mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula (IA) having an argyrodite-type crystal structure: Li x Fe y Q w P z S u X t (IA) wherein: X is absent or is selected from the group consisting of Cl, Br and I, x is 8-22, y is 0.1-3, w is 0, z is 0.1-3, u is 7-20, and t is 0-8. X is absent or is selected from the group consisting of Cl, Br and I, x is 8-22, y is 0.1-3, w is 0, z is 0.1-3, u is 7-20, and t is 0-8.
Method of operating a user equipment in a Radio Access Network, the method comprising transmitting signaling in a first transmission timing structure starting at a starting symbol, the starting symbol being determined based on a received transmission timing structure indication, the transmission timing structure indication indicating the first transmission timing structure, characterised in that , if the first transmission timing structure is the transmission timing structure of reception of the transmission timing structure indication, the starting symbol is determined considering a processing timing.
Fixing apparatus comprising a transport rod, for fixing the transport rod in an opening of a laundry care appliance and for closing the opening , wherein the fixing apparatus comprises at least the following features: - a laundry care appliance component comprising the opening which is designed for the insertion of the transport rod ; and - a fixing device which is non-releasably connected to the laundry care appliance component and is designed to fix the transport rod inserted into the opening in a fixed position of the fixing device and to close the opening in a closed position of the fixing device ; and - the fixing device has at least one fixing element and a closing surface device , wherein the fixing element is designed to fix the transport rod received in the opening in the fixing position of the fixing device , and the closing surface device is designed to close the opening in the closed position of the fixing device . - a laundry care appliance component comprising the opening which is designed for the insertion of the transport rod ; and - a fixing device which is non-releasably connected to the laundry care appliance component and is designed to fix the transport rod inserted into the opening in a fixed position of the fixing device and to close the opening in a closed position of the fixing device ; and - the fixing device has at least one fixing element and a closing surface device , wherein the fixing element is designed to fix the transport rod received in the opening in the fixing position of the fixing device , and the closing surface device is designed to close the opening in the closed position of the fixing device .
A composite pressure vessel liner that is made of a steel material including: a chemical composition containing, in mass%, C: 0.30 % to 0.60 %, Si: 0.01 % to 2.0 %, Mn: 0.5 % to 3.0 %, P: 0.0005 % to 0.060 %, S: 0.0001 % to 0.010 %, N: 0.0001 % to 0.010 %, and Al: 0.01 % to 0.08 %, optionally, in mass%, one or more selected from the group consisting of Mo: 0.005 % to 2.0 %, Cr: 0.005 % to 3.0 %, Ni: 0.005 % to 3.0 %, B: 0.0005 % to 0.003 %, Cu: 1.0 % or less, and Ca: 0.005 % or less, with the balance being Fe and inevitable impurities; and a metallic microstructure in which an area fraction of martensite at a position of 1/4 of a wall thickness on an inner side is 30 % or more, a total area fraction of martensite and bainite at the position of 1/4 of the wall thickness on the inner side is 95 % or more, and a total area fraction of martensite and bainite in a wall thickness center part is 95 % or more, wherein the composite pressure vessel liner has a wall thickness of 20 mm or more in a longitudinal center part, and a tensile strength of 850 MPa or more in the wall thickness center part. a chemical composition containing, in mass%, C: 0.30 % to 0.60 %, Si: 0.01 % to 2.0 %, Mn: 0.5 % to 3.0 %, P: 0.0005 % to 0.060 %, S: 0.0001 % to 0.010 %, N: 0.0001 % to 0.010 %, and Al: 0.01 % to 0.08 %, C: 0.30 % to 0.60 %, Si: 0.01 % to 2.0 %, Mn: 0.5 % to 3.0 %, P: 0.0005 % to 0.060 %, S: 0.0001 % to 0.010 %, N: 0.0001 % to 0.010 %, and Al: 0.01 % to 0.08 %, optionally, in mass%, one or more selected from the group consisting of Mo: 0.005 % to 2.0 %, Cr: 0.005 % to 3.0 %, Ni: 0.005 % to 3.0 %, B: 0.0005 % to 0.003 %, Cu: 1.0 % or less, and Ca: 0.005 % or less, Mo: 0.005 % to 2.0 %, Cr: 0.005 % to 3.0 %, Ni: 0.005 % to 3.0 %, B: 0.0005 % to 0.003 %, Cu: 1.0 % or less, and Ca: 0.005 % or less, with the balance being Fe and inevitable impurities; and a metallic microstructure in which an area fraction of martensite at a position of 1/4 of a wall thickness on an inner side is 30 % or more, a total area fraction of martensite and bainite at the position of 1/4 of the wall thickness on the inner side is 95 % or more, and a total area fraction of martensite and bainite in a wall thickness center part is 95 % or more, wherein the composite pressure vessel liner has a wall thickness of 20 mm or more in a longitudinal center part, and a tensile strength of 850 MPa or more in the wall thickness center part.
A sheet molding compound comprising: a fiber substrate (A) comprising carbon fiber; and a thermosetting resin composition (B), wherein an average fiber length of the carbon fiber is 5 mm or more, and a volumetric molding shrinkage rate (as measured according to the description) of the thermosetting resin composition (B) is 0.5% or more and 4.4% or less. a fiber substrate (A) comprising carbon fiber; and a thermosetting resin composition (B), wherein an average fiber length of the carbon fiber is 5 mm or more, and a volumetric molding shrinkage rate (as measured according to the description) of the thermosetting resin composition (B) is 0.5% or more and 4.4% or less.
An insertable mould assembly for an injection moulding machine, which insertable mould assembly comprises - a first mould part having a first mould cavity face , - a second mould part alignable with the first mould part and having a second mould cavity face facing the first mould cavity face of the first mould part , and - at least one overmould cavity delimited between the first mould cavity face and the second mould cavity face in a closed condition of the insertable mould assembly , - the at least one overmould cavity is configured and dimensioned to receive at least a part of a substrate of a first component material, which substrate has been premade in another, separate process, and - the first mould part and the second mould part are assembled to confine the substrate prior to the insertable mould assembly being inserted in the injection moulding machine characterised in that at least one of the first mould cavity face and the second mould cavity face has female and/or male mounting parts (30;42;55) for receiving male and/or female mounting parts (17ab,17bc,17cd,17de,17ef,17fg,17gh,17ha; 18a,18b,18c,18d, 18e,18f,18g,18h;19) of the substrate to ensure a predetermined overmoulding position of the substrate in relation to the at least one overmould cavity , wherein in the overmoulding position of the substrate an overmoulding second component material is supplied to the one or more overmould cavities to apply an overmould component to the substrate . - a first mould part having a first mould cavity face , - a second mould part alignable with the first mould part and having a second mould cavity face facing the first mould cavity face of the first mould part , and - at least one overmould cavity delimited between the first mould cavity face and the second mould cavity face in a closed condition of the insertable mould assembly , - the at least one overmould cavity is configured and dimensioned to receive at least a part of a substrate of a first component material, which substrate has been premade in another, separate process, and - the first mould part and the second mould part are assembled to confine the substrate prior to the insertable mould assembly being inserted in the injection moulding machine characterised in that at least one of the first mould cavity face and the second mould cavity face has female and/or male mounting parts (30;42;55) for receiving male and/or female mounting parts (17ab,17bc,17cd,17de,17ef,17fg,17gh,17ha; 18a,18b,18c,18d, 18e,18f,18g,18h;19) of the substrate to ensure a predetermined overmoulding position of the substrate in relation to the at least one overmould cavity , wherein in the overmoulding position of the substrate an overmoulding second component material is supplied to the one or more overmould cavities to apply an overmould component to the substrate .
A method of producing an article, comprising the steps of: I) applying a filament of an at least partly molten construction material to a carrier, such that a layer of the construction material is obtained, which corresponds to a first selected cross section of the article; II) applying a filament of the at least partly molten construction material to a previously applied layer of the construction material, such that a further layer of the construction material is obtained, which corresponds to a further selected cross section of the article and which is bonded to the layer applied beforehand; III) repeating step II) until the article is formed; where at least steps II) and III) are conducted within a chamber and the construction material includes a fusible polymer; wherein the fusible polymer is a polyurethane obtainable from the reaction of a polyisocyanate component and a polyol component, said polyol component comprising a polyesterpolyol characterized in that the polyesterpolyol has a pour point (ASTM D5985) of ≥ 25°C, w the fusible polymer has a melting range (DSC, differential scanning calorimetry, 2nd heating operation at heating rate 5 K/min.) of ≥ 20°C to ≤ 100°C, the fusible polymer has a magnitude of the complex viscosity | η ∗ | (determined by viscometry measurement in the melt with a plate/plate oscillation shear viscometer at 100°C and a shear rate of 1/s) of ≥ 10 Pas to ≤ 1 000 000 Pas and in that the temperature within the chamber is ≤ 50°C. I) applying a filament of an at least partly molten construction material to a carrier, such that a layer of the construction material is obtained, which corresponds to a first selected cross section of the article; II) applying a filament of the at least partly molten construction material to a previously applied layer of the construction material, such that a further layer of the construction material is obtained, which corresponds to a further selected cross section of the article and which is bonded to the layer applied beforehand; III) repeating step II) until the article is formed; wherein the fusible polymer is a polyurethane obtainable from the reaction of a polyisocyanate component and a polyol component, said polyol component comprising a polyesterpolyol characterized in that the polyesterpolyol has a pour point (ASTM D5985) of ≥ 25°C, w the fusible polymer has a melting range (DSC, differential scanning calorimetry, 2nd heating operation at heating rate 5 K/min.) of ≥ 20°C to ≤ 100°C, the fusible polymer has a magnitude of the complex viscosity | η ∗ | (determined by viscometry measurement in the melt with a plate/plate oscillation shear viscometer at 100°C and a shear rate of 1/s) of ≥ 10 Pas to ≤ 1 000 000 Pas and in that the temperature within the chamber is ≤ 50°C.
A cutter assembly for use with a comminuting apparatus, the cutter assembly comprising: a cutter including: a body having first and second opposing surfaces , a first edge adjoining the first and second surfaces , and a cutting edge opposite the first edge , the cutter body extending from the cutting edge to the first edge ; a body slot extending through the cutter body from the first surface to the second surface ; and a bore hole enclosed by the first and second surfaces , the bore hole extending from the body slot to the first edge , characterized by a fastener extending through the bore hole and into the body slot , a locking nut being coupled to the fastener and being adjacent to the first edge of the cutter to prevent movement of the fastener . a cutter including: a body having first and second opposing surfaces , a first edge adjoining the first and second surfaces , and a cutting edge opposite the first edge , the cutter body extending from the cutting edge to the first edge ; a body slot extending through the cutter body from the first surface to the second surface ; and a bore hole enclosed by the first and second surfaces , the bore hole extending from the body slot to the first edge , a body having first and second opposing surfaces , a first edge adjoining the first and second surfaces , and a cutting edge opposite the first edge , the cutter body extending from the cutting edge to the first edge ; a body slot extending through the cutter body from the first surface to the second surface ; and a bore hole enclosed by the first and second surfaces , the bore hole extending from the body slot to the first edge , characterized by a fastener extending through the bore hole and into the body slot , a locking nut being coupled to the fastener and being adjacent to the first edge of the cutter to prevent movement of the fastener .
A hemispherical resonator comprising a bell fastened to a base that carries main electrodes facing an annular edge (6.2) of the bell, and at least one guard electrode adjacent to the main electrodes , an electrically conductive layer covering at least part of the inside surface (6.1) and said annular edge of the bell (6.2), characterized in that the electrically conductive layer covers a portion only of an outside surface (6.3) of the bell adjacent to the annular edge (6.2) thereof.
A positive electrode current collector , characterized by comprising: a support layer , having two opposite surfaces in a direction of its own thickness; a conductive layer , provided on at least one of the two surfaces of the support layer ; wherein a material of the conductive layer is aluminum or aluminum alloy, and a thickness D 1 of the conductive layer is 300 nm ≤ D 1 ≤ 2 μm, preferably 500 nm ≤ D 1 ≤ 2 μm, and more preferably 600 nm ≤ D 1 ≤ 1.5 μm; an elongation at break B of the support layer is 10000% ≥ B ≥ 12%, preferably 400% ≥ B ≥ 15%, and more preferably 400% ≥ B ≥ 30%; a volume resistivity of the support layer is greater than or equal to 1.0×10 -5 Ω·m; when a tensile strain of the positive electrode current collector is 2%, a square resistance growth rate T 1 of the conductive layer is T 1 ≤ 10%, preferably T 1 ≤ 5%, preferably T 1 ≤ 2%, and more preferably T 1 ≤ 1%; a thickness D 2 of the support layer is 12 μm ≤ D 2 ≤ 20 μm; the support layer comprises one or more of a polymer material and a polymer-based composite material; preferably, the polymer material is one or more of polyethylene terephthalate, polyethylene naphthalate, poly(vinyl alcohol), polystyrene sodium sulfonate, polyacetylene, polyphenylene ether, polyphenylene sulfide, polyethylene glycol, polysulfur nitride polymer material, polyphenylene, polypyrrole, polyaniline, polythiophene, polypyridine, cellulose, starch, protein, their derivatives, their cross-linked products and their copolymers. a support layer , having two opposite surfaces in a direction of its own thickness; a conductive layer , provided on at least one of the two surfaces of the support layer ; wherein a material of the conductive layer is aluminum or aluminum alloy, and a thickness D 1 of the conductive layer is 300 nm ≤ D 1 ≤ 2 μm, preferably 500 nm ≤ D 1 ≤ 2 μm, and more preferably 600 nm ≤ D 1 ≤ 1.5 μm; an elongation at break B of the support layer is 10000% ≥ B ≥ 12%, preferably 400% ≥ B ≥ 15%, and more preferably 400% ≥ B ≥ 30%; a volume resistivity of the support layer is greater than or equal to 1.0×10 -5 Ω·m; when a tensile strain of the positive electrode current collector is 2%, a square resistance growth rate T 1 of the conductive layer is T 1 ≤ 10%, preferably T 1 ≤ 5%, preferably T 1 ≤ 2%, and more preferably T 1 ≤ 1%; a thickness D 2 of the support layer is 12 μm ≤ D 2 ≤ 20 μm; the support layer comprises one or more of a polymer material and a polymer-based composite material; preferably, the polymer material is one or more of polyethylene terephthalate, polyethylene naphthalate, poly(vinyl alcohol), polystyrene sodium sulfonate, polyacetylene, polyphenylene ether, polyphenylene sulfide, polyethylene glycol, polysulfur nitride polymer material, polyphenylene, polypyrrole, polyaniline, polythiophene, polypyridine, cellulose, starch, protein, their derivatives, their cross-linked products and their copolymers.
A current sensor system for measuring an AC electrical current, comprising: - a busbar having a predefined thickness (T) and a predefined width (W), and having a substantially rectangular cross section (α); - a sensor device comprising two sensor elements (H1, H2) spaced apart by a predefined distance (dx) along a first direction (X), each configured for measuring a magnetic field component (Bzl, Bz2) oriented in a second direction (Z) perpendicular to the first direction (X); the sensor device being configured for determining a magnetic field difference (ΔBz) or a magnetic field gradient (dBz/dx) along the first direction based on these magnetic field components, and for determining said AC current based on the magnetic field gradient or magnetic field difference; wherein the sensor device is positioned relative to the busbar such that a reference point (R) of the sensor device situated in the middle between the two sensor elements (H1, H2) is located at a first distance (ds) from a side (S) of the busbar measured in the first direction (X), and is located at a second distance (Zs) from the busbar measured in the second direction (Z); wherein: the first distance (ds) is a value in the range from 70% to 110% of the width (W) of the busbar; and the second predefined distance (Zs) is a value in the range from 0.5 mm to 4.0 mm. - a busbar having a predefined thickness (T) and a predefined width (W), and having a substantially rectangular cross section (α); - a sensor device comprising two sensor elements (H1, H2) spaced apart by a predefined distance (dx) along a first direction (X), each configured for measuring a magnetic field component (Bzl, Bz2) oriented in a second direction (Z) perpendicular to the first direction (X); the sensor device being configured for determining a magnetic field difference (ΔBz) or a magnetic field gradient (dBz/dx) along the first direction based on these magnetic field components, and for determining said AC current based on the magnetic field gradient or magnetic field difference; wherein the sensor device is positioned relative to the busbar such that a reference point (R) of the sensor device situated in the middle between the two sensor elements (H1, H2) is located at a first distance (ds) from a side (S) of the busbar measured in the first direction (X), and is located at a second distance (Zs) from the busbar measured in the second direction (Z); wherein: the first distance (ds) is a value in the range from 70% to 110% of the width (W) of the busbar; and the second predefined distance (Zs) is a value in the range from 0.5 mm to 4.0 mm. the first distance (ds) is a value in the range from 70% to 110% of the width (W) of the busbar; and the second predefined distance (Zs) is a value in the range from 0.5 mm to 4.0 mm.
B-pillar for a motor vehicle body, comprising a sheet metal formed part having a head portion , a central portion and a base portion , as well as having an inner side and an outer side , wherein the head portion comprises on the inner side a connecting region for connecting the B-pillar to a roof region of the motor vehicle body, wherein the base portion is configured to connect the B-pillar to a sill region of the motor vehicle body, wherein the central portion extends between the head portion and the base portion and defines a longitudinal direction (X) of the B-pillar , wherein the sheet metal formed part comprises at least in the central portion a hat profile such that on the inner side a hollow chamber for receiving vehicle attaching parts is formed; and a fibre composite part having an upper portion , a central portion and a lower portion , wherein the lower portion ends within the central portion of the sheet metal formed part , characterised in that the fibre composite part is attached from outside to the outer side of the sheet metal formed part , and that the head portion of the sheet metal formed part comprises a supporting region at the outer side , wherein the upper portion of the fibre composite part comprises a contact region that laterally embraces the supporting region and is supported against this in the longitudinal direction (X) of the B-pillar .
Apparatus comprising: a conductive substrate ; and a coating on the conductive substrate and having a color, the coating comprising: adhesion and transition layers , a CrSiN layer on the adhesion and transition layers , the CrSiN layer being opaque to light of the color, and an uppermost layer on the CrSiN layer , the uppermost layer comprising a CrSiC film. a conductive substrate ; and a coating on the conductive substrate and having a color, the coating comprising: adhesion and transition layers , a CrSiN layer on the adhesion and transition layers , the CrSiN layer being opaque to light of the color, and an uppermost layer on the CrSiN layer , the uppermost layer comprising a CrSiC film. adhesion and transition layers , a CrSiN layer on the adhesion and transition layers , the CrSiN layer being opaque to light of the color, and an uppermost layer on the CrSiN layer , the uppermost layer comprising a CrSiC film.
A printing head module for printing laser sources, comprising: one or more printing heads, which are used for printing a plurality of laser light sources on a substrate successively or once for all; ink used for printing comprises a luminescent dye, a matrix material and a solvent; the laser sources are used to be combined into multiple independent laser source modules; the laser sources of the multiple independent laser source modules comprise RGB three primary color light sources; in each set of the independent laser source modules, at least two of the light sources are capable of emitting light in different colors under same excitation conditions, characterized in that , the ink has the formulation: three laser dyes, symmetrical diphenylethylene, fluorescein sodium and rhodamine B, are added into a BOVINE SERUM ALBUMIN aqueous solution of 300-1000 mg/mL respectively, in which a mass ratio of one of the three dyes to BOVINE SERUM ALBUMIN are 1-3%, respectively, and then glycerol is added, a volume ratio of glycerol to water is 1:1-4. one or more printing heads, which are used for printing a plurality of laser light sources on a substrate successively or once for all; ink used for printing comprises a luminescent dye, a matrix material and a solvent; the laser sources are used to be combined into multiple independent laser source modules; the laser sources of the multiple independent laser source modules comprise RGB three primary color light sources; in each set of the independent laser source modules, at least two of the light sources are capable of emitting light in different colors under same excitation conditions, characterized in that , the ink has the formulation: three laser dyes, symmetrical diphenylethylene, fluorescein sodium and rhodamine B, are added into a BOVINE SERUM ALBUMIN aqueous solution of 300-1000 mg/mL respectively, in which a mass ratio of one of the three dyes to BOVINE SERUM ALBUMIN are 1-3%, respectively, and then glycerol is added, a volume ratio of glycerol to water is 1:1-4.
Floor care appliance comprising an apparatus for assisting energy-efficient operation of the floor care appliance , the apparatus having the following feature: a projection device , which is arranged on the floor care appliance and is designed to project information regarding a charge state of an electrochemical memory of the floor care appliance and/or a recommended operating state for the floor care appliance onto a surface located outside the floor care appliance .