mhurhangee/ep-ind-claims huggingface dataset:
A suspended ceiling system comprising: (i) a supporting grid wherein the supporting grid comprises at least two substantially parallel inverted T-profiles, wherein each T-profile comprises a substantially horizontal flange and a substantially vertical web that has an upper end, and wherein the two T-profiles are at substantially the same horizontal elevation, and (ii) suspended between the two T-profiles a substantially planar ceiling panel that has two substantially parallel upper and lower major faces, (iii) wherein the supporting grid comprises a support element fitted on to at least one of the T-profiles wherein the support element provides at least one support surface that is positioned at an elevation higher than the flange of said T-profile, and (iv) wherein one end of the lower major face of the ceiling panel rests on the flange of one T-profile and the other end of the lower major face of the ceiling panel rests on said at least one support surface of the support element that is fitted on to the other T-profile. (i) a supporting grid wherein the supporting grid comprises at least two substantially parallel inverted T-profiles, wherein each T-profile comprises a substantially horizontal flange and a substantially vertical web that has an upper end, and wherein the two T-profiles are at substantially the same horizontal elevation, and (ii) suspended between the two T-profiles a substantially planar ceiling panel that has two substantially parallel upper and lower major faces, (iii) wherein the supporting grid comprises a support element fitted on to at least one of the T-profiles wherein the support element provides at least one support surface that is positioned at an elevation higher than the flange of said T-profile, and (iv) wherein one end of the lower major face of the ceiling panel rests on the flange of one T-profile and the other end of the lower major face of the ceiling panel rests on said at least one support surface of the support element that is fitted on to the other T-profile.
A method for forming a metal oxide nanocomposite heterostructure powder for a sensing layer of a hydrogen sulfide sensor, comprising: mixing a first precursor and a second precursor to form a precursor aqueous mixture; adding at least one constituent to the precursor aqueous mixture to form a first solution; adding at least one nanostructuring reagent to the first solution to form a second solution; sonochemically treating the second solution to provide a metal oxide powder; and filtering the metal oxide powder to provide a metal oxide nanocomposite heterostructure powder for a sensing layer of a hydrogen sulfide sensor. mixing a first precursor and a second precursor to form a precursor aqueous mixture; adding at least one constituent to the precursor aqueous mixture to form a first solution; adding at least one nanostructuring reagent to the first solution to form a second solution; sonochemically treating the second solution to provide a metal oxide powder; and filtering the metal oxide powder to provide a metal oxide nanocomposite heterostructure powder for a sensing layer of a hydrogen sulfide sensor.
A weather shield for being fastened to a hollow sash member profile of a window sash, comprising a number of fasteners for fastening the latter to said hollow sash member profile, each said fastener comprising a head part connected to a connection part, the respective said head parts being positioned abutting an upper surface of said weather shield, the respective said connection parts extending through peripheral holes of said weather shield so as to be adapted to extend into said sash through said holes of said weather shield, each said fastener further comprising a first fastening means for locking said fastener to a corresponding engagement means of said sash on activation of said fastener, thereby fastening said weather shield to said sash, said connection part extending into said first fastening means comprising a radial protrusion with an engagement member for being snap-locked to said corresponding engagement means of said sash on activation of said fastener, thereby fastening said weather shield to said sash, characterized in that said first fastening means of said fastener is adapted to engage and be released from said engagement means of said sash member by means of rotation of said fastener, and wherein a gasket member abutting said upper surface of said weather shield is provided on a lower surface of said head part, elasticity of the gasket providing for an easier fastening of the fastener.
A reporting method, performed by a terminal, comprising: reporting assistance information to a network device, wherein the assistance information is used by the network to configure early measurement reporting for the terminal, characterized in that the assistance information comprises information that no early measurement needs to be configured; or the assistance information comprises information that early measurement needs to be configured, and at least one of the following: information about to-be-measured frequency channel; information about validity timer; or information about validity area. reporting assistance information to a network device, wherein the assistance information is used by the network to configure early measurement reporting for the terminal, characterized in that the assistance information comprises information that no early measurement needs to be configured; or the assistance information comprises information that early measurement needs to be configured, and at least one of the following: information about to-be-measured frequency channel; information about validity timer; or information about validity area. information about to-be-measured frequency channel; information about validity timer; or information about validity area.
A high-temperature burner for use in a burner operation procedure for reduced-NOx combustion with a first startup operating state and a second working operating state, with a chamber that opens into a hearth, a combustion air supply that leads to the chamber, a mixing device arranged in the chamber, wherein the mixing device exhibits a plurality of combustion air passages (21, 22, 23), a fuel supply, which ends in a fuel outlet device downstream from the mixing device, wherein the fuel outlet device exhibits a perfectly cylindrical jacket and a front surface that closes off the fuel outlet device relative to the chamber, wherein the jacket exhibits a plurality of fuel passages, and the front surface has allocated to it at least one fuel passage, and an ignition device arranged in the chamber, wherein the mixing device has a disk-shaped design and abuts against the chamber wall, wherein the combustion air passages (21, 22, 23) are arranged on the mixing device in such a way that an outer annular space of the mixing device is free of combustion air passages, and wherein the combustion air passages (21, 22, 23) each exhibit an angle of attack β x > 0° to the chamber axis, characterized in that the combustion air passages (21, 22, 23) are situated on at least two circles (a, b, c) on the mixing device, and a radial angle of twist α y, wherein an angle of attack β a of the combustion air passages is smaller on the outermost ring (c) than an angle of attack β i of the combustion air passages on the innermost ring (a), wherein the angle of twist α a of the combustion air passages is larger on the outermost ring (c) than the angle of twist α i of the combustion air passages on the innermost (a) ring, and wherein the angle of twist α a of the combustion air passages on the outermost ring (c) measures between 5 and 60°, and wherein the combustion air passages (21, 22, 23) are arranged or dimensioned in such a way that the combustion air quantity passing through the combustion air passages (21, 22, 23) increases radially outwardly.
A multifunctional (meth)acrylate manufacturing method, wherein the following catalyst A and catalyst B are used in combination for manufacturing a multifunctional (meth)acrylate by a transesterification of a polyhydric alcohol having three or more alcoholic hydroxyl groups with a monofunctional (meth)acrylate: Catalyst A: one or more kinds of compounds selected from the group consisting of cyclic tertiary amines with an azabicyclo structure or salts or complexes thereof, amidines or salts or complexes thereof, and compounds with a pyridine ring or salts or complexes thereof, Catalyst B: one or more kinds of compounds selected from the group consisting of zinc-containing compounds. Catalyst A: one or more kinds of compounds selected from the group consisting of cyclic tertiary amines with an azabicyclo structure or salts or complexes thereof, amidines or salts or complexes thereof, and compounds with a pyridine ring or salts or complexes thereof, Catalyst B: one or more kinds of compounds selected from the group consisting of zinc-containing compounds.
Method for sampling soil, comprising attaching a frame assembly (110, 120) to a vehicle positioned on a soil surface; rotating a proximate section of a rotatable arm by an impelling device around a first axis with respect to the frame assembly (110,120) characterized by: the rotatable arm further having a distant section pivotably connected with the proximate section, the distant section including a soil probe, in such a way that the rotatable arm, during operation, describes a repeating, oscillating pattern with respect to the frame assembly (110, 120), the pattern including - a first phase wherein the soil probe is operable to retract a sample of soil, and - a second phase wherein the soil probe is operable to engage with a soil removing device in order to detach the sample of soil from the soil probe. the rotatable arm further having a distant section pivotably connected with the proximate section, the distant section including a soil probe, in such a way that the rotatable arm, during operation, describes a repeating, oscillating pattern with respect to the frame assembly (110, 120), the pattern including - a first phase wherein the soil probe is operable to retract a sample of soil, and - a second phase wherein the soil probe is operable to engage with a soil removing device in order to detach the sample of soil from the soil probe. - a first phase wherein the soil probe is operable to retract a sample of soil, and - a second phase wherein the soil probe is operable to engage with a soil removing device in order to detach the sample of soil from the soil probe.
A filter element (100; 200), comprising: a canister circumscribing a central axis and including a tap plate (154; 254) at an end of the canister, the tap plate (154; 254) including a central threaded opening (156; 256) along the central axis of the canister, and a first outer opening (174; 274) radially spaced between the central opening (156; 256) and a periphery of the tap plate (154; 254); media supported centrally within the canister; characterised in that the filter element further comprises: a spinning disc element (150; 250) supported for rotation on the tap plate (154; 254), a first keyed protrusion (170; 270) projecting outwardly from the spinning disc element (150; 250), the first keyed protrusion (170; 270) defining a first flow opening (172; 272); wherein the spinning disc element (150; 250) is rotatable about the central axis when under an external force, and wherein the first outer opening (174; 274) is in fluid communication with the first flow opening (172; 272) of the first keyed protrusion (170; 270) such that fluid can pass between the first flow opening (172; 272) of the first keyed protrusion (170; 270) and the first outer opening (174; 274) in the tap plate (154; 254) into or out of the canister. a canister circumscribing a central axis and including a tap plate (154; 254) at an end of the canister, the tap plate (154; 254) including a central threaded opening (156; 256) along the central axis of the canister, and a first outer opening (174; 274) radially spaced between the central opening (156; 256) and a periphery of the tap plate (154; 254); media supported centrally within the canister; characterised in that the filter element further comprises: a spinning disc element (150; 250) supported for rotation on the tap plate (154; 254), a first keyed protrusion (170; 270) projecting outwardly from the spinning disc element (150; 250), the first keyed protrusion (170; 270) defining a first flow opening (172; 272); wherein the spinning disc element (150; 250) is rotatable about the central axis when under an external force, and wherein the first outer opening (174; 274) is in fluid communication with the first flow opening (172; 272) of the first keyed protrusion (170; 270) such that fluid can pass between the first flow opening (172; 272) of the first keyed protrusion (170; 270) and the first outer opening (174; 274) in the tap plate (154; 254) into or out of the canister. a spinning disc element (150; 250) supported for rotation on the tap plate (154; 254), a first keyed protrusion (170; 270) projecting outwardly from the spinning disc element (150; 250), the first keyed protrusion (170; 270) defining a first flow opening (172; 272); wherein the spinning disc element (150; 250) is rotatable about the central axis when under an external force, and wherein the first outer opening (174; 274) is in fluid communication with the first flow opening (172; 272) of the first keyed protrusion (170; 270) such that fluid can pass between the first flow opening (172; 272) of the first keyed protrusion (170; 270) and the first outer opening (174; 274) in the tap plate (154; 254) into or out of the canister.
A method for producing a compound containing a reactive moiety and a cleavable therapeutic moiety, comprising reacting a first compound containing an azide-containing group of formula or a first compound containing an acetylene-containing group of formula or a pharmaceutically acceptable salt or solvate thereof, with a second compound containing a reactive moiety and an acetylene group or azide group, respectively, in a single step under formation of a third compound containing a triazole and a reactive moiety of formula or, respectively or a pharmaceutically acceptable salt or solvate thereof, wherein each L 2 is independently either a bond or a linking group linking RM to one or more triazole groups; each L 1 is independently either a bond or a linking group linking the triazole, azide, or acetylene group to one or more V 1 and/or Y; each V 1 is a peptide; each Y is a self-eliminating spacer system selected from and from the formulae depicted above that further comprise one or more ω-amino aminocarbonyl cyclization spacers connected to the right-hand side of the formulae; each Z is an anti-cancer agent, and each Z is directly coupled to Y; q, r, and s are numbers representing degree of branching and are each independently a positive integer; z is an integer ≥ 1 and equal to or smaller than the total number of attachment sites for Z in the one or more V 1 -Y moieties; and each RM is each L 2 is independently either a bond or a linking group linking RM to one or more triazole groups; each L 1 is independently either a bond or a linking group linking the triazole, azide, or acetylene group to one or more V 1 and/or Y; each V 1 is a peptide; each Y is a self-eliminating spacer system selected from and from the formulae depicted above that further comprise one or more ω-amino aminocarbonyl cyclization spacers connected to the right-hand side of the formulae; each Z is an anti-cancer agent, and each Z is directly coupled to Y; q, r, and s are numbers representing degree of branching and are each independently a positive integer; z is an integer ≥ 1 and equal to or smaller than the total number of attachment sites for Z in the one or more V 1 -Y moieties; and each RM is
A device for placing a fastening element (10, 30) on a receiving element, the device comprising: - a body, and - a head comprising a housing for receiving the fastening element (10, 30), the head being mounted sliding along a sliding direction relative to the body between a storage position of the fastening element (10, 30) in the body, and a placement position of the fastening element (10, 30) on the receiving element, the housing being delimited by a bottom, able to receive a complementary surface (20, 34) of the fastening element (10, 30), and first and second retaining surfaces, configured to retain the fastening element (10, 30) between them, the bottom and the first and second retaining surfaces (74, 76) being stationary relative to one another during the movement of the head from the storage position toward the placement position, characterized in that it comprises at least one blocking member, able to block the device against the receiving element during the placement of the fastening element (10, 30) on the receiving element, the or each blocking element being arranged to prevent the movement of the device during the movement of the head from the storage position toward the placement position. - a body, and - a head comprising a housing for receiving the fastening element (10, 30),
A catalyst comprising a carrier and silver deposited on the carrier, wherein the catalyst has been obtained by a process comprising: a) selecting a carrier which comprises at least 85 weight percent α-alumina and which has a surface area in the range of from 1.5 m 2 /g to 2 m 2 /g, as determined by the nitrogen BET method, a median pore diameter as measured by mercury intrusion porosimetry to a pressure of 2.1 x10 8 Pa of more than 0.8 μm, and a pore size distribution, as measured by mercury intrusion porosimetry to a pressure of 2.1 x10 8 Pa, wherein at least 80 % of the total pore volume is contained in pores with diameters in the range of from 0.1 to 10 μm and at least 80 % of the pore volume contained in the pores with diameters in the range of from 0.1 to 10 μm is contained in pores with diameters in the range of from 0.3 to 10 μm, and b) depositing silver on the carrier. a) selecting a carrier which comprises at least 85 weight percent α-alumina and which has a surface area in the range of from 1.5 m 2 /g to 2 m 2 /g, as determined by the nitrogen BET method, a median pore diameter as measured by mercury intrusion porosimetry to a pressure of 2.1 x10 8 Pa of more than 0.8 μm, and a pore size distribution, as measured by mercury intrusion porosimetry to a pressure of 2.1 x10 8 Pa, wherein at least 80 % of the total pore volume is contained in pores with diameters in the range of from 0.1 to 10 μm and at least 80 % of the pore volume contained in the pores with diameters in the range of from 0.1 to 10 μm is contained in pores with diameters in the range of from 0.3 to 10 μm, and b) depositing silver on the carrier.
A tissue-targeting complex comprising: - a tissue targeting moiety bound to a structure selected from the list consisting of: and and - the 4+ ion of the alpha-emitting 227-thorium radionuclide. - a tissue targeting moiety bound to a structure selected from the list consisting of: and and - the 4+ ion of the alpha-emitting 227-thorium radionuclide.
A prosthetic foot (10a, 10b, 10c, 10d, 10e, 10f) comprising: an elongate monolithic foot element (100, 100a, 100b, 100c) extending from a heel end to a toe end and having an arch portion therebetween, wherein the foot element (100, 100a, 100b, 100c) comprising a generally U-shaped cut-out portion at the toe end that is positioned toward a medial side of a longitudinal axis of the foot element (100, 100a, 100b, 100c), the cut-out portion dividing the toe end into a medial toe and a lateral toe portion, the foot element (100, 100a, 100b, 100c) further comprising a lengthwise split (30a, 30b, 30c), wherein a first portion of the split runs substantially straight in an anterior/posterior direction and a second portion is curved, characterized in that a ratio of a width of at least a portion of a forefoot portion of the monolithic foot element relative to a length of the foot element is approximately 30%, the medial toe being longer and extending further distally than the lateral toe portion; and a forefoot piece coupled to a bottom surface of at least a portion of the forefoot portion, the forefoot piece generally sized and shaped to correspond to the forefoot portion and the toe portion of the foot element, a distal end of the forefoot piece including a cut-out corresponding in shape and size to the U-shaped cut-out portion of the foot element. a ratio of a width of at least a portion of a forefoot portion of the monolithic foot element relative to a length of the foot element is approximately 30%, the medial toe being longer and extending further distally than the lateral toe portion; and a forefoot piece coupled to a bottom surface of at least a portion of the forefoot portion, the forefoot piece generally sized and shaped to correspond to the forefoot portion and the toe portion of the foot element, a distal end of the forefoot piece including a cut-out corresponding in shape and size to the U-shaped cut-out portion of the foot element.
A medical lead for implantation comprising: an electrode assembly (30, 110) comprising a plurality of electrodes (20, 22, 24, 26); wherein each of the plurality of electrodes (20, 22, 24, 26) comprise a plurality of electrode segments (20a, 22a, 24a, 26a) and wherein each electrode segment (20a, 22a, 24a, 26a) has a flexible conductor (42, 44, 46, 48) directly coupled to it; a strut coupled within the plurality of electrodes (20, 22, 24, 26) such that each of the flexible conductors (42, 44, 46, 48) coupled to the plurality of electrode segments (20a, 22a, 24a, 26a) are supported between the strut and each of the plurality of electrodes (20, 22, 24, 26) by the strut; and an insulator filling gaps between the plurality of electrodes (20, 22, 24, 26), the strut and the flexible conductors (42, 44, 46, 48), characterized in that the strut comprises a stop configured to engage the electrode assembly and ensure proper relative positioning of the strut and electrode assembly. an electrode assembly (30, 110) comprising a plurality of electrodes (20, 22, 24, 26); wherein each of the plurality of electrodes (20, 22, 24, 26) comprise a plurality of electrode segments (20a, 22a, 24a, 26a) and wherein each electrode segment (20a, 22a, 24a, 26a) has a flexible conductor (42, 44, 46, 48) directly coupled to it; a strut coupled within the plurality of electrodes (20, 22, 24, 26) such that each of the flexible conductors (42, 44, 46, 48) coupled to the plurality of electrode segments (20a, 22a, 24a, 26a) are supported between the strut and each of the plurality of electrodes (20, 22, 24, 26) by the strut; and an insulator filling gaps between the plurality of electrodes (20, 22, 24, 26), the strut and the flexible conductors (42, 44, 46, 48), characterized in that the strut comprises a stop configured to engage the electrode assembly and ensure proper relative positioning of the strut and electrode assembly.
An airbag module for an aircraft passenger door comprising: (a) an airbag, (b) an inflator coupled to the airbag; wherein the inflator is configured to release a pressurized gas when activated; characterized in that the airbag module further comprises: (c) a door bustle; said airbag and the inflator are positioned adjacent the door bustle; and (d) a pneumatic system coupled to the inflator and the airbag, wherein the pneumatic system comprises a slide lock that is configured to couple a girt bar of an escape slide to a passenger door sill when the inflator is activated. (a) an airbag, (b) an inflator coupled to the airbag; wherein the inflator is configured to release a pressurized gas when activated; (c) a door bustle; said airbag and the inflator are positioned adjacent the door bustle; and (d) a pneumatic system coupled to the inflator and the airbag, wherein the pneumatic system comprises a slide lock that is configured to couple a girt bar of an escape slide to a passenger door sill when the inflator is activated.