mhurhangee/ep-ind-claims huggingface dataset:
A server computer system comprising: a chassis having a first chassis end, a second chassis end, and a chassis length from the first chassis end to the second chassis end; a carrier having a first carrier end, a second carrier end, and a carrier length from the first carrier end to the second carrier end, the carrier being configured to house one or more computer components, and allow the one or more computer components to be removed from the first carrier end; and a pivot member being configured to connect the carrier to the chassis, and allow the carrier to rotate between a first position with the first carrier end within the chassis, and a second position with the first carrier end extending out of the chassis, characterized in that the carrier is configured to arrange the one or more computer components adjacent to each other horizontally in vertical orientation. a chassis having a first chassis end, a second chassis end, and a chassis length from the first chassis end to the second chassis end; a carrier having a first carrier end, a second carrier end, and a carrier length from the first carrier end to the second carrier end, the carrier being configured to house one or more computer components, and allow the one or more computer components to be removed from the first carrier end; and a pivot member being configured to connect the carrier to the chassis, and allow the carrier to rotate between a first position with the first carrier end within the chassis, and a second position with the first carrier end extending out of the chassis, characterized in that the carrier is configured to arrange the one or more computer components adjacent to each other horizontally in vertical orientation.
An integrated circuit, IC, substrate (121, 221A-B, 321A-D, 421A-C) comprising: a dielectric material (204, 304); and metal crystals having a polyhedral shape dispersed in the dielectric material and bonded with a ligand that is to ablate when exposed to laser light such that the metal crystals having the ablated ligand are activated to provide a catalyst for selective electroless deposition of a metal, characterized in that the metal crystals include palladium (Pd), silver (Ag), gold (Au) or copper (Cu), and in that the polyhedral shape includes a cubic or octahedral shape. a dielectric material (204, 304); and metal crystals having a polyhedral shape dispersed in the dielectric material and bonded with a ligand that is to ablate when exposed to laser light such that the metal crystals having the ablated ligand are activated to provide a catalyst for selective electroless deposition of a metal, characterized in that the metal crystals include palladium (Pd), silver (Ag), gold (Au) or copper (Cu), and in that the polyhedral shape includes a cubic or octahedral shape.
A method of fuel system protection for an internal combustion engine comprising: introducing a directly injected fuel into a combustion chamber through a direct fuel injector; introducing a fumigated fuel upstream of an intake valve; selectively operating said internal combustion engine with at least one of said directly injected fuel and said fumigated fuel; determining a temperature of said direct fuel injector as a first function of engine operating parameters; performing a temperature mitigation technique when said temperature rises above a first predetermined value such that said temperature is maintained below a second predetermined value; determining a steady state temperature of said direct fuel injector as a second function of said engine operating parameters; wherein said temperature of said direct fuel injector is determined as a function of said steady state temperature, a history of said temperature and a time constant representative of a thermal characteristic of said direct fuel injector; characterized in that said time constant is determined as a function of either a directly injected fuel mass fraction or a fumigated fuel mass fraction.
A weatherseal for presenting a resilient seal against a surface engaging said weatherseal comprising a pair of base strips (21c, 21d) having a pile of fibers extending lengthwise of said base strips (21c, 21d) and attached thereto, characterized in that said base strips (21c, 21d) are oriented with respect to each other such that said pile forms a resilient arch, bow, or loop between said base strips (21c, 21d) and has a sealing surface on the exterior of said arch, bow, or loop with the interior surface of said arch, bow or loop facing said pair of base strips (21c, 21d).
A method for preparing a macroporous or mesoporous polymer film in hollow fiber geometry, comprising: a. providing a first polymer solution of at least one copolymer or at least one homopolymer in a volatile solvent for forming a polymer film, providing a carrier solution comprising a polyether sulfone in a solvent, providing a bore fluid and providing a polyol which is liquid at room temperature; b. pressing the first polymer solution through a fourth die in a spinneret while simultaneously purging the liquid polyol through a third die encircled by the fourth die, pressing the carrier solution through a second die encircled by the third die, and purging the bore fluid comprising at least one precipitant through a first, innermost die encircled by the second die, and subsequently immersing the pressed polymer solutions into an aqueous precipitation bath, wherein a gap is provided between the spinneret and the aqueous precipitation bath through which the extruded first polymer solution passes enclosing the liquid polyol, the carrier solution and the bore fluid to form a fiber precursor; c. precipitating a fiber precursor in the precipitation bath to form the hollow-fiber polymer film enclosing a carrier substrate which includes polyether sulfone from the carrier solution and d. optionally, separating the hollow-fiber polymer film from the enclosed carrier substrate. a. providing a first polymer solution of at least one copolymer or at least one homopolymer in a volatile solvent for forming a polymer film, providing a carrier solution comprising a polyether sulfone in a solvent, providing a bore fluid and providing a polyol which is liquid at room temperature; b. pressing the first polymer solution through a fourth die in a spinneret while simultaneously purging the liquid polyol through a third die encircled by the fourth die, pressing the carrier solution through a second die encircled by the third die, and purging the bore fluid comprising at least one precipitant through a first, innermost die encircled by the second die, and subsequently immersing the pressed polymer solutions into an aqueous precipitation bath, wherein a gap is provided between the spinneret and the aqueous precipitation bath through which the extruded first polymer solution passes enclosing the liquid polyol, the carrier solution and the bore fluid to form a fiber precursor; c. precipitating a fiber precursor in the precipitation bath to form the hollow-fiber polymer film enclosing a carrier substrate which includes polyether sulfone from the carrier solution and d. optionally, separating the hollow-fiber polymer film from the enclosed carrier substrate.
A high-strength hot-rolled coated steel sheet comprising: a steel sheet having a chemical composition containing, by mass%, C: 0.03% to 0.09%, Si: 0.01% to 1.60%, Mn: 2.20% to 3.60%, P: 0.100% or less, S: 0.0100% or less, Ti: 0.05% to 0.18%, B: 0.0005% to 0.0050%, Al: 0.005% to 0.40%, N: 0.010% or less, and optionally one or more of Nb: 0.005% to 0.060%, V: 0.005% to 0.080%, Cr: 0.02% to 0.15%, Mo: 0.02% to 0.5%, Cu: 0.05% to 0.5%, Ni: 0.05% to 1.0%, Sb: 0.0002% to 0.0200%, Ca: 0.0002% to 0.0100%, Mg: 0.0002% to 0.0100%, REM: 0.0002% to 0.0100, and a balance of Fe and inevitable impurities, the total of these elements be 0.50 or less, in which a CSM value expressed by equation below is 3.3 to 12.0, and a steel microstructure containing bainite in an amount of 85% or more in terms of area fraction and martensite in an amount of 2.0% or more and 15.0% or less in terms of area fraction and optionally at least one of a retained austenite phase, a pearlite structure and a ferrite structure, wherein the total area fraction thereof is 0% to 30, whereby bainite is defined and determined according to the description, a coating layer or an alloyed coating layer on a surface of the steel sheet; a tensile strength of 980 MPa or more; a hole expansion ratio λ of 50% or more; a yield ratio of 0.93 or less; and: CSM value = 33.8 % C % Mn + 12.4 % Si / % Mn where, in equation, [%C], [%Mn], and [%Si] each denote the content (mass%) of the corresponding element. C: 0.03% to 0.09%, Si: 0.01% to 1.60%, Mn: 2.20% to 3.60%, P: 0.100% or less, S: 0.0100% or less, Ti: 0.05% to 0.18%, B: 0.0005% to 0.0050%, Al: 0.005% to 0.40%, N: 0.010% or less, and optionally one or more of Nb: 0.005% to 0.060%, V: 0.005% to 0.080%, Cr: 0.02% to 0.15%, Mo: 0.02% to 0.5%, Cu: 0.05% to 0.5%, Ni: 0.05% to 1.0%, Sb: 0.0002% to 0.0200%, Ca: 0.0002% to 0.0100%, Mg: 0.0002% to 0.0100%, REM: 0.0002% to 0.0100, and a balance of Fe and inevitable impurities, the total of these elements be 0.50 or less, in which a CSM value expressed by equation below is 3.3 to 12.0, and a steel microstructure containing bainite in an amount of 85% or more in terms of area fraction and martensite in an amount of 2.0% or more and 15.0% or less in terms of area fraction and optionally at least one of a retained austenite phase, a pearlite structure and a ferrite structure, wherein the total area fraction thereof is 0% to 30, whereby bainite is defined and determined according to the description, a coating layer or an alloyed coating layer on a surface of the steel sheet; a tensile strength of 980 MPa or more; a hole expansion ratio λ of 50% or more; a yield ratio of 0.93 or less; and: CSM value = 33.8 % C % Mn + 12.4 % Si / % Mn where, in equation, [%C], [%Mn], and [%Si] each denote the content (mass%) of the corresponding element.
A package comprising: a patterned layer; a first conductive layer on the patterned layer; an insulating layer formed on the patterned layer to bury the first conductive layer; a second conductive layer disposed on an opposite surface of the insulating layer on which the first conductive layer is disposed; and a third conductive layer filled in a through hole inside the insulating layer to connect the first conductive layer and the second conductive layer, wherein one surface of the second conductive layer comes into direct contact with the insulating layer and the third conductive layer, thereby covering the through hole, wherein the insulating layer is paste- or ink-type insulating material that includes a filler, a resin, a dispersing agent, and an additive, and wherein the filler has a particle size in a range from 10nm to 500nm in a ink type, and has the particle size in a range from 0.5 μ m ∼ 100 μ m in a paste type. a patterned layer; a first conductive layer on the patterned layer; an insulating layer formed on the patterned layer to bury the first conductive layer; a second conductive layer disposed on an opposite surface of the insulating layer on which the first conductive layer is disposed; and a third conductive layer filled in a through hole inside the insulating layer to connect the first conductive layer and the second conductive layer,
A plastic lens formed by polymerization of a composition that comprises 100 parts by mass in total of a polyisocyanate compound containing a polyisocyanate compound having an aromatic ring and a polythiol compound, from 0.5 to 5.0 parts by mass of a benzophenone compound having a hydroxyl group on at least the ortho position, and from 0.5 to 5.0 parts by mass of a phenol compound.
A non-natural nucleic acid, comprising a) a first promoter sequence comprising a nucleic acid sequence which has at least 75% identity to SEQ ID NO. 7, b) a second promoter sequence comprising a nucleic acid sequence which has at least 78.5% identity to SEQ ID NO. 6 in positions 7 to 234, c) a nucleic acid sequence which codes for a polypeptide, wherein, in 5' → 3' orientation, the second promoter sequence is located upstream of the first promoter sequence on the nucleic acid molecule. a) a first promoter sequence comprising a nucleic acid sequence which has at least 75% identity to SEQ ID NO. 7, b) a second promoter sequence comprising a nucleic acid sequence which has at least 78.5% identity to SEQ ID NO. 6 in positions 7 to 234, c) a nucleic acid sequence which codes for a polypeptide,
Gear pump with an interior space that can be sealed off from an outside space with a sealing arrangement, the sealing arrangement comprising at least two parts (2, 3) to be sealed, each with a sealing surface (15, 16), the two parts (2, 3) being fixed at each other such that they are pressed against each other, and wherein there is a recess in at least one of the sealing surfaces (15, 16), characterized in that a sealing element designed as an O-ring or as a spiral sealing is provided which partially fills the recess so that a cavity in the recess remains, that the recess is connected to a source of flushing medium via a feed channel, that the recess is connected via a discharge channel and that the cavity is at least partially flushable with flushing medium.
A method for a controller that manages forwarding behavior of a managed forwarding element, MFE, that executes on a host computer, the method comprising: at a first controller application that also executes on the host computer alongside the MFE (1925, 1740): from a second controller that provides data defining forwarding behaviors of logical forwarding elements, LFEs, to a plurality of controller applications (1725, 1730) executing on a plurality of host computers, receiving data that defines forwarding behavior of a particular LFE of a logical network, the particular LFE specifying a logical datapath set that logically connects a set of end machines executing on the host computer to a plurality of other end machines executing on the plurality of host computers; based on the received data, generating data for defining forwarding behaviors of the MFE to implement the particular LFE; and distributing the generated data to the MFE for the MFE to implement the particular LFE wherein the particular LFE is also implemented by a plurality of other MFEs (1930, 1745-1750) executing on the plurality of host computers. from a second controller that provides data defining forwarding behaviors of logical forwarding elements, LFEs, to a plurality of controller applications (1725, 1730) executing on a plurality of host computers, receiving data that defines forwarding behavior of a particular LFE of a logical network, the particular LFE specifying a logical datapath set that logically connects a set of end machines executing on the host computer to a plurality of other end machines executing on the plurality of host computers; based on the received data, generating data for defining forwarding behaviors of the MFE to implement the particular LFE; and distributing the generated data to the MFE for the MFE to implement the particular LFE wherein the particular LFE is also implemented by a plurality of other MFEs (1930, 1745-1750) executing on the plurality of host computers.
A bone implant elongate along a longitudinal axis, the bone implant comprising: an implant body including first and second side wire segments (101a, 101b) that are spaced from each other so as to define at least two apertures (30, 32) extending through the implant body, each of the at least two apertures (30, 32) configured to receive a bone fixation element so as to secure the bone implant to bone, characterized in that the first and second wire segments (101a, 101b) attached to each other at least at one end of each of the at least two apertures (30, 32), wherein the first and second wire segments (101a, 101b) define a neck (40, 42) at the one end of each of the at least two apertures (30, 32), and the first and second wire segments (101a, 101b) are attached to each other at the neck (40, 42). an implant body including first and second side wire segments (101a, 101b) that are spaced from each other so as to define at least two apertures (30, 32) extending through the implant body, each of the at least two apertures (30, 32) configured to receive a bone fixation element so as to secure the bone implant to bone, characterized in that the first and second wire segments (101a, 101b) attached to each other at least at one end of each of the at least two apertures (30, 32), wherein the first and second wire segments (101a, 101b) define a neck (40, 42) at the one end of each of the at least two apertures (30, 32), and the first and second wire segments (101a, 101b) are attached to each other at the neck (40, 42).
A guided wave radar system, comprising a coaxial feed-through device (feed-through 100) for coupling a received process connection to a storage tank (tank), comprising: an inner electrical conductor (probe); an outer electrical conductor; and a dielectric sleeve disposed between said probe and said outer electrical conductor; wherein said dielectric sleeve is configured to provide said feed-through a first coaxial transmission line segment (first CTL segment) providing a substantially 50 ohm impedance and a second coaxial transmission line segment (second CTL segment) which includes one or more sub-segments (100b1, and 100b2 or 100b') having an impedance that is at least forty (40%) percent higher as compared to said substantially 50 ohm impedance, and characterised in that: said outer electrical conductor includes a protruding shoulder at a bottom of said first CTL segment that stops a dielectric ring wherein, the dielectric ring is configured as a load ring which supports the weight of the probe, through protruding metal extensions of the probe thus defining an air chamber around the probe. an inner electrical conductor (probe); an outer electrical conductor; and a dielectric sleeve disposed between said probe and said outer electrical conductor; wherein said dielectric sleeve is configured to provide said feed-through a first coaxial transmission line segment (first CTL segment) providing a substantially 50 ohm impedance and a second coaxial transmission line segment (second CTL segment) which includes one or more sub-segments (100b1, and 100b2 or 100b') having an impedance that is at least forty (40%) percent higher as compared to said substantially 50 ohm impedance, and characterised in that: said outer electrical conductor includes a protruding shoulder at a bottom of said first CTL segment that stops a dielectric ring wherein, the dielectric ring is configured as a load ring which supports the weight of the probe, through protruding metal extensions of the probe thus defining an air chamber around the probe.
Composite pyrotechnic product containing, in a plasticized binder comprising a cross-linked energetic polymer and at least one energetic plasticizer, organic energetic charges and at least one anti-glare agent of the potassium salt type, characterized in that: - said cross-linked energetic polymer consists of a glycidyl azide polymer having a number average molecular weight (Mn) in the range 700 g/mol to 3000 g/mol, cross-linked via its hydroxyl terminal functions with at least one cross-linking agent of the polyisocyanate type; and - said at least one anti-glare agent of the potassium salt type is selected from potassium cryolite (K 3 AlF 6), monobasic potassium tartrate (C 4 H 5 KO 6) and mixtures thereof. - said cross-linked energetic polymer consists of a glycidyl azide polymer having a number average molecular weight (Mn) in the range 700 g/mol to 3000 g/mol, cross-linked via its hydroxyl terminal functions with at least one cross-linking agent of the polyisocyanate type; and - said at least one anti-glare agent of the potassium salt type is selected from potassium cryolite (K 3 AlF 6), monobasic potassium tartrate (C 4 H 5 KO 6) and mixtures thereof.
Washing/drying machine comprising a washing/drying chamber, a basket for loading laundry to be treated, housed in said chamber, a circuit (20, 21, 22, 23) for circulating air taken in from the chamber and then reintroduced therein, a filter for filtering the air along the circulation circuit, a cleaning device comprising nozzles, adapted to spray water onto the filter, on the side thereof whereon filaments, fibres and the like get deposited during the circulation of air in the associated circuit (20, 21, 22, 23), characterised in that the filter comprises a structure having a substantially cylindrical geometry and supporting at least one filtering wall arranged peripherally relative to said cylindrical geometry, and wherein the water nozzles are distributed in a crown-like pattern coaxial to the filter structure.
An apparatus for sensing a position of a target, in particular for offset invariant sensing of the position of the target, the apparatus comprising: at least two sensor elements (120, 130, 140) and a target, wherein at least one sensor element of the at least two sensor elements (120, 130, 140) generates a magnetic field, wherein at least one other sensor element of the at least two sensor elements (120, 130, 140) receives the magnetic field and outputs at least one signal associated with the received magnetic field, wherein the target affects a coupling of a magnetic flux of the magnetic field between the at least one sensor element generating the magnetic field and the at least one other sensor element receiving the magnetic field and wherein the target is non-rotational invariant and comprises at least one slit and/or recess oriented along a preferred direction for the magnetic flux coupling to produce at least one directional magnetic field which deforms the course of the magnetic field lines of the generated magnetic field. at least two sensor elements (120, 130, 140) and a target, wherein at least one sensor element of the at least two sensor elements (120, 130, 140) generates a magnetic field, wherein at least one other sensor element of the at least two sensor elements (120, 130, 140) receives the magnetic field and outputs at least one signal associated with the received magnetic field, wherein the target affects a coupling of a magnetic flux of the magnetic field between the at least one sensor element generating the magnetic field and the at least one other sensor element receiving the magnetic field and wherein the target is non-rotational invariant and comprises at least one slit and/or recess oriented along a preferred direction for the magnetic flux coupling to produce at least one directional magnetic field which deforms the course of the magnetic field lines of the generated magnetic field.