mhurhangee/patent-ind-claim-en huggingface dataset:
Pressure sensor comprising: - a pressure sensitive membrane suspended over a first cavity , wherein the membrane is secured by a set of anchors to a substrate ; and - a getter material embedded in the membrane , wherein the surface of the getter is in contact with any gas within the cavity , characterized in that the getter material comprises a thin getter wire having two end points, and wherein the two end points of the getter wire are attached to a current source through the substrate by anchors capable of conducting through the substrate an electrical current through the getter wire. - a pressure sensitive membrane suspended over a first cavity , wherein the membrane is secured by a set of anchors to a substrate ; and - a getter material embedded in the membrane , wherein the surface of the getter is in contact with any gas within the cavity , characterized in that the getter material comprises a thin getter wire having two end points, and wherein the two end points of the getter wire are attached to a current source through the substrate by anchors capable of conducting through the substrate an electrical current through the getter wire.
Table panel for an aircraft passenger seat , in particular an aircraft passenger seat table panel, wherein the table panel comprises a panel component having two mutually opposite main sides , wherein the panel component at least substantially predefines a thickness dimension and a footprint area of the table panel , and wherein the main sides are delimited by a component periphery having straight peripheral portions, wherein the panel component has a multiplicity of mutually separated material clearances (42, 47-55, 59) so that the panel component has a reduced mass in relation to a solid material panel that in terms of the thickness and the footprint area corresponds to the panel component and has an initial volume of the solid material, wherein the material clearances (42, 47-55, 59) are in each case open in relation to a main side of the panel component , and wherein the sum of the volumes of all material clearances (42, 47-55, 59) in the panel component result in a clearance volume of the panel component , wherein the clearance volume of the panel component is at least 20 percent of the initial volume, wherein the material clearances (42, 47-55, 59) are configured according to a regular pattern, characterized in that the material clearances (42, 47-55, 59) differ from one another in terms of the length of the extent in the longitudinal direction of the respective material clearance (42, 47-55, 59), wherein the pattern comprises at least approximately elongate, or linear, narrow groovetype material clearances (42, 47-55, 59).
A process for producing a peroxycarboxylic acid comprising: (a) providing a set of reaction components comprising: at least one substrate selected from triacetin and 4-acetoxybenzoic acid; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 8, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 299 of SEQ ID NO: 8 is not glutamic acid; (b) combining the set of reaction components under suitable reaction conditions whereby peroxycarboxylic acid is produced; and (c) optionally diluting the peroxycarboxylic acid produced in step (b). (a) providing a set of reaction components comprising: at least one substrate selected from triacetin and 4-acetoxybenzoic acid; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 8, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 299 of SEQ ID NO: 8 is not glutamic acid; at least one substrate selected from triacetin and 4-acetoxybenzoic acid; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 8, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 299 of SEQ ID NO: 8 is not glutamic acid; (b) combining the set of reaction components under suitable reaction conditions whereby peroxycarboxylic acid is produced; and (c) optionally diluting the peroxycarboxylic acid produced in step (b).
A method for producing resin particles by bringing a pre-molded article in which resin particles are dispersed in a water-soluble matrix into contact with an aqueous solvent to elute the matrix; wherein the water-soluble matrix comprises a water-soluble polyvinyl alcohol-based resin and a water-soluble saccharide; and the water-soluble polyvinyl alcohol-based resin comprises a modified polyvinyl alcohol-based resin comprising a side chain comprising an alkyl group or alkyl chain, the alkyl group or alkyl chain comprising at least one hydroxyl group. wherein the water-soluble matrix comprises a water-soluble polyvinyl alcohol-based resin and a water-soluble saccharide; and the water-soluble polyvinyl alcohol-based resin comprises a modified polyvinyl alcohol-based resin comprising a side chain comprising an alkyl group or alkyl chain, the alkyl group or alkyl chain comprising at least one hydroxyl group.
Sack for mailing at least one item or for dunnage, formed by two facing panels sealed along the perimeter, wherein each panel is two-ply with an inner ply and an outer ply , wherein said inner ply includes a layer of paper having a grammage 35 to 450 g/m 2 and a film of an extruded or laminated polymer covering one face of said layer of paper and said outer ply includes a layer of paper having a grammage 35 to 450 g/m 2 and a film of an extruded or laminated polymer covering one face of said layer of paper, and wherein a plurality of hermetically sealed individual air pockets are trapped between said inner and outer plies . wherein each panel is two-ply with an inner ply and an outer ply , wherein said inner ply includes a layer of paper having a grammage 35 to 450 g/m 2 and a film of an extruded or laminated polymer covering one face of said layer of paper and said outer ply includes a layer of paper having a grammage 35 to 450 g/m 2 and a film of an extruded or laminated polymer covering one face of said layer of paper, and wherein a plurality of hermetically sealed individual air pockets are trapped between said inner and outer plies .
A mobile terminal , comprising: an antenna comprising: a first radiation part , a matching circuit , and a feed source , wherein the first radiation part comprises a first radiator , a second radiator , and a capacitor structure that is configured as a series-distributed capacitor structure in a composite right/left-handed transmission line configuration, the feed source is connected to a grounding part ; and wherein a first end of the first radiator is connected to the feed source by using the matching circuit, a second end of the first radiator is connected to a first end of the second radiator by using the capacitor structure, a second end of the second radiator is connected to the grounding part, the second radiator is configured as a parallel distributed inductor in the composite right/left-handed transmission line configuration , and the first radiation part is configured to generate a first resonance frequency. a first radiation part , a matching circuit , and a feed source , wherein the first radiation part comprises a first radiator , a second radiator , and a capacitor structure that is configured as a series-distributed capacitor structure in a composite right/left-handed transmission line configuration, the feed source is connected to a grounding part ; and wherein a first end of the first radiator is connected to the feed source by using the matching circuit, a second end of the first radiator is connected to a first end of the second radiator by using the capacitor structure, a second end of the second radiator is connected to the grounding part, the second radiator is configured as a parallel distributed inductor in the composite right/left-handed transmission line configuration , and the first radiation part is configured to generate a first resonance frequency.
A method for manufacturing a black or anthracite coloured material comprising at least 18 carats of gold, formed from an assembly of gold nanoparticles in a titanium dioxide matrix; the method comprising the steps of: providing in a reactor a mixture comprising a gold precursor, a titanium dioxide precursor, and a solvent including water, an alcoholic solvent, and a polar aprotic solvent; heating the mixture to a first temperature (T1) so as to reduce the gold precursor and form the titanium dioxide matrix; once the mixture has reached the first temperature (T1), adding a hydrazine compound to the mixture, after addition of the hydrazine compound, maintaining the mixture at the first temperature (T1), the heating step being combined with stirring, so as to obtain a suspension formed by the gold particles embedded in titanium dioxide; after reaction of the hydrazine compound with the mixture, separating said material by a filtration step to recover a powder comprising the gold particles in the titanium dioxide matrix; compacting the powder using a sintering process; in which the black or anthracite colour is characterised in the CIELAB color space L*a*b* by the parameters 0 < a* < 5, 0 < b* < 8 and 30 < L* < 70. providing in a reactor a mixture comprising a gold precursor, a titanium dioxide precursor, and a solvent including water, an alcoholic solvent, and a polar aprotic solvent; heating the mixture to a first temperature (T1) so as to reduce the gold precursor and form the titanium dioxide matrix; once the mixture has reached the first temperature (T1), adding a hydrazine compound to the mixture, after addition of the hydrazine compound, maintaining the mixture at the first temperature (T1), the heating step being combined with stirring, so as to obtain a suspension formed by the gold particles embedded in titanium dioxide; after reaction of the hydrazine compound with the mixture, separating said material by a filtration step to recover a powder comprising the gold particles in the titanium dioxide matrix; compacting the powder using a sintering process; in which the black or anthracite colour is characterised in the CIELAB color space L*a*b* by the parameters 0 < a* < 5, 0 < b* < 8 and 30 < L* < 70.
A method of ion mobility separation comprising: providing an ion mobility separator separation region (IMS) and an ion trap for releasing packets of ions into the IMS ; and characterised by : selecting a predetermined maximum charge desired to be released into the IMS in each packet of ions released from the ion trap into the IMS ; releasing a first packet of ions from the ion trap ; detecting the charge of ions in the first packet of ions using a detector ; determining a difference between the charge detected by the detector and said predetermined maximum charge; and releasing a second, subsequent packet of ions from the ion trap into the IMS , wherein the formation of the second packet of ions is controlled based on the difference between the charge detected in the first packet of ions and the predetermined maximum charge, such that the charge of ions in the second packet of ions is substantially the same or less than said predetermined maximum charge. selecting a predetermined maximum charge desired to be released into the IMS in each packet of ions released from the ion trap into the IMS ; releasing a first packet of ions from the ion trap ; detecting the charge of ions in the first packet of ions using a detector ; determining a difference between the charge detected by the detector and said predetermined maximum charge; and releasing a second, subsequent packet of ions from the ion trap into the IMS , wherein the formation of the second packet of ions is controlled based on the difference between the charge detected in the first packet of ions and the predetermined maximum charge, such that the charge of ions in the second packet of ions is substantially the same or less than said predetermined maximum charge.
Method for producing a soft-magnetic body , comprising the following steps: a) providing a soft-magnetic powder having powder particles made of a soft-magnetic material , b) coating the powder particles with an insulating coating material , wherein the sintering temperature of the coating material is lower than the sintering temperature of the soft-magnetic material , c) heat-treating the coating material in such a way that a sintering and/or melting of the powder particles is avoided during the heat treatment, wherein according to step c) a process pressure used for the heat treatment is adapted in such a way that sintering and/or melting of the powder particles is avoided, wherein the coating material is obtained from a starting material and, after coating, the coating material is present in an oxidic and/or fine-particulate structure, wherein the coating material is vitrified by the sintering, characterized in that after step c), a thermal aftertreatment takes place via hot isostatic pressing. a) providing a soft-magnetic powder having powder particles made of a soft-magnetic material , b) coating the powder particles with an insulating coating material , wherein the sintering temperature of the coating material is lower than the sintering temperature of the soft-magnetic material , c) heat-treating the coating material in such a way that a sintering and/or melting of the powder particles is avoided during the heat treatment, wherein according to step c) a process pressure used for the heat treatment is adapted in such a way that sintering and/or melting of the powder particles is avoided, wherein
A method for producing titanium oxide dispersion in the sol form containing a phosphorus compound represented by the following Formula : in which R 1 is a hydrogen atom, an alkyl group, an alkynyl group, an alkenyl group, an aryl group, an aliphatic heterocyclic group, or an aromatic heterocyclic group; R 2 is an organic residue; and n is 1 or 2 which comprises hydrolysis and condensation of titanium alkoxide or titanium halide in the presence of said phosphorus compound.
A device for affixing to a surface, referred to as the surface to be marked , one or more assemblies, referred to as the marking assemblies , each comprising at least one adhesive film (3, 3', 3"), each marking assembly being intended to be applied to an area, referred to as the area to be marked , of the surface to be marked , the device comprising: - at least one fixing means configured to fix the device to the surface to be marked , - a sheet, referred to as the frame sheet , and - one or more means, referred to as the laying means , each laying means being configured to apply a marking assembly comprising at least one adhesive film (3, 3', 3") to an area to be marked and comprising: - a portion, referred to as the protection portion , configured to cover the area to be marked when attaching the device to the surface to be marked , and - a portion, referred to as the application portion , comprising: - a portion, referred to as the support portion , part of which, referred to as the free part of the support portion, is separate or detachable from the frame sheet , and - the marking assembly , wherein: - the marking assembly is sandwiched between the free part of the support portion and the protective portion so that the face of the marking assembly which is intended to be applied to the area to be marked is in contact with the protective portion and - the application portion is detachable from the protection portion . - at least one fixing means configured to fix the device to the surface to be marked , - a sheet, referred to as the frame sheet , and - one or more means, referred to as the laying means , each laying means being configured to apply a marking assembly comprising at least one adhesive film (3, 3', 3") to an area to be marked and comprising: - a portion, referred to as the protection portion , configured to cover the area to be marked when attaching the device to the surface to be marked , and - a portion, referred to as the application portion , comprising: - a portion, referred to as the support portion , part of which, referred to as the free part of the support portion, is separate or detachable from the frame sheet , and - the marking assembly , - a portion, referred to as the protection portion , configured to cover the area to be marked when attaching the device to the surface to be marked , and - a portion, referred to as the application portion , comprising: - a portion, referred to as the support portion , part of which, referred to as the free part of the support portion, is separate or detachable from the frame sheet , and - the marking assembly , - a portion, referred to as the support portion , part of which, referred to as the free part of the support portion, is separate or detachable from the frame sheet , and - the marking assembly , - the marking assembly is sandwiched between the free part of the support portion and the protective portion so that the face of the marking assembly which is intended to be applied to the area to be marked is in contact with the protective portion and - the application portion is detachable from the protection portion .
A MEMS device (20; 120; 220; 420) comprising: a die (24; 124; 224) defining a cavity ; an anchorage portion (24'; 124'; 224'; 424') formed by the die; a tiltable structure (22; 122; 222; 422) elastically suspended over the cavity (23; 123; 223) and having a main extension in a horizontal plane (XY) defined by a first and a second horizontal axis (X, Y) perpendicular to each other; a first and a second supporting arm (25A, 25B; 425A, 425B) extending between the anchorage portion and opposite sides of the tiltable structure; and a first and a second resonant piezoelectric actuation structure (30A1, 30A2; 430A1, 430A2) configured to be biased and cause rotation of the tiltable structure (22; 122; 222; 422) about a rotation axis (A) parallel to the first horizontal axis (X), wherein the first supporting arm comprises a first and a second torsion spring (27A, 28A; 127A, 128A; 227A, 228A; 427A, 428A) rigid to movements out of the horizontal plane (XY) and compliant to torsion about the rotation axis (A), the first torsion spring (27A; 127A; 227A; 427A) being coupled to the tiltable structure, the second torsion spring (28A; 128A; 228A; 428A) being coupled to the anchorage portion, the first and the second torsion springs being coupled together at a first constraint region (29A; 129A; 429A); and characterized in that the first and the second resonant piezoelectric actuation structures (30A1, 30A2; 430A1, 430A2) extend between the anchorage portion and the first constraint region , on a first and a second side, respectively, of the first supporting arm . a die (24; 124; 224) defining a cavity ; an anchorage portion (24'; 124'; 224'; 424') formed by the die; a tiltable structure (22; 122; 222; 422) elastically suspended over the cavity (23; 123; 223) and having a main extension in a horizontal plane (XY) defined by a first and a second horizontal axis (X, Y) perpendicular to each other; a first and a second supporting arm (25A, 25B; 425A, 425B) extending between the anchorage portion and opposite sides of the tiltable structure; and a first and a second resonant piezoelectric actuation structure (30A1, 30A2; 430A1, 430A2) configured to be biased and cause rotation of the tiltable structure (22; 122; 222; 422) about a rotation axis (A) parallel to the first horizontal axis (X), wherein the first supporting arm comprises a first and a second torsion spring (27A, 28A; 127A, 128A; 227A, 228A; 427A, 428A) rigid to movements out of the horizontal plane (XY) and compliant to torsion about the rotation axis (A), the first torsion spring (27A; 127A; 227A; 427A) being coupled to the tiltable structure, the second torsion spring (28A; 128A; 228A; 428A) being coupled to the anchorage portion, the first and the second torsion springs being coupled together at a first constraint region (29A; 129A; 429A); and characterized in that the first and the second resonant piezoelectric actuation structures (30A1, 30A2; 430A1, 430A2) extend between the anchorage portion and the first constraint region , on a first and a second side, respectively, of the first supporting arm .
A compound of Formula (I) or pharmaceutically acceptable salt thereof: wherein R 1 is halogen; cyano; C 1-6 straight alkyl; C 3-4 branched alkyl; C 1-6 straight alkoxy; C 3-4 branched alkoxy; methyl substituted by one or more fluoro; ethyl substituted by one or more fluoro; methoxy substituted by one or more fluoro; or ethoxy substituted by one or more fluoro.
An assembly-type packaging box which is obtained by erecting a front panel and a rear panel along valley fold lines respectively in front of and behind a bottom panel and by sequentially folding outer panels (18 and 21), upper-edge panels (19 and 22), and inner panels (20 and 23) which panels are sequentially connected to right and left of the bottom panel across valley fold lines, such that rear folding tabs extending from each side of the rear panel are folded in between the outer panels and the inner panels , and the upper-edge panels (19 and 22) form a frame having a predetermined width at an opening portion, wherein a folding protrusion (20b or 23b), which fixes a position of each upper-edge panel (19 or 22) by abutting on each rear folding tab (16 or 17) folded in between the outer panels and the inner panels , is formed on a side of each inner panel (20 or 23), characterised in that front folding tabs extending from each side of the front panel are formed on the front panel and folded in between the outer panels and the inner panels , and the front folding tabs and the rear folding tabs are connected between the outer panels and the inner panels ; and a top panel and a front cover panel are further connected to the rear panel across valley fold lines, and front-panel inserting tabs connected to each side of the front cover panel across a valley fold line are inserted between the outer panels and the front folding tabs
A composition for glass consisting of, based on the total number of moles of the components, on an oxide basis, 68-73 mol% SiO 2 , 11.5-15 mol% Al 2 O 3 , 2-6 mol% MgO, 2.5-7.5 mol% CaO, 0-3 mol% SrO, 2-7 mol% BaO, 0-4 mol% ZnO, 0.05-1.5 mol% TiO 2 and a fining agent.
A process for producing a storable and swellable molded body out of bacterial cellulose, this process comprising the following steps: i) Providing a molded body made of bacterial cellulose; ii) Mechanical pressing of subareas of the molded body to selectively change the swelling capacity at temperatures in the range of 10°C to 100°C and pressing in the range of 0.0005 to 1.5 MPa for 10-200 min.; iii) Treating the pressed molded body with a solution comprising: 20 weight % to 50 weight % glycerol and 50 weight % to 80 weight % of a C1-C3 alcohol/water mixture; and iv) Drying the treated molded body . i) Providing a molded body made of bacterial cellulose; ii) Mechanical pressing of subareas of the molded body to selectively change the swelling capacity at temperatures in the range of 10°C to 100°C and pressing in the range of 0.0005 to 1.5 MPa for 10-200 min.; iii) Treating the pressed molded body with a solution comprising: 20 weight % to 50 weight % glycerol and 50 weight % to 80 weight % of a C1-C3 alcohol/water mixture; and iv) Drying the treated molded body .