mhurhangee/ep-ind-claims huggingface dataset:
A device for suspending a load under a grate floor comprising gratings defining grate openings, wherein the device is arranged to be supported on the grate floor, wherein the device comprises: a rod extending along a length direction; a first supporting foot and a second supporting foot for allowing support of the rod on the grate floor, wherein the supporting feet are slidably connected to the rod; a suspension line for suspending the load from the device, wherein the suspension line is connected to the rod at a first end by means of a connecting element located between the supporting feet, wherein the connecting element is removably connectable to the rod, and wherein the suspension line is arranged at a second end for connecting to the load, wherein the connecting element is foldable to predetermined dimensions so that the connecting element can be arranged through one of said grate openings of the grate floor. a rod extending along a length direction; a first supporting foot and a second supporting foot for allowing support of the rod on the grate floor, wherein the supporting feet are slidably connected to the rod; a suspension line for suspending the load from the device, wherein the suspension line is connected to the rod at a first end by means of a connecting element located between the supporting feet, wherein the connecting element is removably connectable to the rod, and wherein the suspension line is arranged at a second end for connecting to the load, wherein the connecting element is foldable to predetermined dimensions so that the connecting element can be arranged through one of said grate openings of the grate floor.
An optical circuit, the optical circuit comprising: a first optical path; a second optical path; and a means for recombining an optical signal transmitted through the first optical path with an optical signal transmitted through the second optical path by sequentially gating the first optical path and the second optical path to a single output, characterised in that the first and second optical paths comprise polarization maintaining optical fibers; and in that the means for recombining said optical signals comprise a polarization maintaining optical switch. a first optical path; a second optical path; and a means for recombining an optical signal transmitted through the first optical path with an optical signal transmitted through the second optical path by sequentially gating the first optical path and the second optical path to a single output, characterised in that the first and second optical paths comprise polarization maintaining optical fibers; and in that the means for recombining said optical signals comprise a polarization maintaining optical switch.
A method of operating a first node, the method comprising: receiving, at the first node from a second node, a plurality of beams (511 to 515); determining, by the first node, a time of arrival of each beam of the plurality of beams; identifying, by the first node from the plurality of beams, one or more first beams of interest for a positioning procedure based on the times of arrival of the plurality of beams; determining, by the first node, a first reference timing based on the time of arrival for a given beam among the identified one or more first beams of interest; and sending, by the first node to the second node, a positioning beacon in accordance with the first reference timing. receiving, at the first node from a second node, a plurality of beams (511 to 515); determining, by the first node, a time of arrival of each beam of the plurality of beams; identifying, by the first node from the plurality of beams, one or more first beams of interest for a positioning procedure based on the times of arrival of the plurality of beams; determining, by the first node, a first reference timing based on the time of arrival for a given beam among the identified one or more first beams of interest; and sending, by the first node to the second node, a positioning beacon in accordance with the first reference timing.
A refrigeration appliance, comprising at least one compartment (2, 3) for refrigerating or freezing articles and a pair of supports respectively formed on opposing side walls of the compartment (2, 3), for supporting a shelf, wherein each side wall is formed by a lining including a front segment which is located close to an opening region of the compartment (2, 3), a rear segment which is located close to a rear region of the compartment (2, 3) and an intermediate segment which is located between the front segment and the rear segment, wherein the intermediate segment is offset relative to the front segment towards a center region of the compartment (2, 3), thereby forming a front shoulder segment, and the rear segment is offset relative to the intermediate segment towards the center region of the compartment (2, 3), thereby forming a rear shoulder segment, each support includes a front groove and separately therefrom, a rear groove respectively formed in the front shoulder segment and the rear shoulder segment, wherein the front groove and the rear groove are configured to respectively receive a front lateral section and a rear lateral section of the shelf, wherein each front lateral section of the shelf is formed by a hangover portion of the shelf, characterized in that each front groove has a recess portion extending in the vertical direction and the shelf has a projection extending in the vertical direction, which is formed on the lower side or the upper side of each hangover portion, for restricting a forward movement of the shelf when the projection is caught by the recess portion.
A composition comprising a maleinized ester derivative made by the reaction of: (i) an unsaturated linear aliphatic carboxylic acid methyl ester, which is methyl 9-dodecenoate; and (ii) maleic anhydride; and (iii) a monohydric alcohol of 3 to 12 carbon atoms, or 3 to 10 atoms, or 5 to 10 carbon atoms, or 3 to 8 carbon atoms, or 5 carbon atoms; wherein the maleinized ester derivative comprises at least two proximal ester groups and another ester group, the proximal ester groups and the another ester group containing straight chain alkyl groups of 3 to 12 carbon atoms, or 3 to 8 carbon atoms, or 5 carbon atoms. (i) an unsaturated linear aliphatic carboxylic acid methyl ester, which is methyl 9-dodecenoate; and (ii) maleic anhydride; and (iii) a monohydric alcohol of 3 to 12 carbon atoms, or 3 to 10 atoms, or 5 to 10 carbon atoms, or 3 to 8 carbon atoms, or 5 carbon atoms;
A method of making a diluted organopolysiloxane polymer comprising the steps of:- (i) preparing an organopolysiloxane polymer by polymerising cyclic organopolysiloxane monomer(s) in the presence of an organic diluent material selected from an extender or plasticiser, a suitable catalyst and an end-blocking agent; and (ii) Where required quenching the polymerisation process; wherein the diluent material is substantially retained within the resulting diluted organopolysiloxane and wherein the organic diluent is selected from one or more of the groups comprising ∘ polyisobutylenes; ∘ phosphate esters; ∘ esters of aliphatic monocarboxylic acids; ∘ linear or branched mono unsaturated hydrocarbons such as linear or branched alkenes or mixtures thereof containing from 12 to 25 carbon atoms; ∘ mineral oil fractions comprising linear (n-paraffinic) mineral oils, branched (iso-paraffinic) mineral oils and/or cyclic (naphthenic) mineral oils and mixtures thereof. (i) preparing an organopolysiloxane polymer by polymerising cyclic organopolysiloxane monomer(s) in the presence of an organic diluent material selected from an extender or plasticiser, a suitable catalyst and an end-blocking agent; and (ii) Where required quenching the polymerisation process; ∘ polyisobutylenes; ∘ phosphate esters; ∘ esters of aliphatic monocarboxylic acids; ∘ linear or branched mono unsaturated hydrocarbons such as linear or branched alkenes or mixtures thereof containing from 12 to 25 carbon atoms; ∘ mineral oil fractions comprising linear (n-paraffinic) mineral oils, branched (iso-paraffinic) mineral oils and/or cyclic (naphthenic) mineral oils and mixtures thereof.
A superconductor magnet apparatus, comprising - a superconductor bulk magnet with a superconductor bore, wherein the superconductor bulk magnet has an axis (z) of rotational symmetry, and a maximum outer diameter OD bm in a plane perpendicular to the axis (z) of rotational symmetry, and the superconductor bore has a minimum cross-sectional area S bo in a plane perpendicular to the axis (z) of rotational symmetry, - a cryostat with a room temperature bore, wherein the superconductor bulk magnet is arranged within the cryostat, and the room temperature bore is arranged within the superconductor bore, - and a ferromagnetic shielding body with a shielding bore, wherein the superconductor bulk magnet is arranged within the shielding bore of the ferromagnetic shielding body and the ferromagnetic shielding body extends beyond the superconductor bulk magnet at each axial end with respect to the axis (z) of rotational symmetry by at least OD bm /3, and further wherein for an average cross-sectional area S fb of the ferromagnetic shielding body, defined as the average of the cross-sectional areas of the ferromagnetic shielding body in all the planes perpendicular to the axis (z) of rotational symmetry and intersecting the ferromagnetic shielding body, S fb ≥ 2.5*S bo applies, characterized in that the ferromagnetic shielding body is arranged within the cryostat. - a superconductor bulk magnet with a superconductor bore, wherein the superconductor bulk magnet has an axis (z) of rotational symmetry, and a maximum outer diameter OD bm in a plane perpendicular to the axis (z) of rotational symmetry, and the superconductor bore has a minimum cross-sectional area S bo in a plane perpendicular to the axis (z) of rotational symmetry, - a cryostat with a room temperature bore, wherein the superconductor bulk magnet is arranged within the cryostat, and the room temperature bore is arranged within the superconductor bore, - and a ferromagnetic shielding body with a shielding bore, wherein the superconductor bulk magnet is arranged within the shielding bore of the ferromagnetic shielding body and the ferromagnetic shielding body extends beyond the superconductor bulk magnet at each axial end with respect to the axis (z) of rotational symmetry by at least OD bm /3,
A method of creating multiple routing layers in a MEMS device, comprising: determining a trench layout, wherein the trench layout includes one or more geometric patterns defining a plurality of hole placement areas; identifying a location for one or more anchor trenches, wherein an anchor trench is a secondary trench disposed within a defined hole placement area of a portion of the trench layout, wherein identifying the location comprises determining a position within the defined hole placement area where a portion of substrate material between the anchor trench and the trench layout is small enough to oxidize; etching the trench layout into a substrate wafer to create a plurality of trenches; etching the one or more anchor trenches into the substrate wafer; growing a base layer on a surface of the substrate wafer, wherein the surface of the substrate wafer comprises a top surface of the substrate wafer and an interior face and a bottom face of the plurality of trenches and the one or more anchor trenches; depositing a first layer of conductive material within the plurality of trenches and the one or more anchor trenches; depositing an insulating layer on a portion of the plurality of trenches corresponding to the portion of the trench layout defining the hole placement area; and depositing a second layer of conductive material on top of the insulating layer such that the second layer of conductive material covers the insulating layer and the one or more anchor trenches. determining a trench layout, wherein the trench layout includes one or more geometric patterns defining a plurality of hole placement areas; identifying a location for one or more anchor trenches, wherein an anchor trench is a secondary trench disposed within a defined hole placement area of a portion of the trench layout, wherein identifying the location comprises determining a position within the defined hole placement area where a portion of substrate material between the anchor trench and the trench layout is small enough to oxidize; etching the trench layout into a substrate wafer to create a plurality of trenches; etching the one or more anchor trenches into the substrate wafer; growing a base layer on a surface of the substrate wafer, wherein the surface of the substrate wafer comprises a top surface of the substrate wafer and an interior face and a bottom face of the plurality of trenches and the one or more anchor trenches; depositing a first layer of conductive material within the plurality of trenches and the one or more anchor trenches; depositing an insulating layer on a portion of the plurality of trenches corresponding to the portion of the trench layout defining the hole placement area; and depositing a second layer of conductive material on top of the insulating layer such that the second layer of conductive material covers the insulating layer and the one or more anchor trenches.
An ankle arthrodesis device comprising a nail intended to be implanted in a tibia ( Ti), a talus ( Ta) and a calcaneus ( Ca) of a patient, said nail comprising: - a proximal portion which generally extends according to a first longitudinal direction of extension (A-A'), and - a distal portion which prolongs said proximal portion and generally extends according to a second longitudinal direction of extension (B-B') secant to said first longitudinal direction of extension (A-A'), said distal portion being provided with a first fastening orifice, characterized in that said distal portion said device comprises a first compressive fastening means, of compressive screw type, and in that said nail is designed and configured so that, when said nail is implanted with said distal portion directed rearwards of the ankle of the patient, said first fastening orifice is arranged so as to receive and guide said first fastening means according to a first fastening direction (F 1 -F 1') which extends through said talus ( Ta) and calcaneus ( Ca) so as to fasten said nail to said talus ( Ta) and to said calcaneus ( Ca), said first fastening orifice being oblong according to said second longitudinal direction of extension (B-B'). - a proximal portion which generally extends according to a first longitudinal direction of extension (A-A'), and - a distal portion which prolongs said proximal portion and generally extends according to a second longitudinal direction of extension (B-B') secant to said first longitudinal direction of extension (A-A'), said distal portion being provided with a first fastening orifice,
A pneumatic tire comprising a noise damper fixed to a tire inner cavity surface of a tread portion and formed of a porous material, wherein the noise damper includes a first part arranged on an outer side in a tire radial direction and fixed to the tire inner cavity surface, and a second part arranged on an inner side in the tire radial direction of the first part and exposed in a tire inner cavity, a water absorption rate of the first part is in a range of from 5% to 25%, the water absorption rate being calculated by a following formula: water absortpion rate % = weight change before and after immersion g / volume at 50 ⁢ % compression cm 3 × 100 and air permeability of the second part measured in accordance with Japanese Industrial Standard JIS-L1096 is in a range of from 1 to 7 cm3/cm2/s.
A microwave processing apparatus that is adapted to process an object using a microwave, comprising: a microwave generator that is adapted to generate a microwave; at least first and second radiators (A1, A2) that are adapted to radiate to the object the microwave generated by said microwave generator, wherein said first and second radiators are arranged such that the radiated microwaves interfere with each other; a first phase variator (351a, 351b) that is adapted to change a phase difference between microwaves respectively radiated from said first and second radiators; a detector (600, 610) that is adapted to detect respective reflected powers from said first and second radiators; and a controller that is adapted to control said microwave generator, characterized in that said controller is adapted to cause said first and second radiators to radiate the microwaves to the object with a first output power while changing the frequency of the microwave generated by said microwave generator (S13, S24), to determine the frequency of the microwave for processing the object as a processing frequency on the basis of a frequency at which the reflected power detected by said detector takes a minimum or minimal value (S14, S25), and to cause said microwave generator to generate the microwave having the determined processing frequency with a second output power (S16, S27), wherein said first output power is smaller than said second output power. a microwave generator that is adapted to generate a microwave; at least first and second radiators (A1, A2) that are adapted to radiate to the object the microwave generated by said microwave generator, wherein said first and second radiators are arranged such that the radiated microwaves interfere with each other; a first phase variator (351a, 351b) that is adapted to change a phase difference between microwaves respectively radiated from said first and second radiators; a detector (600, 610) that is adapted to detect respective reflected powers from said first and second radiators; and a controller that is adapted to control said microwave generator, characterized in that said controller is adapted to cause said first and second radiators to radiate the microwaves to the object with a first output power while changing the frequency of the microwave generated by said microwave generator (S13, S24), to determine the frequency of the microwave for processing the object as a processing frequency on the basis of a frequency at which the reflected power detected by said detector takes a minimum or minimal value (S14, S25), and to cause said microwave generator to generate the microwave having the determined processing frequency with a second output power (S16, S27), wherein said first output power is smaller than said second output power.
A bearing of an upper receiver of a firearm having a charging handle, a fire control mechanism, a magazine and an upper receiver comprising a polymer shroud, said bearing being suitable for use with a bolt carrier of said firearm, said bearing comprising: a metal tube configured to be positioned within said upper receiver, said polymer shroud being configured to surround at least a portion of said metal tube, said metal tube having a sidewall defining an inner surface configured to support said bolt carrier and motion thereof between an open position and a battery position; a first opening in said sidewall defining an ejector port; a second opening in said sidewall positioned to permit engagement between said bolt carrier and said charging handle; a third opening in said sidewall for receiving said fire control mechanism or said magazine. a metal tube configured to be positioned within said upper receiver, said polymer shroud being configured to surround at least a portion of said metal tube, said metal tube having a sidewall defining an inner surface configured to support said bolt carrier and motion thereof between an open position and a battery position; a first opening in said sidewall defining an ejector port; a second opening in said sidewall positioned to permit engagement between said bolt carrier and said charging handle; a third opening in said sidewall for receiving said fire control mechanism or said magazine.
An artifactless superelastic alloy comprising an Au-Cu-Al alloy, characterized in that the superelastic alloy contains Cu in an amount of 20 atom% or more and 40 atom% or less, Al in an amount of 15 atom% or more and 25 atom% or less, and Au as a balance, and the superelastic alloy has a bulk magnetic susceptibility of -24 ppm or more and 6 ppm or less measured by a magnetic balance at room temperature. the superelastic alloy contains Cu in an amount of 20 atom% or more and 40 atom% or less, Al in an amount of 15 atom% or more and 25 atom% or less, and Au as a balance, and the superelastic alloy has a bulk magnetic susceptibility of -24 ppm or more and 6 ppm or less measured by a magnetic balance at room temperature.
An aluminum brake caliper manufacturing method using die casting for manufacturing an aluminum brake caliper provided with opposing portions (3a, 3b) opposed to each other with a hollow portion forming a disc housing space interposed in between, and connecting portions connecting the opposing portions (3a, 3b) at two sides thereof, wherein two cylinder forming portions made from a through-hole into which to slidably insert and fit a piston is provided in one of the opposing portions, and another two cylinder forming portions made from a recessed portion is provided in a part of the other opposing portion which is opposed to the plurality of cylinder forming portions, and the through-hole and the recessed portion are formed by use of a core, the method comprising: a die casting step (S-2) of performing casting by pouring molten metal of an aluminum alloy from a gate for the molten metal formed in the opposing portion including the recessed portion via the connecting portions and a bridge connecting the two opposing portions (3a, 3b); and a bridge removing step (S-4) of removing the bridge, wherein the recessed portions are formed respectively in two places in a center portion of the housing space, wherein the bridge is situated in an intermediate portion between the two recessed portions, and wherein the bridge is formed on a straight line from the gate. a die casting step (S-2) of performing casting by pouring molten metal of an aluminum alloy from a gate for the molten metal formed in the opposing portion including the recessed portion via the connecting portions and a bridge connecting the two opposing portions (3a, 3b); and a bridge removing step (S-4) of removing the bridge,
An adhesive distribution device for use in the repair or reconditioning of a hollow profile which is to be repaired for connecting to a repair profile, comprises an adapter body, which has a first insertion-side connecting portion, for inserting into the hollow profile to be repaired, and a second insertion-side connecting portion for inserting into the repair profile, wherein one channel system in each case comprises at least two channels connected together is arranged in each of the insertion-side portions and at least one channel is connected to an injection opening for injecting adhesive into the channel system, wherein further each channel is formed with at least one exit opening for the injected adhesive to emerge from the channel system.
A composition comprising a plurality of nanoparticles, at least a portion of said nanoparticles are nanoparticles comprising a biodegradable water-insoluble polymer selected from the group consisting of polysebacic acid, poly (1,3-bis-carboxyphenonypropane-co-sebacic acid (P(CPP-SA) and poly(D,L-lactide-co-glycolide) (PLGA), and an agent incorporated in said polymer, wherein said nanoparticles are associated with a surface of water-soluble particles comprising mannitol, wherein the nanoparticle is formed by nanoprecipitation, under anhydrous conditions, of the biodegradable water-insoluble polymer in an anti-solvent, the anti-solvent including the mannitol.