30 or 30 to 60. (a) a top plate having a first surface configured for having a driving device attached thereto to provide impact thereon; (b) a plurality of vertically extending tines rigidly attached to a second surface of the top plate opposite the first surface of the top plate, and horizontally spaced from each other at upper lateral edges thereof, for being driven into a ground surface in response to the impact provided by the driving device; and (c) the tines being shaped, spaced, and oriented relative to each other in a manner to achieve displacement of ground material downward and radially outward, wherein the tines are tapered at an angle in the range of 0.5° to 5°, and wherein the tines have a length to width ratio of 9 to 14.5, 15 to 30 or 30 to 60.
A method for controlling the growth of microorganisms in aqueous systems, which comprises adding an effective amount of combination of a monohaloamine and a dihaloamine to an aqueous system, wherein the ratio of the monohaloamine to the dihaloamine is selected to result in a synergy index of the system of less than 1, and wherein the aqueous system is a pulp and paper mill water system.